Untitled record

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Hydrocarbons producing wells are often stimulated by hydraulic fracturing processes, in which a service fluid such as a fracturing fluid or fracturing fluid may be introduced into part of the aquifer

<p>5 subterranean formation penetrating a wellbore at hydraulic pressure sufficient to create or reinforce at least one fracture within it. Treatment by stimulating the aquifer can increase hydrocarbon production from the well.</p>

when performing stimulation treatment and/or when performing one or more other wellbore operations (eg drilling process, stimulation process, completion process, fluid loss control process, stabilization process

<p>10 (cement, production, or combinations thereof), it may be necessary to selectively use one or more downhole tools that will be used in these operations.</p>

Furthermore, during one or more of said wellbore operations, it may be preferable to obtain data from within the borehole, for example, data relating to conditions within the borehole, data relating to the operation and/or performance of tools placed within the borehole, or combinations of Of which.

<p>15th However, downhole tools traditionally used in wellbore operations and/or the organs used to connect to downhole tools are limited in their use, often unreliable, and can be very time-consuming when used.</p>

Thus, there is a need to provide improved tools for use in wellbore operations and for methods and systems to use these tools.

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General description of the invention

A wellbore servicing system that includes two or more sensor tool nodes disposed is disclosed here, where each sensor nodes are configured to allow, disallow, or selectively change the fluid communication path between a borehole.

<p>5 Its own axial flow and its external part through one or more ports, where each sensor node is also configured to monitor at least one variable, and a drilling performance log controller node where the drilling performance log control node is connected to the sensor nodes via a near field communication (NFC) signal</p>

A wellbore servicing method involving the placement of two or more tool nodes is also disclosed here

<p>10 In-well bore sensing, in which each sensor node is configured to allow, disallow, or selectively alter the path of fluid communication between its axial flow hole and its outer part through one or more ports, and where each node is configured to Also nodes the sensors to monitor at least one variable, move the performance log control node across the wellbore so that the dreg control node is in contact with the</p>

<p>15th Sensor nodes via a Near Field Communication (NFC) signal, where data associated with at least one wellbore variable is transmitted from the sensor node to the NFC Drilling Performance Log Control node, and where one or more commands are transmitted from the control node In recording drilling performance to the sensor node via an NFC signal.</p>

Brief explanation of the drawings

<p>20 To achieve a full understanding of the present disclosure and its features, the following brief description, presented with the accompanying drawings and detailed description, will now be referred to:</p>

Figure 1 is an illustrative partial cross-sectional projection of a well system that can exemplify the principles of this disclosure;

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Figure 2 is a schematic location of an embodiment of a node electronic circuit; And

Figures 3 to 10 are illustrative partial cross-sectional projections of embodiments of wellbore servicing systems.

5 Detailed description:

In the following drawings and description, similar parts will typically be referred to throughout the specification and drawings with the same reference numbers, respectively. In addition, similar reference numbers may refer to similar components in different embodiments disclosed herein. The scale is not necessarily applied to reality. Certain features of an invention can be exaggerated

10 Or somewhat schematically, and some details of traditional items may not be displayed for clarity and accuracy. The present invention is subject to various embodiments. Specific embodiments are described in detail and shown in the drawings, it being understood that the present disclosure is not intended to limit the invention to the embodiments described and described herein. It should be fully recognized that the various information contained in the embodiments discussed here may be embodied separately or in any suitable combination.

15th to achieve the desired results.

Unless otherwise specified, the use of the terms "connect", "engage", "couple", "attach", or any other similar term describing the interaction between elements does not limit interaction to direct interaction between elements and may It also includes the indirect interaction between the described elements.

20 Unless otherwise specified, the use of the terms “above,” “upper,” “up,” “top,” “topside,” or other similar terms shall be construed as generally of the formation toward the surface or toward the surface of a body of water; Likewise, the use of the terms “under,” “bottom,” “down,” “downhole,” “underside,” or other similar terms should generally be interpreted as being generally in a formation off the surface or away from the surface of a body of water, regardless of borehole direction. should not be explained

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Use any one or more of the above terms as referring to positions along a vertical axis. completely.

5 Unless otherwise specified, the use of a “subterranean formation” should be interpreted to include both exposed subsurface regions and subterranean regions covered by water such as ocean or fresh water.

Here one or more embodiments of wellbore servicing systems and wellbore servicing methods are disclosed using an appropriate communication protocol, for example, near-field communication (NFC), as will be realized here, to communicate one or more Electromagnetic signals between two or more nodes, within a pit environment

10 Well. As used herein, a “node” refers to a medium or other member that is configured to transmit and/or receive an electromagnetic signal in accordance with a communication protocol. Also disclosed herein is one or more embodiments of wellbore (for example, which may include nodes, as will be disclosed here) which may be used in wellbore servicing systems and/or wellbore servicing methods using

.NFC

15th With reference to Figure 1, an embodiment of an operating environment in which a wellbore servicing system and/or a wellbore servicing method may be used is illustrated. It is noted that although some figures may show horizontal or vertical wellbore drilling, the principles of methods, devices, and systems disclosed herein may similarly be applied to horizontal wellbore bodies, conventional vertical wellbore bodies, and combinations thereof. Thus, the horizontal or vertical nature in no way should be interpreted as restricting the borehole to any specific shape.

20 Referring to Figure 1, the operating environment generally includes a surface drilling or 106 servicing rig 104 extending over and around a well 114 penetrating an underground formation 102, for example, for the purpose of extracting hydrocarbons from the aquifer 102, second position carbon dioxide into the subsurface formation 102, injection of one or more fluids (such as carbon dioxide, water, and/or steam), or combinations thereof.

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borehole 114 in the aquifer 102 by any suitable drilling technique. In one embodiment, the rig or service rig 106 includes a 108 derrick with a drilling floor 110 in which a 190 completion string (for example, a casing or liner string) generally designates a 191 axial flowbore within the wellbore

5 114. The rig or service rig 106 can be conventional and can have a working winch

motorized and other associated equipment to lower a tubular member, such as the completion tubing chain 190 into wellbore 114, for example, to place the completion equipment at the preferred depth.

While the operating environment depicted in Figure 1 refers to a stationary drilling or service rig 106 and an on-ground borehole 114, those of ordinary skill in the art will readily realize that rigs can be used

<p>10 Mobile maintenance drilling, well borehole completion units (for example, coiled tubing units) are similar. Those of ordinary skill in the art will readily realize that the systems, methods, tools, and/or means disclosed herein can be used in different environments. other operational environment, such as within an offshore wellbore operating environment.</p>

In one embodiment, the borehole 114 LT may extend substantially beyond the surface of the Earth.

<p>15th 104 Above the part of a well-bore moored, or it can deviate at any angle from the surface of the Earth 104 Above</p>

The borehole portion is oblique or horizontal. In alternative operating environments, parts or all of a wellbore 114 may be substantially vertical, skewed, horizontal, and/or curvilinear.

In one embodiment, at least a portion of the completion piping chain 190 may be fixed in position to the configuration 102 in a conventional manner using cement 116. In addition or alternatively,

<p>20 At least a portion of the completion tubing string may be held in place with a packing, for example a mechanical or inflatable packing (eg SwellPackersTM, commercially available from Halliburton Energy Services). In additional or alternative embodiments, the wellbore 114 may be partially completed (at e.g., sheathed and partially cemented) resulting in an incomplete borehole portion 114 (for example, unsealed and/or not cemented)</p>

<p>25 uncemented (wellbore or wellbore can be completed.</p>

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In an embodiment, as will be disclosed herein, one or more wellbore tools may be included in the series of completion tubes 190. For example, in an embodiment, one or more selectively operable wellbore actuators may be included (eg 5, fracturing tools, selectively operable wellbore isolation tools, or the like within a series of 5 completion pipes 190.

It should be recognized that although the environment shown in Figure 1 shows a completion tubing chain 190 placed in-wellbore 114, in one or more embodiments, another suitable tubular member may be additionally or alternatively placed in the wellbore, such as a casing string string, work string, liner, drilling string, 10 coiled tubing string, connected tubing string, and the like, or combinations thereof;

Inside borehole 114.

In an embodiment, one or more nodes, each of which takes an appropriate form, as will be disclosed here, can be used or deployed within a runtime.

In one embodiment, the node can be marked as static. For example, in an embodiment 15 a fixed node or part of it can be located in a relatively fixed position, eg, a fixed position with respect to a string of pipes placed within a wellbore.

In an alternate embodiment, the node can be distinguished as transitional. For example, in one embodiment, a transition node may be mobile and/or positionable, eg, a ball or arrow adapted for insertion into the wellbore, and connected (eg, carried/pumped/flowed) into a wellbore, Remove it from the 20 borehole, or any combination thereof.

In an embodiment, two or more nodes can be configured to communicate over an appropriate communication protocol. For example, in an embodiment, two or more nodes can be configured to communicate via an electromagnetic signal, for example, via an NFC signal.

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As used herein, the term “electromagnetic signal” refers to an identifiable and recognizable function of one or more electrical and/or magnetic properties or properties, for example, in relation to time. Without being bound by theory, an electrical signal can be converted into a signal EM by inducing a nearby electric field and/or a nearby magnetic field, resulting in the generation of a signal

<p>5 EM. In this example, the EM signal can generally have an oscillating electric field and/or an oscillating magnetic field propagating at a speed proportional to or about the speed of light. Thus, an EM signal can generally include polarized waves, unpolarized waves, longitudinal waves, transverse waves, or combinations thereof. In addition, the EM signal can be delivered via a transmitting and/or receiving antenna (for example, a conductive material, such as a copper wire).</p>

<p>10 wire). For example, an EM signal can be received and converted into an electrical signal (for example, an electric current) via a receiving antenna (for example, an electrically conductive material, for example, a copper wire). Furthermore, a signal can be transmitted EM at an appropriate power transmission capacity, as those with ordinary skill in the field will realize once this disclosure is reviewed.</p>

In one embodiment, the NFC signal is an EM signal and is characterized as having any type and/or format suitable for the waveform or combinations of waveforms, and having suitable characteristics or combinations of

Properties. For example, an NFC signal can have one or more embedded digital signals (eg amplitude-shift keying ASK), continuous phase modulation (CPM), frequency shift transmission FSK(frequency-shift keying), transmit with minimum shift, transmit on-off

<p>20 (OOK keying), phase-shift keying (PSK), and so on). In one embodiment, the NFC signal has digital modulation of the ASK signal. The NFC signal can be transmitted at a predetermined frequency, for example, at a frequency within a spectrum radio RF (frequency). In one embodiment, the NFC signal comprises one or more frequencies between about 3 kilohertz (kHz) and 30 megahertz (MHz).</p>

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In addition, the NFC signal can have a suitable carrier frequency, for example, a frequency of about 13.56MHz. In addition, an NFC signal can be transmitted at a predetermined data rate, for example, at a data rate of about 106 kilobits-per-second, alternatively, about 212 kilobits per second, as Alternatively, about 424 kbps, any suitable data rate as those of ordinary skill in the field will realize once they review this disclosure. For example, in one embodiment, the NFC signal can have an embedded digital ASK signal at a frequency of about 13.56 MHz at a data rate of about 106 kbps. In an alternative embodiment, the NFC signal can have an embedded digital ASK signal at a frequency of about 13.56 MHz at a data rate of about 212 kbps. In an alternative embodiment, the NFC signal can have an embedded digital ASK signal at a frequency of about 13.56 MHz at a data rate of about 424 kbps. In addition, an NFC signal can produce an omnidirectional or directional RF field with a range of about 8 inches or less, alternatively, about 6 inches or less, alternatively, about 4 inches or less. Alternatively, the NFC signal can show any frequency, modulation, data rate, transmit power, suitable signal range or combinations thereof, as ordinary skilled in the field will realize once they review this disclosure.

Additionally, in an embodiment, the NFC signal may include one or more digitally encoded messages, data packets, data frames, or the like. For example, an NFC signal may include one or more data signals and/or data frames comprising a part

<p>20 introductory, synchronization portion, frame length portion, address portion, command portion, data portion or payload, error checking portion, any other appropriate data frame portions as ordinary skilled in the art will realize upon review of this disclosure, or combinations thereof. In an embodiment, the address header portion can include node identification details (for example, information that is uniquely associated with another node, other medium, or other well device, for example, a media access control address).</p>

<p>25 MAC (media access control), serial number, and so on). In one embodiment, it can include</p>

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The part of the command and/or the part of data on a communication protocol command (for example, a request, response, and so on), a well tool command (for example, an actuation signal), data (for example, measurements from one or more of the transducers), any other type of information as those of ordinary skill in the art will recognize upon review of this statement, or combinations thereof.

<p>5 In addition, the data frame can include a set of similar parts or subsets (for example, a first data part, a second data part, a third data part, and so on) and/or parameters (for example, parsing codes). tokens). For example, the first data part can include data associated with a first transformer or first well and the second data part can include data associated with a second transformer or second well.</p>

<p>10 With reference to Figure 2, in one embodiment, a node may comprise an electrical circuit 300 comprising a group of functional units. In an embodiment, a functional unit (for example, an integrated circuit) can conduct a single function, eg, act as an amplifier or a baffle. The functional unit can perform several functions on a single chip. on a set of components (for example, Transistwart</p>

<p>15th transistors, resistors, capacitors, diodes, and/or inductors) on an IC that can perform a specified function. A functional unit can have a specified set of inputs, a specified set of outputs, and an interface (for example , electrical interface, logical interface, and/or other interfaces) with other functional units of the IC and/or external components. In some embodiments, the unit may include</p>

<p>20 A functional unit may contain duplicates of a single function (for example, many permutations or aggregators on a single chip) or it can have two or more different types of functional units that can work together to provide the functional unit with its overall functionality. A microprocessor or microcontroller includes functional units such as an arithmetic logic unit (ALU), one or more floating-point units.</p>

<p>25 FPU( units), one or more load or store units, one or</p>

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More than branch prediction units, one or more memory controllers, and other modules. In some embodiments, the functional unit can be subdivided into component functional units. The microprocessor or microcontroller as a whole can be seen as a functional unit of the IC, for example, if the microprocessor shares circuit 5 with at least one other functional unit (for example, a cache

.) memory unit

Functional units can include, for example, a general purpose processor, math processor, state machine, digital signal processor, video processor, audio processor, logical unit, logical element, rotor, multicast remover, transform unit, transform element, I/O element

<p>10 I/O(input/output), terminal controller, bus, bus controller, register, combination logic element, storage unit, programmable logic device, memory unit, neural network, sensor circuit, control circuit, DAC digital to analog converter</p>

analog to digital converter (ADC), oscillator, memory, filter, amplifier, mixer, modulator, demodulator, and/or any other suitable means as will be perceived by owners

<p>15th Ordinary skill in the field.</p>

In the embodiment given in Figure 2, a node may comprise a set of distributed components and/or functional units and each functional unit may communicate with one or more other functional units via an appropriate signal stream, for example, via one or more electrical connections , as will be revealed here. In one embodiment, a node can have a group of 20 functional units connected, for example, to send and/or receive one or more NFC signals.

(for example, EM signals). In the embodiment in Figure 2, a node can generally have many functional units including, but not limited to, processor 302, I/O device, and 306 data storage. storage device, 308 power supply, and antenna 310. In an alternative embodiment, a node can have 25 as many combinations of this functional unit (eg, processor, I/O device, storage device

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data, power source, antenna, etc.). In this embodiment, the node is configured to provide either a one-way or two-way communication (for example, peer-to-peer communication) and is configured to send and/or receive an NFC signal (for example, a signal EM). For example, in one embodiment, a node can be configured to send information via NFC and to receive information via NFC. While

<p>5 Figure 2 shows a specific embodiment of a node that includes a specific form of the functional units. Once this list is reviewed, people of ordinary skill in the art will realize that the node as disclosed here can be similarly used with alternate forms of the functional unit.</p>

In one embodiment, the 302 processor, which can be referred to as a central processing unit, can be configured to control one or more functional units of a node

<p>10 and/or to control the flow of data through the node. For example, the 302 processor can be configured to connect one or more electrical signals (for example, data packets, control signals, and so on) to a 304 I/O medium (for example, via a 350 electrical connection), a storage medium data 306, (for example, through an electrical connection 352), power supply 308 (for example, through an electrical connection 354), antenna</p>

<p>15th 310 (for example, via an electrical connection 356), and/or to perform one or more operations</p>

on electrical signals (for example, documentation, packet-watching logic, parsing, and so on). In this embodiment, one or more operations may be performed in a program, a computer component, or a combination of a program and a computer component. As a single processor, a 302 processor can be implemented as one or more CPU chips, core parts (for example, a multi-part processor).

<p>20 basic), digital signal processor (DSP), application specific integrated circuit), and/or any other suitable type and/or body as ordinary skilled in the fields will become aware upon review of this disclosure .</p>

In an embodiment, the 302 processor can be configured to use and/or comply with one or more protocols and/or standards. For example, the 302 processor can be configured to process (eg

<p>25 e.g. sending and/or receiving (an electrical signal) (e.g., a data packet, a data frame,</p>

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and so on) using NFC standards and/or protocols in accordance with the International Organization for Standardization (ISO 18092),

European Computer Manufacturers Association (ECMA) 340, ISO 14443 Technical, European Telecommunications Standards Institute (ETSI), and

190 102 Specifications (TS). In an additional or alternative embodiment, any protocol 5 and/or other appropriate wireless standard may be used as will be recognized by those of ordinary skill in the art immediately upon review of this disclosure.

In one embodiment, the 304 I/O can generally be configured to transmit electrical and/or data signals between the 302 processor and/or a node and an external computer component (eg, a power supply, a computer, and so on).

<p>10 In an embodiment, the data store 306 can be generically configured to store information (for example, data) for a node and can be configured to read and/or write data to one or more memory cells of the data store 306. In an embodiment, it can include Data storage device 306 on ROM, read-only memory, random access memory</p>

RAM (random access memory), flash memory, external memory (for example,

<p>15th A secure digital SD card, any suitable type of storage device as ordinary skilled in the art will be aware of upon viewing this statement, or combinations thereof.</p>

In an embodiment, a node can have one or more antennas 310. Antennas 310 can be configured to transmit and/or receive an NFC signal (for example, an EM signal) and to respond to one or more predefined RF bands. For example, can initialize

<p>20 310 antennas to respond to an NFC signal that has a frequency within the RF spectrum (for example, from about 3 hertz (Hz) to 300 gigahertz (GHz). In one embodiment, 310 antennas can respond to an NFC signal within a range of 13.56 In an additional or alternative embodiment, the antennas 310 may be configured to respond to any other suitable frequency band as those of ordinary skill in the field will recognize once this disclosure is reviewed.</p>

<p>25 310 generally on monopole antenna, dipole antenna, folded dipole antenna, antenna</p>

yyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyy!

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patch, micro-band antenna, annular antenna, omnidirectional antenna, bidirectional antenna, planar inverted-F antenna (PIFA), folded inverted conformal antenna (FIFA), any other type and/or configuration Suitable for an antenna as those with ordinary skill in the field will realize immediately upon reviewing this detection, or combinations thereof 5. For example, the antenna could be a 310 annular antenna and in response to receiving a signal

The antenna 310 can be inductively coupled and/or can produce a magnetic field that can be converted into electric current or voltage (for example, via inductive coupling). A peripheral interface and/or can be configured for physical and/or electrical communication with the 302 processor. 10 For example, the terminal interface may include one or more lead wires, one or more metallic traces, a BNC connector, a terminal connector, an optical connector, and/or any other interface suitable for connection as ordinary skilled in the field as soon as this disclosure is reviewed.

In an embodiment, the 302 processor can be configured to use and/or comply with one or more protocols and/or standards. For example, the 302 processor can be configured to process (for example, send and/or receive) an electrical signal (for example, a data packet, a data frame,

and so on) using NFC standards and/or protocols according to ISO 18092,

European Computer Manufacturers Association (ECMA) 340, ISO 14443 Technical and European Telecommunications Standards Institute (ETSI),

190 102 Specifications (TS). In an additional or alternative embodiment, any protocol 20 and/or other appropriate wireless standard may be used as will be recognized by those of ordinary skill in the art upon review

This disclosure.

In one embodiment, the 304 I/O can generally be configured to transmit electrical and/or data signals between the 302 processor and/or a node and an external computer component (eg, a power supply, a computer, and so on).

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In an embodiment, the data store 306 can be generically configured to store information (for example, data) for a node and can be configured to read and/or write data to one or more memory cells of the data store 306. In one embodiment, the data storage medium 306 may include ROM, random access memory (RAM), flash memory, external memory (for example, a Secure Digital (SD) card), any suitable type of memory Storage is as will be realized by those of ordinary skill in the field immediately upon reviewing this disclosure, or combinations thereof.

In an embodiment, a node can have one or more antennas 310. Antennas 310 can be configured to transmit and/or receive an NFC signal (for example, an EM signal) and to respond to one or more predefined RF bands. For example, 10 antennas 310 can be configured to respond to an NFC signal containing a frequency within the RF spectrum (for example

example, from about 3 hertz (Hz) to 300 gigahertz (GHz)). In one embodiment, the 310 antennas can respond to an NFC signal within a range of 13.56 MHz. In an additional or alternative embodiment, the 310 antennas can be configured to respond to Any other suitable frequency range as will be recognized by those of ordinary skill in the field immediately after reviewing this disclosure Antennas 15 310 can generally include monopole, dipole, folded dipole, antenna

yyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyyy!

Patch, micro-band antenna, annular antenna, omnidirectional antenna, bidirectional antenna, inverted F-flat antenna (PIFA), inverted and folded band antenna (FICA), any other type and/or shape suitable for antenna as ordinary skilled in the field will understand Immediately upon review of this disclosure, or combinations thereof. For example, the antenna 310 can be a ring antenna and the response to NFC signal reception 20 is about a predetermined frequency the antenna 310 can be inductively coupled and/or can produce a magnetic field that can be converted into an electric current or voltage (for example, via Inductive coupling). In addition, the antenna 310 can have a terminal interface and/or can be configured for physical and/or electrical communication with the 302 processor. For example, the terminal interface may include one or more lead wires, one or more

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of metallic traces, a BNC connector, a terminal connector, an optical connector, and/or any other interface suitable for connection as ordinary skilled in the art will realize upon viewing this disclosure.

In an embodiment, the 308 power supply can power the 302 processor and/or any other node functional unit. The 308 power supply can have an included battery

5 by it, a power generation device, voltage source, current source, or any other suitable power source as those of ordinary skill in the art will realize upon review of this disclosure. For example, the power source is 308 galvanic cells. In one embodiment, the powertrain may comprise a generator, such as a turbine adapted to convert fluid motion into electrical energy; Alternatively, an electrolyte generator, which can be configured to convert differences in temperature into electrical energy. In these embodiments,

10 The power generation facility may be carried, attached, included in or appropriately coupled to the well tool and/or component thereof. Appropriate power generation methods, such as a turbine generator and a thermoelectric generator, are disclosed in US Patent No. 8,162,050 to Roddy et al., which is incorporated herein for reference in its entirety. In one embodiment, the 308 power source may supply power in the range of about 0.5 mW to about 10 watts, alternatively, of about 0.5 mW

<p>15th watts to about 1.0 watts.</p>

In one embodiment, the electronic circuit 300 may be programmable and/or reprogrammable, for example, via a wired connection or a wired connection. In addition, in one embodiment, the electronic circuit 300 may be configured to operate in either a low power consumption mode or a “sleep” mode, alternatively, in an active mode or an “energized” mode. In addition, it can

<p>20 Configure the electronic circuit 300 to enter active mode (for example, to “energize”) in response to an NFC signal.</p>

As will be disclosed here, for any connection between two or more nodes, unless otherwise indicated, any of the nodes can initiate a connection to the other node or nodes, while the other node or nodes are the target of that connection. In one embodiment, a node can be configured to act as an initiator (eg

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A node can be configured to communicate via an active mode and/or a passive mode.

In an embodiment, a node that acts as an initiator can be configured to initiate or establish communication between two or more nodes, for example, by sending an NFC signal. Alternatively, a node can be configured to act as a target

<p>5 to respond to an NFC signal (for example, from a node acting as an initiator) and may not be configured to initiate communication between the two or more nodes. For example, the target can be configured to send an NFC signal only (for example, a data frame) in response to an NFC signal ( For example, request a data frame) from the initiator. In one embodiment, a node can be configured to act as an initiator and a target. For example, a first node can act as an initiator to communicate with a second node via an NFC signal and can</p>

<p>10 It also acts as a target to communicate with a third node via an NFC signal. Additionally or alternatively, the first node can act as an initiator to communicate with a second node for a first period of time and can then act as the target to connect to the second node for a second period of time.</p>

In an embodiment, two or more nodes (for example, initiator and target) can be configured to communicate in active mode or passive mode. For example, in active mode the initiator generates

<p>15th The target is an RF field to make the connection between the initiator and the target. For example, an initiator can generate an RF field and transmit an NFC signal over the RF field generated by the initiator. In addition, the initiator can generate an RF field and send a response to the initiator via the RF field generated by the target. Alternatively, in passive mode the initiator generates an RF field and initiates communication (for example, by sending an NFC signal) between the initiator and the target. For example, the initiator can generate an RF field</p>

<p>20 It sends the NFC signal over the RF field generated by the initiator. In addition, the initiator can generate a response to the initiator via the RF field generated by the initiator. Additionally, during passive communication, the target can be configured to respond to a command (for example, from the initiator) via a load-embedded scheme (for example, below the carrier frequency). In one embodiment, a node can be selectively configurable . E between the active and passive mode of communication</p>

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For example, a node can be programmed or reprogrammed (for example, via a wired connection or a wired connection) to operate in an active or passive mode.

10

Alternatively, in an embodiment, a node can be configured to run as an active mode in some instances.

cases and as a negative situation in other cases. For example, a node can be configured to run in passive mode until a predefined state is satisfied, and once the predefined state is satisfied, it is configured to go from passive mode to active mode. Alternatively or alternatively, in an embodiment, a node can be configured to run in active mode until a predefined state is satisfied, and once the predefined state is satisfied, it is configured to go from passive to active mode. For example, a predefined state can include passing a predetermined time interval, receiving a predefined NFC signal (for example, data frames), receiving a predetermined number or combination of NFC signals, or combinations thereof.

In an additional or alternative embodiment, a group of nodes can be configured to form a private network. For example, nodes can be a group (for example, a chain) of nodes that span some distance (for example, part of a well bore) and can be configured to receive and/or rebroadcast (for example, 15 repetitions) a signal NFC (for example, one or more frames of data) over the private network.

In an additional embodiment, a node can be configured to use a collision avoidance protocol and/or collision detection while an NFC signal is being transmitted. For example, before an RF field is generated, a node (for example, an initiator) can be configured to test for the presence of an external RF field (for example, an RF field generated by another node). Thus, the node (for example, an initiator) can be configured to Do not generate a 20 RF field while there are external RF fields.

As will be disclosed herein, in an embodiment one or more nodes may be configured and/or may be functional as a drilling performance logging device, such as a wellbore device (eg, a trigger device, a production device, a completion device, a wellbore isolate, and so on), as a controller, as a means of wellbore monitoring, or combinations thereof. For example, while many specific nodes bodies and/or functions are disclosed, they should not be interpreted

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This disclosure means that any given entity/function associated with a node excludes any other entity/function. Moreover, one node can exhibit different functions in relation to many other nodes. For example, a first node can show a first subset of jobs for (for example, when called) a second node can show a second subset of jobs for (for example, when called)

5 (for example, when connecting to) a third node.

In an embodiment, a node may be configured as a drilling performance logging method (for example, a drilling performance logging node or logging). For example, said performance logging node may be configured to retrieve and/or receive data, alternatively, one or more groups of Sub-data, from a sensor and/or data collection (for example, a sensor node, as will be disclosed here).

<p>10 In this embodiment, a drilling performance logging node can be configured to communicate across a wellbore or part of it. For example, a drilling performance logging node can have a flowable or scalable component</p>

For pumping, a disposable organ, a ball, an arrow, or the like. In this embodiment, a drilling performance logging node comprising a ball, arrow, or the like may be configured to communicate across at least a portion of the wellbore and/or a tubular member placed within the wellbore with a fluid through which it is delivered. for example,

<p>15th A drilling performance logging node may be connected down through a wellbore (for example, while the fluid circulates forward in the wellbore). Alternatively, a drilling performance logging node may be connected up through a wellbore (for example, while reverse circulation of the fluid out of the borehole or with formation fluids flowing out of the borehole). Alternatively, in one embodiment, a drilling performance logging node may be configured to be included in and/or connected to a pipeline (for example,</p>

<p>20 drill string, work string, coiled tubing string, or similar) and/or wire. The wire can be stranded cable such as electrical line, single-strand cake such as slip cable A slickline, or multi-strand cable such as sand cable, for example, a drilling performance logging node (eg up and/or down) can be connected across a portion on the</p>

<p>25 Less than a borehole with tubing string or wire.</p>

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In one embodiment, the circuit of 300 of a drilling performance logging node can be configured to obtain, log, and/or store data or a subset of data from another node (for example, a sensor node), for example, immediately upon initiating communication with another node (for example, a sensor node). For example, a sensor node (.

<p>5 In one embodiment, a drilling performance logging node can be configured as an initiator. In this embodiment, when a drilling performance logging node travels (for example, inside a wellbore), the drilling performance logging node can be configured to generate an RF field and to send an NFC signal (for example, one or more commands and/or data requests), on the For example, to one or more sensor nodes, as will be disclosed here. Additionally, a performance logging node can be configured to receive one or more responses (eg 10 data frames), for example, from sensor nodes.</p>

In one embodiment, a drilling performance logging node can be configured as a target. In this embodiment, when a drilling performance logging node travels (for example, inside a wellbore), the drilling performance logging node can be configured to be in a static or “sleep” mode (for example, not generating an RF field) until it is activated by an RF field (at For example, an NFC signal from an initiator). Once activated, a performance logging node can be configured to receive one or more data frames. In addition, a drilling performance logging node can be configured to return to a sleep or “sleep” state once one or more data frames are completed receiving/transmitting.

20

Additionally, in an embodiment once one or more data frames is received, a drilling performance logging node can be configured to process (for example, analyze) the data frames, for example, for the purpose of evaluating and/or selecting another node. In rendering, a drilling performance logging node can be configured to respond in response to a node realization, for example, a data frame request. Additionally or alternatively, a drilling performance logging node can be configured to process data frames for extracting and/or analyzing one or more data subsets (for example, a first data part, a data part

second, and so on) from the data frames.

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Additionally, in an embodiment, a drilling performance logging node can be configured to store one or more data frames and/or data subsets, for example, saving data frames and/or data subsets (for example, on a medium Data storage for the electronic circuit of the drilling performance logging node.

<p>5 In one embodiment, the electronic circuit can also be configured to transmit or load one or more data frames to another node, for example, data retrieved from other nodes.</p>

In one embodiment, data communicated between two or more nodes may include data associated with a wellbore (such as temperatures, pressures, flow rates, etc.), data associated with other nodes (node ​​bodies, node status, etc.). A power supply to the node, or similar), 10 or combinations thereof.

In one embodiment, a node can be configured as a sensor (for example, a sensor node). For example, in this embodiment, a sensor node can be configured to measure and/or store data, for example, data associated with a wellbore (such as temperatures, pressure rates, flow rates, or the like), or combinations thereof.

<p>15th In this embodiment, the sensor node may be configured to be positioned (for example, permanently or removable) in a wellbore. In one embodiment, a sensor node may be attached to or to part of a component (for example, a tool or pipe ) within the wellbore. For example, a sensor node may be embedded in and/or connected to a pipeline, eg, a casing string, a production tubing string, a completion tubing string, and the like, or combinations thereof. For example, in this personification,</p>

<p>20 A sensing node may include a device (eg, a tubular member) that is sized and suitably configured to make it part of the tubing during said string laying.</p>

Alternatively, in one embodiment, the sensor node is transitional, for example, the sensor node can be embedded in a positionable member (eg, ball, arrow, plug, and so on) and can be configured to measure and/or store data as it is being transmitted or communicated through a borehole.

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Alternatively, in one embodiment, a sensor node may be configured to be included in the wellbore fluid, for example, to be connected to the wellbore and/or the subsurface formation as part of a drilling fluid such as a fracking fluid, a cement fluid, or the like. For example, in this embodiment the sensor node may comprise one or more micro or nano-sized electronic sensors,

5 For example, as disclosed in Roddy's US Patent Application No. 695,329/11 filed on April 2, 2007, issued in the form of US Patent No. 7,712,527, which is included herein by reference in its entirety.

In an embodiment, the sensor node may comprise one or more transformers. In one embodiment, the transformer may be in electrical signal contact with the 10 300 electronic circuit and may be used to sense and/or measure conditions (for example,

temperature, pressure, flow rate, magnetic field, pH, and so on), for example, inside a borehole. Additionally, the transformer can be configured etc. to produce an appropriate signal (for example, an electrical signal) that can indicate and/or proportional to the measured or sensed conditions (for example, temperature, pressure, flow rate, magnetic field, pH, and so on).

<p>15th In one embodiment, the sensor node can be configured to use a transducer to hold borehole data (for example, temperature, pressure, flow-rate, pH, and so on). for example, pressure inside a borehole) and may include, but is not limited to, capacitive sensors, piezoresistive strain gauge sensors</p>

<p>20 sensors, electromagnetic sensors, piezoelectric sensors, optical sensors, or the like. Additionally or alternatively, the transducer may be configured to measure temperature (eg, in-hole temperature) and may include, but is not limited to, a thermocouple,</p>

thermistor, resistance temperature detector

<p>25 , or something like that. . Additionally or alternatively, the converter can be configured to measure a flow rate (eg</p>

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(e.g., flow rate of a fluid into a borehole) and may include, but is not limited to, a differential pressure flowmeter, velocity flowmeter, positive displacement flowmeter, mass flowmeter, open channel flowmeter, or the like. Alternatively, the transducer can be configured to measure any other suitable borehole data as those of ordinary skill in the field will be aware of once this disclosure is reviewed.

<p>5 In an additional or alternative embodiment, the sensor node can be configured to use a transducer to hold data associated with an instrument, for example, position indicators, motion indicators, status indicators, strength indicators, and so on. For example, the transducer may be configured to measure the state (for example, position and/or motion) of the tool, for example by using one or more magnetic sensors to detect the operation of a ferromagnetic sliding bushing. Appropriate magnetic sensors can include,</p>

10 but not limited to, magnetic resistive sensor, giant GMR (magneto-resistive) sensor, MEMS (microelectromechanical systems) sensor, Hall effect sensor, inductive coil sensor, superconductive quantum SQUID sensor) interference device(, or similar. Additionally or alternatively, a node can be configured

15th The sensor can use one or more wheel gauges to detect and/or measure motion (for example, motion of a sliding sleeve). Alternatively, the sensor node can be configured to use one or more potentiometers to detect and/or measure Partial motion and/or position of an instrument may include additional types and/or configurations suitable for transformers, but are not limited to, gyroscope, accelerometer, strain gauge, potentiometer, acoustic sensor,

20 or something like that.

25

In one embodiment, the sensor node's electronic circuit 300 can be configured to make the sensor node communicate data to another node (for example, a drilling performance recording node), for example data obtained by running the switch, to another node. For example, In response to a request for a data frame (for example, from a drilling performance logging node), the sensor node can be configured to connect a data frame that contains all stored and/or measured data; alternatively, a set

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subsets of stored and/or measured data (for example, a first data part, a second data part, and so on). Alternatively, in an embodiment, a sensor node can communicate data largely in real time, for example For example, the data is largely communicated

close to its sensing time.

5 In an embodiment, a node can be configured as a wellbore tool (for example, a tool node). For example, in this embodiment, a tool node can be configured to perform one or more wellbore service operations. In an embodiment, it can run For example, a tool node can be configured so that, once it receives communication from another node, the tool node can run, for example, to allow, disallow, or change the fluid communication path through the tool and/or the communication path

10 The fluid between the axial flow hole of the tool and the outside of the tool.

In an embodiment, a tool node can comprise and/or be configured as an actuatable flow assembly. In this embodiment, an AFA can generally include a housing and one or more movably placed fetches (for example 15, sliding) inside the housing. For example, one or more bushings can be moved from a position where the bushing and housing cooperatively allow fluid communication to a position where the bushing and housing cooperatively do not allow fluid contact, or vice versa. In many embodiments, a node can be initialized that includes y y

On AFA For use in a catalyst process (such as a fracturing, perforating, or waterjet, acidifying process), for use in a drilling process, for use in a completion process (such as a cementing stabilization process or a fluid loss control process), for use during the production of formation fluids, for use 20 In a secondary extraction process (such as an injection of carbon dioxide, water and/or steam), or combinations thereof.

Disclosure of Appropriate Examples of AFA in US Patent Application No. 781,093/13, of Walton et al. Filing February 28, 2013 US Patent Application No. 828,824/13, Filing March 14, 2013, Application International Application No. 025424/2013, which was filed on February 8, 2013, and International Application No. 026534/2013, which was filed on the 15

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February 2013 by Fripp/Bonner, each of which is included in this document for reference in its entirety.

In another embodiment, a tool node can include and/or be configured as an actuatable packer. In this embodiment, an operable padding can generally include

<p>5 Gum mandrel and one or more wadding elements that show dilation in the direction of the diameter once it is longitudinally compressed. The operable packing may be configured so that, upon operation, the operable packing is caused to compress one or more packing elements, causing the packing elements to expand in the radial direction until they make contact sealably with the wellbore wall or with the inner bore surface of a chain Tubes with operable gasket placed. Suitable examples of reversible filling have been revealed</p>

<p>10 To operate in US Patent Application No. 660,678/13 to Helms et al. which was filed on October 25, 2012, which is incorporated herein for reference in its entirety.</p>

In another embodiment, the tool node may comprise and/or be configured as an actuatable valve assembly. In this embodiment, the AVA may generally comprise a housing through which generally an axial flow hole is specified and an operable valve. 15 The actuable valve can be located inside the housing (eg, inside an axial flow hole) and can be

Position it from a first configuration in which the operable valve allows fluid communication through the axial flow hole in at least one direction to a second configuration in which the operable valve does not permit fluid communication through the flow orifice in that direction, or vice versa. Fittings suitable for this operable valve include a fin valve and a ball valve. In one embodiment, the actuable valve 20 may be moved from the first body to the second body, or vice versa, by the movement of the sliding sleeve

Also placed in the housing, for example, which can be moved or allowed to move once the actuator is turned on. Appropriate examples of AVA are disclosed in I.A. 27674/13, which was filed on February 25, 2013, and I.A. No. 27666/13, which was filed on February 25, 2013.

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In one embodiment, the electronic circuit 300 of said gadget node can be configured to make the gadget node receive an NFC signal (eg a data frame response, data frame request, and so on) and to process (eg parse) a data frame, for example , to extract the address portion or data portion of a data frame in order to determine if a data frame is being addressed for the given tool node

<p>5 That. For example, an address portion of a data frame can be extracted and compared to a pre-defined address in order to determine whether the NFC signal received is for a specific gadget node.</p>

10

Alternatively or alternatively, in an embodiment, the tool node may be configured to determine the direction of movement of the medium (node) from which the NFC signal is received. For example, the tool node may have two or more magnetic sensors/transducers and are configured To use magnetic transducers/sensors (for example, Hall effect sensors) to sense a magnetic field and/or perturb a magnetic field from the motion of a transmitted medium (for example, an initiator). Additionally or alternatively, a widget node can be configured to specify the direction of movement of a medium (node) that sends a signal (for example, an NFC signal) directed to the specified node.

Alternatively or additionally, the tool node can be configured to be immediately in contact by

<p>15th The tool node electronic circuitry increases or decreases the counter (for example, a program and/or computer component counter) with a tool or well node (for example, an NFC signal). Alternatively, the tool node can be configured Once in a signal connection (for example, an NFC signal connection) with a predetermined tool or well node (for example, a node with </p>

A predefined data frame identifier, for example, a MAC address), the instrument node electronic circuit 20 increases or decreases the counter (for example, a program and/or computer component counter).

Alternatively, a tool node can be configured so that once it is in signal communication (for example, an NFC signal connection) with a tool or a well node moving in a first direction (for example, moving down a well through a wellbore), it can The electronic circuit increases the counter and can cause the movement of a tool or borehole node in a second direction (for example, moving upstream through a Y-hole).

<p>25 . The electronic circuit can reduce the counter. Alternatively, the electronic circuit can reduce the counter</p>

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The counter is in response to a tool or a well knot traveling in the first direction and increases the counter in response to a tool or well knot traveling in the second direction.

10

15

20

25

Alternatively or additionally, the utility node can be configured to go to/from “sleep/wake” mode in response to an NFC signal. Additionally or alternatively, the tool node can be configured to go to/from “sleep/wake” mode in response to a predefined command and/or a predefined tool or well node. For example, a tool node can be configured to process (for example, parse) a receiver data frame (for example, a data frame request, a data frame response, and so on) from a node (for example, an initiator), for example, to select One or more commands for a tool node.Additionally or alternatively, a tool node can be configured to go to/from “sleep/wake” mode in response to a node moving in a predetermined direction. Alternatively or alternatively, the widget node can be configured to go to/from “sleep/wake” mode once a predetermined counter limit is achieved (for example, an upper numeric limit and a lower numeric limit).

Alternatively, once an NFC signal is received, the widget node's electronic circuit can be configured to produce one or more appropriate responses (eg, an on-off signal, energize or prompt). Alternatively, the widget node can be configured to Etc. outputs one or more operating, activating, or inductive signals (eg, voltage or current) in response to selecting a specific tool or well node (eg, a node with a predefined data frame identifier). Additionally or alternatively, a tool node can be configured to output one or more actuation signals (eg voltage or current) in response to selecting one or more predefined commands. For example, a tool node can be configured etc. Request playback signals for a set of players (for example, the first player, the second player, and so on). Alternatively or alternatively, the tool node may be configured to output one or more actuation, activating, or inductive signals (for example, voltage or current) in response to limiting the movement of a specific tool or well node (for example, a starter has a predefined data frame identifier) ​​in a predetermined direction (for example, in the uphole or downhole direction). Additionally, the tool node can be configured to output one or more actuation signals,

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Activation, or induction (for example, voltage or current) once a predetermined meter limit is met (for example, an upper numeric limit and a lower numeric limit). Additionally, the tool node can be configured to output one or more signals Turning on, energizing, or induction (for example, voltage or current) immediately after going from “sleep” to “energizing” mode.

<p>5 Additionally, in an embodiment, the widget node can be configured to indicate a state, for example, communicating in energized, communicating in passive, static/“sleep”, active/“energized”, fully turned on, done Partially triggered, any other appropriate condition indicators as those of ordinary skill in the art will recognize upon review of this disclosure, or combinations thereof. For example, in one embodiment, the tool node can be initialized to output a data frame response (for</p>

<p>10 For example, it has one or more bits of data) that indicates the state of the widget node. For example, the 300 widget node electronic circuit can be configured to output a signal indicating the position and/or shape of the widget node, the position of the widget, a record of the activities the tool, the amount of power remaining in any associated power supply, the state of the tool node and/or one or more of the tool components.For example, in an embodiment, the tool node may include a pressure transducer and may be configured to select and/or Refer to</p>

<p>15th The position of the tool knot (for example, the depth of the tool knot below ground within a borehole), for example, based on hydrostatic pressure measurements. Alternatively or, in one embodiment, the tool knot may be configured so that it can cover The operation of a node node (for example, impeding or preventing the realization/production of an RF field) or detects (for example, allowing or aiding in the realization/production of an RF field) the tool node, and thus indicates the state and/or appearance of a performance node E. in a way</p>

<p>20 Additional or alternative, the widget node can be configured to go to/from a “sleep” mode (for example, blocking or preventing the realization/producing of the RF field) or an “awake” mode (for example, allowing or assisting in realizing/producing RF domain), and thus indicates the state and/or shape of the widget node.</p>

In an embodiment, a node can be configured as a controller (for example, a control node). For example, in this embodiment, a control node can be configured to deliver one or more signals to a node

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Another (for example, to a tool node) is effective in causing the other node to output a response, for example, as disclosed here.

In an embodiment, a control node may be configured to communicate (for example, flowing or pumped) across or part of a wellbore. For example, a control node may include

<p>5 A ball, an arrow, or something like that. In this embodiment, a control node comprising a ball, arrow, or the like may be configured to communicate across at least a portion of the wellbore and/or a tubular member placed within the wellbore with a fluid through which it is delivered. For example, the control node can be connected down through a wellbore (for example, while the fluid is circulating forward in the wellbore). Alternatively, the control node can be connected up through the wellbore (for example, while the fluid is circulating in the wellbore).</p>

<p>10 in reverse out of the borehole or with formation fluids flowing out of the borehole). Alternatively, in one</p>

In embodiment, the control node may be configured to be included in and/or linked to a pipeline (for example, a drill pipe chain, a running pipe chain, a coiled pipe chain, or the like) and/or a wire. up and/or down) across at least part of a borehole with string or wire.

<p>15th In an alternative embodiment, the control node may be configured to be positioned (for example, permanently or removable) in a wellbore. In one embodiment, a sensor node may be attached to or to part of a component (for example, a tool or pipe ) within the wellbore. For example, a control node may be included in and/or connected to a pipeline, eg, a casing pipeline, a production pipeline, a completion pipeline, and the like, or combinations thereof. For example, in this personification,</p>

<p>20 The control node may include a tubular member suitably sized and configured to make it part of a tubing string during said string laying.</p>

In one embodiment, the electronic circuit of said control node can be configured to cause the control node to deliver an NFC signal (for example, a data frame) causing another node to output a specific response. For example, the signal can cause the other node to increase Reduce 25 computer or software component counters, go to/from "sleep"/"wake" mode, output electrical signal

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(for example, a play signal), to start or pause (for example, a fluid timer or a program timer), or such other appropriate response as would be recognized by those of ordinary skill in the art immediately upon reviewing this disclosure, or combinations thereof.

In this embodiment, one or more nodes that communicate via an NFC signal and have an . format can be used

<p>5 and/or a function, for example, as disclosed herein, or a combination of bodies and functions, in</p>

A wellbore servicing system and/or a wellbore servicing method, as will be disclosed herein.

Referring to Figure 3, an embodiment of a wellbore service system is illustrated with at least two nodes connected via an NFC signal. In the embodiment in Figure 3, the wellbore service system includes a wellbore information collection system 200, ie, a system generally configured to collect and/or record

<p>10 Data from inside the wellbore. For example, this data may include wellbore data (for example, temperature data, pressure data, flow rate data, or combinations thereof), data associated with one or more tools (for example, tool nodes , as disclosed here) within the borehole (for example, tool state, tool capacity availability, tool shape and so on), or combinations thereof.</p>

<p>15th In the embodiment in Figure 3, the wellbore information collection system 200 includes one or more 202 sensor nodes (specifically, the three 202A, 202B, and 202C sensor nodes) placed within the wellbore 114. The embodiment in Figure 3 illustrates an embodiment in which there are Three 202 sensor nodes, in another embodiment any suitable number of sensor nodes can be used In the embodiment in Figure 3 each of the 202 sensor nodes can be generic and/or functional</p>

<p>20 To obtain/measure one or more data points within a wellbore (eg, via a diverter process) and optionally, to store that data. In an embodiment, one or more of the 202 nodes may be additionally or alternatively configured and/or be Functional as a tool node, as disclosed here.For example, in this embodiment, these nodes can also be configured etc. Output an NFC signal indicating the position and/or shape of the widget node, position of the widget, a record of the widget's activities, the amount of power remaining</p>

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In any source associated with the power supply, the state of the tool node (and/or one or more of the tool components), or combinations thereof.

In the embodiment in Figure 3, each sensor node 202 is included in (for example, part of) the casing chain 190 and placed in the wellbore 114. Specifically

<p>5 Identification, in the embodiment in Figure 3, each of the 202 sensor nodes are positioned within the wellbore such that each of the 202 sensor nodes is generally attached to a subterranean formation region (specifically, one of the formation regions 2, 4 and 6). In this embodiment , each of the sensor nodes 202a, 202b, and 202c can obtain data related to or associated with each of the regions 2, 4 and 6, respectively.</p>

<p>10 Also in the embodiment in Figure 3, the wellbore information collection system 200 includes a first drilling performance logging node 204. In the embodiment in Figure 3, the first drilling performance logging node 204 is generally configured to retrieve and/or receive data from one or more From sensor nodes 202, specifically sensor nodes 202a, 202b and 202c. In the embodiment in Figure 3, the first drilling performance logging node 204 includes a sphere, for example, such that a node can be connected to</p>

<p>15th Recording the performance of the first drilling 204 through the casing chain 190 through its axial flow hole 191. In alternative embodiments, a DRK node functionally identical to a first DRK node 204 may include a stock, wiper, threaded or wired member, or combinations thereof.</p>

Also in the embodiment in Figure 3, the wellbore information collection system 200 includes a second drilling performance logging node 20 206. In the embodiment in Figure 3, the second drilling performance logging node 206 is generally configured to send and/or receive data from a logging node First digging performance 204. In the embodiment in Figure 3, the second drilling performance logging node 206 is included within the casing chain 190 at the uphole location relative to sensor nodes 202 (for example, well upstream of the wellbore “bottom” 114, alternatively, to a large extent Near the surface 104). Alternatively, a second drilling performance logging node may be located on the surface (for example, not located within

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wellbore). In one embodiment, a second drilling performance logging node 206 may be in communication by pointing to one or more surface components (for example, a computer or other data processor, a data storage medium, a long-range data transmission medium). , and so on), for example, via a wired connection or other suitable link. In an alternative embodiment, an additional DPR node 5 (such as the second DRR node 206) is not needed as part of the wellbore information collection system.

In one embodiment, a wellbore service system such as the Wellbore Information Collection System 200 disclosed for Fig. 3 may be used to collect and/or record information measured and/or obtained within the wellbore. For example, the information-gathering method mentioned 10 could generally include the steps of placing one or more sensor nodes inside a wellbore, connecting

A drilling performance log node across at least a portion of the wellbore to receive or retrieve data from one or more sensor nodes, and acquire data from a drilling performance log node.

Referring again to Figure 3, in one embodiment, one or more sensing nodes, such as 202 sensing nodes, may be placed inside a wellbore, such as a wellbore

<p>15th 114 wellbore. For example, in the embodiment in Figure 3, where . nodes are included</p>

Sensor 202 in the 190 casing string, the sensor nodes 202 can be extended into the wellbore 114 (eg, positioned at a preferred location within the wellbore 114) with the 190 casing string. In other embodiments, one or more nodes can be configured Sensor to deploy after installation of a casing string or other tubing.For example, in one embodiment, a sensor node or part of it may be deployed in one or more of the casing string side pocket mandrels following completion.

In one embodiment, sensor nodes 202 can start collecting data as soon as they are placed in a yy pit

Well 114, for example, can place sensor nodes 202 inside the borehole in an active state.

In an alternative embodiment, the sensor nodes inside the wellbore could be placed in an inactive state, eg 25 where the sensor nodes do not perform any data collection function until they are activated. In this embodiment,

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Sensor nodes can be activated by triggering another node (for example, a control node), as will be disclosed here. Similarly, in one embodiment, after the sensor nodes are placed inside the wellbore, a control node can be used to move the sensor nodes to a low-power position (at For example, to “sleep”), to move the sensor nodes to an active position (for example, to “awake”), or the like.

<p>5 In one embodiment, when at least part of the data obtained by sensor nodes 202 is preferred to be collected, the first drilling performance logging node 204 may be inserted into wellbore 114 (for example, in the casing chain 190) and connected down the well via the wellbore 114. For example, in one embodiment, a first drilling performance logging node 204 may be connected down through a wellbore 114, for example, by moving fluid in a wellbore 114 (at</p>

<p>10 e.g., forward fluid circulation). When the first drilling performance logging node is connected through the wellbore 114, the first drilling performance logging node 204 is connected by signaling to one or more of the 202 sensor nodes, for example, one or more of the 202c sensor nodes. In one embodiment, when the first DPR node 204 is connected by signaling to each of the 202 sensor nodes, then the DPR node can start</p>

<p>15th The first 204 communicates (for example, via an NFC signal) with each of the 202 nodes (for example, the 204th first drilling performance log node acts as an active initiator). Once communication is achieved (for example, via an NFC signal) with a sensor node For example, in one embodiment, it could receive and/or retrieve and store at least part of the data latent in a sensor node 202, 202c, 202b, or 202a. For example, in one embodiment, it could receive</p>

<p>20 First Drilling Performance Log Node 204 Data including environmental conditions (for example, temperature, pressure, flow rate, magnetic field, and so on), well tool performance conditions (for example, battery life, depth under surface, operating condition, trend, and so on), or any other suitable data set as those of ordinary skill in the art will be aware of once they have reviewed this disclosure.</p>

In one embodiment, the downstream connection of the first drilling performance logging node 204 can continue at

<p>25 least until the first drilling performance logging node 204 has been dispatched across a sufficient portion of the borehole 114 (at</p>

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For example, casing string 190) to connect to each of the sensor nodes from which the data was collected.

In one embodiment, after the first drilling performance log node 204 has collected data from each preferred sensor node 202, the first drilling performance log node 204 can be removed from the wellbore

5 114. For example, in one embodiment, the first drilling performance logging node 204 . can be connected

up through wellbore 114, for example, by moving the fluid up through wellbore 114 (for example, by back-circulating the fluid). Alternatively, the FDR 204 could be allowed to be carried up through the wellbore 114 with a production A formation fluid through the borehole 114 (for example, a product fluid).

10 In one embodiment, when the first dsr node 204 passes through each of the 202 sensor nodes again, the first dsreg node 204 can achieve communication again (for example, via an NFC signal) with one or more sensor nodes 202, for example, for the purpose of validating and/or checking for errors of data received from the sensor nodes 202, receiving or retrieving additional data, sending one or more commands to the sensor nodes

15th 202, or combinations thereof.

Alternatively, in one embodiment, while connected down through a sufficient portion of the wellbore 114 ^y

(e.g. Casing Chain 190) To connect to each sensor node from which the data is collected, the first drilling performance log node 204 can go to 'energized' or active. In addition, while connected upstream via borehole 114, a FDR 20 node 204 can communicate (for example, via an NFC signal) with one or more sensor nodes 202, for example, for the purpose of validation and/or error checking of data received from the 202 sensor nodes, receiving or retrieving data, sending one or more commands to the 202 sensor nodes (for example, a “sleep” command), or combinations thereof. Alternatively, while connected down through a sufficient portion of the wellbore 114 (eg, 25 series casing 190) to connect to each sensor node from which the data is collected, it can

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That the first drilling performance logging node 204 achieves communication (for example, via an NFC signal) with one or more sensor nodes 202, for example, for the purpose of receiving or retrieving data. Additionally, while it is connected upstream through wellbore 114, The first drilling performance logging node 204 can go into “sleep” or static mode.

<p>5 For example, in the embodiment in Figure 3, when the first DPR node 204 moves up through well borehole 114, the first DPR node 204 can be in communication by pointing to the second DPR node 206. In one embodiment, When the First DPR Node 204 is in communication with the Second DPR Node 206, one of the First or Second DPR Nodes 204 and 206 can initiate the connection (for example</p>

<p>10 For example, via an NFC signal) with the other. Once the connection is established, the first DPR node 204 can carry at least a portion of the data stored on the first DPR node 204 (for example, data obtained from sensor nodes 202a, 202b, and/or 202c) to the second DPK node 206. Additionally, in an embodiment, there may be a set of DPK nodes that are configured to perform the DPRK functions</p>

<p>15th The second, for example, is placed along wellbore 114 along a certain length, for example, to allow for a larger amount of data to be exchanged when the first drilling performance logging node 204 travels up through wellbore 114.</p>

In an alternate embodiment, for example, in an embodiment in which there is no additional DPR node (such as the second DPR node 206), the first DPR node 204 20 can be connected up through wellbore 114 and removed from the wellbore 114 The data stored on . can be downloaded

The first drilling performance recording node 204 is located on another medium (for example, a computer or other data processor, a data storage device, a long-range data transmission medium, and so on). Alternatively, the data can be stored on a removable medium ( For example, flash drive, SD card).

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In one embodiment, as will be realized by those of ordinary skill in the art upon review of this disclosure, data obtained through the operation of a system and/or method for collecting wellbore information, as disclosed herein, may be used by an unobserved wellbore operator. Many parts of the wellbore and/or the formation, to improve production from the wellbore and/or the formation, 5 to monitor and/or check the condition of various downhole equipment, or combinations thereof.

Referring to Figure 4, another embodiment of a wellbore service system with at least two nodes connected via an NFC signal is shown. In the embodiment in Figure 4, the wellbore servicing system includes a first embodiment of the 210 borehole stimulation system, eg, a first system generally configured to stimulate one or more subterranean formation zones, eg, fracturing, perforating, hydrojetting, 10 acidification, or similar system.

In the embodiment in Figure 4, the first wellbore stimulation system 210 includes one or more 212 tool nodes (specifically, 212A, 212B, and 212C) placed within the wellbore 114. The embodiment in Figure 4 shows an embodiment that is It has three 212 tool nodes, in another embodiment any suitable number of tool nodes can be used.

subterranean, for example, by selective delivery of a wellbore service fluid in a formation. For example, each tool node 212 can include an AFA as disclosed here, such that each tool node can be made to allow, disallow, or alter the path of fluid communication between a wellbore (for example, between a downstream outflow Axial 191 for 20) (190) series casing and one or more subterranean formation regions, such as Formation 2, 4 and 6. Nodes can be configured

Tools 212 To deliver the wellbore service fluid at an appropriate rate and/or pressure. For example, the rate of fluid communication through one or more instrument nodes 212 may include a nozzle or other means of changing the rate of flow.

In the embodiment in Figure 4, each tool node 212 is included in (for example, 25, part of) the chain of casing pipe 190 and is placed in the wellbore 114. Specifically

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Specifically, in the embodiment in Figure 4, each of the tool nodes 212 is positioned within the wellbore such that each of the 202 sensor nodes is generally attached to a subterranean formation region (specifically, one of the formation regions 2, 4 and 6). In this embodiment , each instrument node 212a, 212b, and 212c can selectively deliver fluid to each of the zones 2, 4

5 and 6, respectively. In an alternative embodiment, two or more tool knots similar to tool nodes 212 can be joined to two or more

From the zones, alternatively, two or more tool nodes can be attached to a single tool node. In another alternative embodiment, tool nodes may be embedded within any tubular member suitable for a well bore, for example, a work string, a coiled tubing string, a connected tubing string, a drill string, the like, or

10 combinations of them.

Also in the embodiment in Figure 4, the wellbore stimulation system 210 includes a first control node 214. In the embodiment in Figure 4, the first control node 214 is generally configured to deliver one or more signals to one or more tool nodes 212 Effective in inducing one or more nodes to elicit a response. In the embodiment in Figure 4, the first control node 15 214 includes a sphere, for example, such that the first control node 214 can be connected through a chain of casing pipes 190 through its axial flow hole 191. In alternative embodiments, a control node functionally identical to a first control node 214 may include an arrow, a wiper, a piped or wired member, or combinations thereof.

In one embodiment, a wellbore servicing system such as the first wellbore stimulation system 210 20 disclosed for Figure 4 may be used to perform a wellbore servicing, namely, a borehole stimulation operation

Well, such as fracturing, perforating, hydrojetting, acidizing, or combinations thereof. For example, a wellbore stimulation process may generally include the steps of placing one or more tool nodes into the wellbore, connecting a control node across the wellbore to configure one or more tool nodes for delivery of 25 wellbore stimulation fluids, delivering a borehole stimulation fluid Well through one or more adaptive devices

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To deliver a wellbore stimulation fluid, optionally, connect a control node (for example, the same control node or another node) across the wellbore to retrofit one or more tool nodes configured to deliver a wellbore stimulation fluid, and optionally, repeat the single conditioning process 5 or more tool nodes, connect a wellbore service fluid and, optionally, retrofit one or more tool nodes for one or more additional tool nodes.

Referring back to Figure 4, in an embodiment, one or more tool nodes, such as tool nodes 212, may be placed inside a wellbore, such as a wellbore 114. For example, in the embodiment in Figure 4, where tool nodes 212 are included In the casing string 190, the tool nodes 212 in the wellbore 114 (eg, positioned at a preferred 10 position within the wellbore 114) can be extended with the casing string 190.

In one embodiment, the tool nodes 212a, 212b, and 212c may be initially placed inside the wellbore 114 in a first configuration in which the tool nodes 212 do not allow a fluid connection path from their axial flow bore (and from the 191 axial flowbore of the 190 series casing) to the proximal and/or associated aquifer 2, 4 and 6, respectively.

15th In an embodiment, when one or more formation regions are desired, eg, one or more formation regions 2, 4 and/or 6, the control node 214 may be connected down through wellbore 114, for example, by moving the fluid in the wellbore 114 (eg, forward circulation of the fluid). In one embodiment, when the control node 214 is connected through the wellbore 114, the control node 214 is in signal communication with each of the nodes

20 Tools 212c, 212b, and 212a, respectively. In one embodiment, when the control node 214 communicates by signaling to each of the 212 tool nodes, the control node 214 can initiate communication (for example, via an NFC signal) with each of the 212 tool nodes. Alternatively, it can initiate Control Node 214 Communications with one or more tool nodes 212.

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In one embodiment, once communication is achieved (for example via an NFC signal) with a given tool node 212c, 212b or 212a, the control node 214 can obtain the identity of said tool node 212. In one embodiment, depending on the identity of the tool node 212 it communicates If control node 214 has control node 214, then control node 214 can communicate one or more commands (for example, 5 data frame request, data frame response, and so on) to tool node 212. In an alternate embodiment, depending on

On the identity of the tool node 212, the control node 214 may not communicate any command to the tool node.

In an embodiment, one or more commands (for example, a data frame request, a data frame response, and so on) connected to a tool node 212a, 212b, or 212c may be effective in inducing a response by a tool node 212. For example, In one embodiment, it may include

10 One or more commands communicated to the tool node 212 on a specific command associated with a specific response by the tool node 212, for example, a command for the tool to activate, to sleep, to increment a counter, to decrease a counter, to output one or more triggers, or combinations of them. Alternatively, in one embodiment, commands can be unrelated to any specific response, for example, in which case the tool node 212 receiving the command can output a response that is not specifically tied to the command that was given.

15th his reception.

In one embodiment, once the tool node 212 receives a command (for example, a data frame request, a data frame response, and so on) it is effective to have the tool node 212 output a trigger signal (for example, once a predefined NFC signal is received, a predefined amount of NFC, or a pre-defined combination of pre-set NFC signals), the circuit electronic 20 inside the tool node 212 can cause the tool node to output an operating signal (for example, voltage or current), for example, to the operator, causing the Transition of the tool node 212 from the first body (in which the tool node 212 does not allow a fluid communication path from its axial flow hole to the nearby formation region) to a second body (in which the tool node 212 allows a fluid communication path from the axial flow hole from it to the nearby formation area) In one embodiment, causing the widget node to run may also include one or more additional steps, for example

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For example, applying fluid pressure to the axial flow hole of a tool node. For example, once the tool node 212 receives a predefined NFC signal, the tool node 212 can output an actuation signal (for example, voltage or current) to an actuator. In one embodiment, the actuator can be configured to trap a fluid within a fluid chamber and then trap A slip bushing is in a first position (eg, 5 a position where it does not allow a fluid communication path from the axial flow hole from it to the proximal formation region through one or more of the tool node ports 212). In addition, the actuator can be configured so that once an actuation signal is received, at least part of the fluid held in the fluid chamber is no longer held by the actuator, thus causing a sliding bushing to move to a second position (for example, a location where it allows a fluid contact path from the axial flow hole thereof to the proximal formation region 10 through one or more ports of the tool node 212).

In an embodiment, the control node 214 may connect one or more signals (for example, one or more NFC signals, and so on) that are effective in operating one or more tool nodes 212. For example, two or more More than one tool nodes with one control node 214. Also, tool nodes 212 can be run in any convenient preferred arrangement. For example, 15 tool nodes 212 can be run starting from a lower tool node (for example, tool node 212a, in the embodiment in Figure 4), and then a middle tool node (for example, tool node 212b, in the embodiment in Figure 4), then an upper tool node (for example, tool node 212c, in the embodiment in Figure 4). Alternatively, tool node 212 can be run in reverse (for example, tool node 212c, then tool node 212b, then Tool knot 212a). Alternatively, tool 212 can be run in an alternating sequence (for example, tool node 212a, tool node 212c, and tool node 212b).

In one embodiment, when at least one of the tool nodes 212 is configured to deliver a wellbore servicing fluid (for example, a formation stimulus fluid) from its axial flow bore to the nearby formation area, the wellbore servicing fluid (for example, a fracking fluid) may be introduced 25 axial flowbore, perforating fluid, waterjet fluid, and the like, or combinations thereof), in and through the axial flow bore

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for a series of 190 casing tubing across one or more tool nodes, and in one or more subterranean formation zones (eg, one or more formation zones 2, 4 and/or 6). The wellbore service fluid may be delivered at a rate of and/or or appropriate pressure, for example, at a rate and/or pressure sufficient to initiate or extend one or more fluid communication paths to or in the formation

5 Underground, for example, one or more fissures or holes.

In one embodiment, when a preferred amount of fluid is delivered, for example, when cracks or holes are formed as desired, the fluid delivery can be stopped. For example, once the fluid connection through one or more tool nodes 212 configured to allow a fluid communication path from the axial flow hole from there to the subterranean formation is stopped, the path of the fluid communication through one or more 10 tool nodes can be stopped or blocked, for example, So that the tool node 212 will not provide a connection path

Fluid in the subterranean formation.

For example, in an embodiment, obstruction or blocking of the fluid communication path through one or more tool nodes 212 configured to provide a fluid communication path from an axial flow hole from it to the subterranean formation may involve the reconfiguration of one or more tool nodes configured with such

15th Method 212. For example, in an embodiment, a control node (for example, a second control node, identical control node 214) can be connected down through a wellbore 114 to achieve communication (for example, via an NFC signal) with each of the Instrument holding 212. In an embodiment, once communication is achieved (for example, via an NFC signal) with each of the 212 tool node, the second control node can specify the tool node 212 to which the second control node 20 is connected, for example, to connect one or more of the commands (for example, a data frame request, a data frame response, and so on) based on the identity of the node of the 212 tool you are connecting to. For example, the second control node can only instruct 212 tool nodes that are already configured to allow the path of fluid communication from the axial flow hole from it to the subterranean formation. In an embodiment, the second control node may communicate one or more commands to an instrument node 25 effective to induce a response by the instrument node 212. For example, in an embodiment, it could

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It is efficient to have the tool node 212 output a playback signal (for example, immediately upon receiving a pre-set NFC signal, a pre-set amount of NFC signals, or a pre-selected combination of pre-set NFC signals). For example, once the tool node 212 receives a command, the tool node's electronic circuit can output a trigger signal (for example, a second trigger signal) to trigger 5 (for example, a second trigger) causing the tool node 212 to move from the second body (where the tool node 212 allows a fluid communication path from the axial flow hole from it to the proximal formation region) to a third body or back to the first body (where the tool node 212 does not allow a fluid communication path from the axial flow hole from it to the proximal formation region). For example, once the tool node 212 receives a preset NFC signal, the tool node 212 can output an on-off signal (for example, voltage or current) to a trigger. In one embodiment, the actuator can be configured so that once an actuation signal is received, an additional portion of the fluid held in the fluid chamber is no longer held by the actuator, and thus causes a sliding bushing to move to a third position (for example, a position where it is no longer allowed to with a fluid communication path from its axial flow hole to the proximal formation region through one or more ports of the 212 tool nodes).

15

Alternatively, in one embodiment the obstruction or obstruction of the path of fluid communication through one or more instrument nodes thus configured 212 may involve the insertion of a sealing member, such as a ball or arrow, to engage a seat and thus obstruction of fluid communication through at least a portion of the Axial flow hole 191, Deploying a plug (eg, mechanical plug), Deploying grout, Deploying a sand plug in formation and/or Axial flow perforation 191, or combinations

20 Of which.

In an embodiment, the process of initializing one or more tool nodes for a wellbore service fluid delivery, delivering a wellbore service fluid, and optionally, reconfiguring one or more tool nodes for one or more additional tool nodes for one or more of additional instrument nodes (for example, for one or more additional aquifer regions).

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In addition, in an embodiment, following the actuation of stimulation, a control node may be wired back down through the wellbore and may deliver one or more signals to one or more instrument nodes active in opening said instrument nodes again (on 5 to allow a fluid communication path to the aquifer), for example, so that a fluid can be produced from the aquifer through said flow path.

Referring to Figure 5, another embodiment of a wellbore servicing system is illustrated with at least two nodes connected via an NFC signal. In embodiments in Figure 5, a wellbore service system 220 includes a second embodiment of a wellbore stimulation system 220, eg, a second system generally configured to stimulate one or more subterranean formation zones, eg, fracturing, perforating, hydrojetting , 10 acidification, or similar system.

In embodiments in Figure 5, a second wellbore stimulation system 220 comprises one or more tool nodes 212 (in particular, tool nodes 212a, 212b, and 212c) contained within (eg part of) a chain of casing 190 and placed within the wellbore. 114 close to one or more formation regions, such as formations 2, 4 and 6, for example, 15 in the first wellbore stimulation system 210 disclosed for Figure 4. The wellbore stimulation system 220 also includes a first control node 214 as shown in Figure 5, and as in the first wellbore stimulation system 210 disclosed for Figure 4.

In the embodiments in Figure 5, the second wellbore stimulation system 220 also includes a second control node 226. In the embodiments in Figure 5, the second control node is generally configured

20 To connect one or more NFC signals to one or more other nodes and, in particular, one or more other control nodes, such as the first control node 214 in Figure 5, effective in making one or more other control nodes (for example In embodiments in Figure 5, the second control node 226 is included within the casing chain 190 at the uphole location in relation to the tool nodes 212 (eg.

25 Example, the top of the well from the "bottom" of borehole 114, alternatively, much near the surface

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104). In one embodiment, the second control node 226 may be in communication by signaling one or more components on the surface (for example, a computer or other data processor, a data storage medium, a long-range data transmission medium, and so on). , for example, via a wired link or other suitable link.In one embodiment, the control node may include

5 The second 226 and/or is included inside the packing collar.

In one embodiment, a wellbore servicing system such as the second wellbore stimulation system 220 disclosed for Figure 5 may be used to perform a wellbore servicing operation, namely, a wellbore stimulation operation, such as fracturing, perforating, waterjet operation, operation acidification, or combinations thereof. In one embodiment, the process of stimulating a well bore may generally comprise one or more laying steps

<p>10 More than one tool nodes within a wellbore, a control node connection across the wellbore to configure one or more tool nodes for a wellbore stimulation fluid delivery, a wellbore stimulation fluid connection through one or more devices configured for a wellbore stimulation fluid delivery, Optionally, a node connection Control (for example, the same control node or another control node) across the wellbore to retrofit one or more tool nodes configured to deliver a wellbore stimulation fluid and, optionally, repeat the process</p>

<p>15th Initialize one or more tool nodes, connect a wellbore service fluid and, optionally, retrofit one or more tool nodes for one or more additional tool nodes, as disclosed with reference to the first wellbore stimulation system 210 in Figure 4 In an embodiment using the wellbore servicing method, a wellbore stimulation system such as the second wellbore stimulation system 220 of Figure 5 may include the step of connecting a control node (for example,</p>

<p>20 such as the first control node 214) across the wellbore to configure one or more tool nodes to connect a fluid on the control node configuration (for example, the first control node 214) to communicate with one or more tool nodes.</p>

For example, in the embodiment in Figure 5, the initialization of the first control node 214 to communicate with one or more tool nodes 212 could include the delivery of a command (for example, a request

<p>25 a data frame, a data frame response, and so on) or other signal (for example, an NFC signal) from</p>

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The second control node 226 to the first control node 214. For example, in an embodiment, when the first control node is connected down through the axial flow hole 191 of the casing chain 190 (for example, on the way to one or more tool nodes 212), The second control node 226 can communicate (for example, via an NFC signal) with the first control node 5 214 (for example, the second control node 226 can act as an active initiator).

embodiments, once communication is achieved (for example, via an NFC signal) with the first control node 214, the second control node 226 can obtain the identity of the first control node 214, and based on the identity of the first control node 214, the second control node 226 can connect One or more commands to the first control node 214. Additionally or alternatively, the 10 commands that are communicated from the second control node 226 to the first control node 214 may depend on any other appropriate and/or relevant factors, for example, the number of other accumulator nodes that have already been connected at or Outside of borehole 114, several borehole variants, or similar.

In an embodiment, one or more commands (for example, a data frame request, a data frame response, and so on) communicated from the second control node 226 to the first control node 15 214 can be effective in causing the first control node 214 to initiate transmissions For example, one or more of the commands can be effective in causing the first control node 214 to enter 'energized' mode or to 'wake up' from a low-power mode, for example, to conserve battery capacity.

Additionally or alternatively, one or more commands (for example, request 20 data frames, response data frame, and so on) can be effective in programming instructions into the first control node

214. For example, these instructions could include which of the 212 gadget nodes will run, which gadget nodes 212 will communicate with, which gadget nodes 212 will not communicate with, which signals (eg NFC signals) will be sent to the 212 gadget nodes, For example, by programming the control node (for example, the first control node 214) into

25 On its way to the tool nodes 212, the operator can guarantee that the control node will not be deployed

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Wrong (eg, in the wrong order, eg, where multiple control nodes are used).

Additionally or alternatively, one or more commands (for example, a data frame request, a data frame response, and so on) can be effective in converting the 1st control node 214 from a target

5 passive (for example, running in a passive communication) to an active initiator. For example, these commands can be effective in transitioning the first control node 214 to operation over the communication in active mode (for example, an active target).

Alternatively, one or more commands (for example, a data frame request, a data frame response, and so on) can be effective in suspending (or damping) transmissions from the first control node 10 214. For example, this could be The commands are effective in making the first control node 214

Delivers any signal (for example, an NFC signal) to any of the 212 tool nodes. For example, when the first control node 214 is inadvertently released on the 104th surface (for example, when the control node is released in the wrong order, where the control node is released A faulty control node, etc.), can cause the first control node 214 to not communicate with the tool nodes, 15 and not to command the tool nodes, to become inactive, to go into sleep mode, or something like that.

Additionally or alternatively, in an embodiment, the communication between the first control node 214 and the second control node 226 can be used to verify that the first control node 214 is released and/or connected over the casing chain. In one embodiment, when this validation is the only job that will be performed 20 the second control node 226 can be configured as a drilling performance logging node (for example,

configured to receive a command from first control node 214 while first control node 214 is connected through the wellbore).

Referring to Figure 6, another embodiment of a wellbore service system is illustrated with at least two nodes connected via an NFC signal. In the embodiments in Figure 6, the wellbore service system includes

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230 on a third embodiment of a 230 borehole stimulation system, eg, a second system generally configured to stimulate one or more subterranean formation zones, eg, a perforating perforating system

.system

In the embodiment in Figure 6, the third wellbore stimulation system 230 includes a tool node 232

5 Embedded within a 235 work string (for example, a coiled tubing string, a linked tubing string, or combinations thereof). Alternatively, the tool node 232 may be similarly embedded within (e.g., attached to or suspended from) a wire etc. In the embodiment in Figure 6, the tool node 232 can be configured as a perforating tool, for example, a perforating gun. In this embodiment, the tool node 232 (for example, a perforating gun) can be configured

10 to perforate a portion of a well and/or a string of tubes (eg, a casing string) placed within it. For example, in one embodiment, the perforating gun may comprise a group of explosively formed charges which, when detonated, will detonate outward in the tubing string and /or configuration with the intention of forming a group of holes.

In the embodiment in Figure 6, the third wellbore stimulation system 230 also includes a control node

15th First 234. In the embodiment in Figure 6, the first control node 234 is included in the casing chain 190 at a preferred location within the wellbore 114. For example, in many embodiments, the first control node 234 may be located at a slightly higher depth or Somewhat close to a location at which it is preferable to insert a set of holes. Alternatively, the first control node 234 may be located at any appropriate depth within borehole 114, for example, a depth of about

20 about 30 metres, alternately, about 76 metres, alternately, about 152 metres, alternately, about 228 metres, alternately, about 305 metres, alternately, about 457 metres, alternately, about 6095 meter, alternatively, about 671 metres, alternatively, about 914 metres, alternatively, about 1219 metres, alternatively, about 1523 metres. In an additional embodiment, a well bore servicing system may comprise one or more additional control nodes, such as

25 The first control node 234 is included in the casing chain at multiple locations.

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In one embodiment, a wellbore servicing system such as the third wellbore stimulation system 230 disclosed for Fig. 6 may be used to perform a wellbore servicing operation, and specifically, a wellbore stimulation operation, such as a perforation operation. In one embodiment, the process of stimulating a well bore may generally include the steps of placing a first control node such as a first control node 234 into the wellbore, inserting a tool 5 node such as a tool node 232 (for example, a punch gun) into the wellbore so that it connects to a tool node 5 such as a tool node 232 The tool with the first control node 234 and as a result of communication with the first control node becomes effective for a specific function, running the tool node 232.

For example, in embodiment in Figure 6, one or more control nodes, such as control nodes 234, may be placed inside a wellbore, such as wellbore 114. For example, in embodiment 10 in Figure 6, a control node is included 234 in the 190 series casing tubes, can

Extend the control node 234 in the wellbore 114 (eg, positioned at a preferred location within the wellbore 114) with the casing chain 190.

In one embodiment, when it is preferred to service, and specifically perforate, a subterranean formation zone, eg, one or more formation zones 2, 4 and/or 6, the tool knot 232 may be extended into the wellbore 114 15 (eg, if it is removed . In the borehole), for example, a suspension from a string of tubes (on the

For example, coiled tubing string (, wire, or the like. In one embodiment, the tool knot 232 may, in principle, be stretched into the wellbore in a configuration in which the tool knot 232 is ineffective in performing one or more functions. For example, in the embodiment in Figure 6, where the tool node 232 includes a punch gun, the tool node 232 can be configured so that the punch gun cannot be ignited, for example, so that the explosive charges in the punch gun cannot be detonated (for example, the punch gun is Extending the punching pistol in a “safe” or “unarmed” position).

In one embodiment, when the tool node 232 is extended into the wellbore 114, the tool node 232 is in signal communication with the control node 234. In one embodiment, when the tool node 232 is connected by signal to the control node 234, the control node 234 can initiate communication )for example

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For example, via an NFC signal) with the tool node 232. Alternatively, the tool node 232 can initiate communications with the control node 234.

In one embodiment, once communication is achieved (for example via an NFC signal) with the tool node 232, the control node 234 can obtain the identity of the tool node 232. In one embodiment, based on the identity of the tool node 232 to which the control node 234 is connected, Control node 234 can communicate one or more commands (for example, a data frame request, a data frame response, and so on) to tool node 232. In an alternative embodiment, depending on the identity of tool node 212, control node 214 may not connect Any command to the tool node.

In an embodiment, one or more commands (for example, 10 data frame request, data frame response, and so on) connected to tool node 232 can be effective in prompting a response by tool node 232. For example, in an embodiment, it can be One or more commands delivered to the tool node 232 includes a specific command associated with a specific response by the tool node 232, for example, a command for the tool to wake up, to sleep, to increment a counter, to decrease a counter, to output one or more triggers , or combinations thereof. Alternatively, in one embodiment, 15 commands could not be associated with any specific response, for example, in which case they could output

The tool node 232 that receives the command is a response that is not specifically related to the command received.

In one embodiment, a command (for example, a data frame request, a data frame response, and so on) delivered from the control node 234 can be effective in moving the 232 tool node from a first position, for example, where the 232 tool node is not effective in performing one or more of the said functions, to a second mode, for example, where the tool node is effective in performing

One or more of these functions. For example, in the embodiment in Figure 6, where the tool node includes a perforating gun and where the perforating gun is inserted into the wellbore 114 “unarmed” (ie, so that the explosive charges cannot be detonated), the command to be Connected from the control node 234 is effective in “arming” the tool node 232 (for example, a hexagon).

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perforation), for example, to move the tool node 232 into an active or ready position (for example, so that explosive charges can be detonated selectively).

In one embodiment, after the control node 234 is connected to the tool node 232, for example, making the tool node 232 functional, the tool node can be located inside the wellbore 114 near/next to

<p>5 The part of the formation to be serviced (for example, punched). When the tool node 232 (for example, the punch gun) reaches the preferred location within the wellbore 114, the tool node 232 can be selectively actuated. For example, in the embodiment given in Figure 6 Where a tool knot 232 comprises a perforating gun, the perforating gun may be ignited to create holes in the casing string 114 and/or part of the subterranean formation.</p>

<p>10 Control 234 is in-situ so that the tool node 232 will not operate until it reaches a specified depth/location</p>

(eg "safe") inside borehole 114.

In an embodiment where a system such as the third wellbore service system 260 includes two or more control nodes such as control node 234, each control node can be configured to communicate only with certain tool nodes, for example, so that it will not be “armed” Node a tool until you reach

<p>15th One or more specified control nodes. In addition, a tool node such as a tool node 232 can be configured so that a tool node will not be armed until a predetermined number and/or combination of control nodes are connected.</p>

While the embodiment in Figure 6 is disclosed, in general, with reference to a perforating gun, those skilled in the art will recognize that, additionally or alternatively, wellbore tools can be activated (yet

<p>20 (e.g., shims, sampling devices, sensors, etc.) similarly once they are placed inside a wellbore and/or upon reaching a specific location within a wellbore, for example, by interacting with a control node placed in it.</p>

Referring to Figures 7 and 8, embodiments of a wellbore servicing system are illustrated with at least two nodes connected via NFC. In the embodiment in Figures 7 and 8, each service system includes

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The wellbore has a first flow control system 240 in the embodiment of Figure 7 and a second flow control system 250 in the embodiment in Figure 8. For example, both the first flow control system 240 and the second flow control system 250 are generally configured To collect and/or record data from within the borehole (for example, production data) and to control production from

<p>5 the wellbore (and/or one or more of its regions) based on the wellbore data. For example, this data may include wellbore data (for example, temperature data, pressure data, flow-rate data rate, the presence or absence of a specified fluid or component, or combinations thereof).</p>

For example, this data can include flow rates (for example, a relative flow rate of 10 passed at two or more locations within the wellbore) and/or fluid compositions (for example,

e.g. relative fluid composition at two or more locations within the borehole). In this embodiment, the rate of change of the fluid flow rate and/or fluid composition may be used to model a formation (for example, a product formation) or part of it, for example, to control produce fluids from it based on that model, the data obtained, and/or changes in the data obtained over time.

In the embodiments in Figures 7 and 8, both the first flow control system 240 and the second flow control system 250 each have two or more 242 sensor nodes (namely, the third 242a, 242b, and 242c sensor nodes) placed within the wellbore

<p>114. While the embodiments in Figures 7 and 8 show embodiments in which there are three tool nodes</p>

<p>20 242 sensor, in another embodiment any suitable number of sensor nodes can be used 242. In embodiments in Figures 7 and 8, each 242 sensor nodes can be generically configured and/or functional to obtain/measure one or more data points within the wellbore (for example, via the converter process) and optionally, to store that data. In an embodiment, one or more 242 sensor nodes can be additionally configured and/or</p>

<p>25 Be functional as a tool node, as disclosed here. For example, each node can have</p>

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of the 242 sensor nodes generally on the AFA as disclosed herein, for example, are generally configured to control (for example, selectively) the movement (for example, conduction) of the fluid through them, for example, to control the Movement (eg, flow) of the fluid from the formation to the sensor node 242. For example, in one embodiment, the sensor flow control systems 240 and 250 shown in Figures 7 and 8 can be configured to maximize production from the subterranean formation or part of it. Limit. Additionally or alternatively, the flow control systems 240 and 250 can be configured to stop the fluid movement, for example, immediately upon detection of one or more unfavorable conditions, such as the presence of a harmful substance (eg hydrogen sulfide, arsenic arsenic, methane, and so on) or in the case of hypertensive.

<p>10 In the embodiment in Figures 7 and 8, each of the 242 sensor nodes is included in (for example, part of) the 245 production piping chain placed in the casing 190 chain. Specifically, in the embodiment in Figures 7 and 8, it is The production piping chain 245 is placed and/or secured within the axial flow hole 191 of the casing chain 190 so that each of the 242 sensor nodes is generally attached to a subterranean formation region (namely, an area of</p>

<p>15th Underground Configuration 2, 4 and 6). In this embodiment, each node of the 242a, 242b, and 242c sensor nodes can be selectively configured to allow fluid to flow in the 245 production piping. In one embodiment, the 245 production piping can be installed via one or More than 247 output pads. Additionally, 247 output pads can be turned on or set via an NFC signal, as ^y</p>

It will be revealed here.

<p>20 Also in the embodiments in Figures 7 and 8, each of the first flow control system 240 and the second flow control system 250 have a first register control node 244. In the embodiments of Figures 7 and 8, the control node is generally configured to restore and/or or receiving data from one or more 242 sensor nodes, specifically 242a, 242b and 242c sensor nodes. Also in the embodiments in Figures 7 and 8, the control node is initialized</p>

<p>25 . In the first drilling performance recording 244 is generally used to deliver one or more NFC signals to the</p>

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One or more 242 sensor nodes effective in inducing one or more 242 sensor nodes etc. to produce a response. In the embodiments in Figures 7 and 8, the first drilling performance logging control node 244 includes a ball, for example, such that the first DR log control node 244 may be connected through the production pipeline 245. Alternatively, 5 could include First digging performance recording control node 244 on any suitable type or configuration.

In the embodiment in Figure 7, the first flow control system 240 also includes a second register control node 246. In the embodiment in Figure 7, the second drilling performance logger control node 246 is generally configured to retrieve and/or receive data from either one or More than 10 other nodes, namely the first drilling performance logging control node 244. The logging control node is also configured

Second Drill 246 Generally for the delivery of one or more NFC signals to one or more other nodes, and in particular, one or more other registered control nodes, such as the First Drilling Performance Log Control Node 244, effective to make one or more nodes The other control (for example, the 1st DPR control node 244) outputs a response. In embodiment 15 in Figure 7, the 2nd DPR control node 246 is included within a chain

production piping 245 at the uphole location relative to sensor nodes 242 (eg, upwell from the “bottom” of wellbore 114, alternatively, substantially near the surface 104), in one embodiment the control node could be record the performance of the 246 second drilling in communication by pointing to one or more components on the surface (eg, 20 computers or other data processor, efficient input method, long range data transmission medium, and so on),

For example, via a wired connection or other suitable connection.

In one embodiment, a wellbore servicing system, such as the inflow 240 control system and/or a second flow control system 250, may be used to perform a wellbore servicing operation, for example, producing formation fluids from the wellbore associated aquifer. For example, 25 In this embodiment, the first flow control system 240 and/or the second flow control system can be used

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in flow 250 to improve (for example, increase) formation fluid production from the wellbore by using data from two or more 242 sensor nodes to control the operation of one or more 242 sensor nodes. In this embodiment, the operation of one or more 242 sensor nodes could be This wellbore servicing process generally includes placing a production pipeline into the wellbore 114 5 and connecting the FPR control node 244 through the operating pipeline 245.

Referring again to Figures 7 and 8, in one embodiment, one or more sensor nodes 242 may be located inside a wellbore 114, for example, as part of a production pipeline such as a production pipeline 245. For example, in the embodiment given in Figures 7 and 8, where the 242 sensor nodes are included in the 245 production pipeline, the 10 242 tool nodes can be extended into wellbore 114 (for example, positioned at a preferred location within the wellbore 114)

With the production piping 245 series and clamped in place within the casing casing 190. In an embodiment where the production piping series 245 is attached to one or more of the 247 gaskets, the production 247 gaskets can be triggered by an NFC signal. For example, when the first drilling performance logging control node 244 is connected down through well borehole 114, the production shims 15 247 can be in signal communication with an NFC signal and receive it from the logging control node

Initial pit performance 244. Thus, the production shove 247 can operate or be tuned in response to a received NFC signal.

In one embodiment, sensor nodes 242 can start collecting data as soon as they are placed in a wellbore 114, for example, sensor nodes 242 can be placed inside wellbore 20 in an active state. In an alternative embodiment, the sensor nodes may be located inside the wellbore in the case of yi

Inactive, for example, where the sensor nodes do not perform any data collection function until they are activated. For example, in one embodiment, after sensor nodes are placed inside a wellbore 114, a control node may be used to move the sensor nodes to a low-power position (for example, to “sleep”), to move the sensor nodes to an active position (for example , to 25 "Activation"), or similar.

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In the embodiment in Figure 7, with the production pipeline 245 positioned inside the wellbore 114, the first drilling performance logging control node 244 can be connected down through the production pipeline 245, for example, by moving fluid in the wellbore 114 (for example When the first DRCR control node 244 is connected through the operating chain 5 tubes 245, the first DRVR control node 244 is in communication by signaling to the second DRVR control node 246. In one embodiment, when the first DPR control node 244 is in communication by signaling to the second DPR control node 246, then the control node 244 and the second DPR control node 246 can make connections (for example, via a signal NFC(.

10 In one embodiment, once communication is achieved (for example, via an NFC signal) between the first DPR control node 244 and the second DPR control node 246, the second control node 246 may communicate one or more commands (for example (e.g., data frame request, data frame response, and so on) to the first drilling performance log control node 244. In this embodiment, one or more of the commands delivered from the control node 15 of the second drilling performance log 246 can be effective in programming instructions into the control node of the first drilling performance logging 244. For example, these instructions could include the programming of the instructions For one or more sensor nodes 242, for example, instructions relating to the improvement of one or more sensor nodes.

Also in the embodiment in Figure 7, when the first drilling performance logging control node 20 244 continues to communicate down through the 245 production pipeline, the performance logging control node is

First Drill 244 is in communication by signaling to one or more of the 242 sensor nodes (for example, 242a, 242b, and 242c sensor nodes). In one embodiment, when the control node of the First Drill 244 performance recording is in signal communication With 242 sensor nodes, the first drilling performance log control node 244 can make connections with 25 and obtain the identity of the 242 sensor node it is connected to, depending on the identity of the 242 sensor node

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For the 242 sensor, you communicate one or more commands (for example, a data frame request, a data frame response, and so on) to the 242 sensor node. For example, in an embodiment, the commands sent to the 242 sensor node can depend on It is specific to the sensor node included in the connection. In one embodiment, commands 5 to the sensor nodes 242 can be effective in causing the sensor nodes to change the path of fluid communication through them (for example, to open, close, increase the flow rate through, or reduce the flow rate through a fluid path within or outside the 242 sensor node, for example, such as AFA, as disclosed here.)

Also, in an embodiment, once communication is achieved with one or more sensor nodes 10 242 (for example, 242a, 242b, and 242c sensor nodes) a node can receive

Drilling performance log control 244 and/or retrieves and stores at least a portion of the data inherent in a sensor node 242 (for example, data related to fluid flow through said sensor node).

In one embodiment, the downstream connection of the FDR control node can continue at least 15 244 until the FDR control node is transmitted across a sufficient portion of a hole

Well 114 (eg, production pipeline 245) to connect to each of the 242 sensor nodes to which command is communicated and/or from which data is collected.

In one embodiment, after the FDRPR control node 244 collects data from and/or sends data to each preferred sensor node 242, the FDR 20 control node 244 can be removed from the wellbore 114. For example , in one embodiment,

The first logging control 244 can be carried up through the wellbore by moving a product fluid or a reverse circulating fluid.

In one embodiment, when the FDRK control node 244 moves up through the 245 production pipeline, the FDRK control node can be 244 times

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Others are in signal communication with, and achieve communication with, one or more 242 sensor nodes and can send back commands to 242 sensor nodes and/or collect and obtain data from 242 sensor nodes.

In the embodiment in Figure 7, when the control node moves the first drilling performance logging 244

5 up through the production pipeline 245, the DPR control node 244 can be in signal communication with, and achieves a connection to, the second DPR control node 246. In one embodiment, once the connection with the second DPR control node is achieved is achieved 246, the First Drill Control Node 244 can carry at least a portion of the data stored on the First Drill Control Node 244 (for example,

<p>10 Data obtained from the sensor nodes 242) to the second DPR control node 246. In one embodiment, the data loaded from the first DPR control node 246 can be sent to the second DPR control node to a data processor (for example example, on the surface). Also, in one embodiment, the data can be used to model the control states of one or more 242 sensor nodes, to improve the total wellbore production.</p>

<p>15th 114 By adjusting the allowable flow rate by one or more sensor nodes</p>

242 and/or flow restriction imposed by one or more 242 sensor nodes, to improve production from one or more subsurface regions by adjusting one or more 242 sensor nodes, or combinations thereof. For example, these targets can be effective in maintaining constant fluid and/or flow properties across many formation regions, to maximize time

<p>20 To the maximum extent until penetration occurs (eg, depending on the reservoir model), to increase the total extraction of the fluid (eg, oil) from the reservoir, or combinations thereof.</p>

In an embodiment, when it is determined that modifications to one or more of the 242 sensor nodes are preferred, for example to increase production based on data obtained from the 242 sensor nodes by the first drilling performance logging control node 244, the

<p>25 Another node is connected to control the drilling performance logging (such as the first DR log control node</p>

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244) down through the wellbore 114 to communicate one or more commands back (for example, a data frame request, a data frame response, and so on) to one or more 242 sensor nodes and/or to obtain updated data from one or more of 242 sensor nodes. In this embodiment, the first flow control system 240 can be used to control 5 flow through each of the 242 sensor nodes to increase production.

For example, when FDR control node 244 is connected down through well borehole 114, the FDR control node 244 can measure (for example, through one or more transformers) and/or receive (for example Via the second drilling performance logging controller 246, sensor 242, and so on) the optimization data, eg, data 10 used to improve the well tool setup. In this embodiment, the control node can process a performance logging

First Drill 244 and/or can perform one or more calculations on the optimization data, and then specify or produce optimized settings (for example, for a well tool). Thus, the FPR 244 control node can communicate the settings Enhanced (for example, via an NFC signal) to one or more 242 sensor nodes, for example, 15 for the purpose of tuning one or more borehole tools (for example, one or more 242 sensors). Additionally, in one embodiment, the process of obtaining optimization data, producing the optimization settings, and communicating the optimized settings via an NFC signal can be repeated in several iterations, eg, at appropriate intervals (eg, weekly, monthly , annually, and so on.

<p>20 Alternatively, in the embodiment in Figure 8, each of the 242 sensor nodes is controlled as part of a distributed serial control system. For example, in the embodiment in Figure 8, each sensor node 242 is configured to automatically control the flow of fluid through it (for example, the flow of produced fluid) based on the data sensed by the selected sensor node 242 and based on the data that Obtained from one or more nodes</p>

<p>25 Other sensors 242. For example, in this embodiment, immediately after communicating through a hole</p>

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The well (for example, via the production pipeline 245), the First Drilling Performance Log Control Node 244 can be configured to receive and/or retrieve and store at least part of the data inherent in a sensor node 242 (for example, a sensor node 242c (.

When the First Drilling Performance Log Control Node 244 continues to communicate down through the chain 5 of the 245 Production Pipes, the First Drill Control Node 244 will also obtain data from other 242 sensor nodes (for example, 242b and 242a sensor nodes) and share in at least part of the data obtained from a sensor node 242 (for example, sensor node 242c) with other sensor nodes 242 (for example, sensor nodes 242b and 242a). Similarly, when the first drilling performance logging 10 control node 244 returns up through the production pipeline 245, the control node can continue

In recording first-drill performance 244, in obtaining data from many sensor nodes 242 and in sharing that data with other sensor nodes 242.

In one embodiment, once data is received from another sensor node 242, a sensor node 242 can be configured to control (eg, change, use, increase, decrease, open, close, 15 throttle, and so on) at least one path of communication The flow control system 250 can be used to control the flow through each of the 242 sensor nodes to increase production, for example, as part of Distributed control system.

Referring to Figure 9, another embodiment of a wellbore service system is illustrated with at least two 20 nodes connected via an NFC signal. In the embodiment in Figure 9, the wellbore servicing system includes an embodiment of a 260 borehole stimulation and feedback system, eg, a system generally adapted to stimulate one or more subterranean formation zones, eg, a fracturing, perforating, waterjet system , acidification, or a similar system, and also configured to obtain many data relating to one or more process/functions of the tools used as part of the system, the catalytic process, or combinations thereof.

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In the embodiment in Figure 9, a wellbore 260 stimulation and feedback system includes one or more 262 sensor nodes (namely, 262a, 262b, and 262c sensor nodes) placed within the wellbore 114. The embodiment in Figure 9 shows an embodiment There are 3 sensor nodes 262, in another embodiment any suitable number of sensor nodes can be used 5 262. In the embodiment given in Figure 9, each of the 5 sensor nodes can be configured

Sensor 262 is generally used to perform subsurface formation stimulation treatment, for example, via selective delivery of a well bore service fluid in the formation. For example, each 262 sensor node can include an AFA as disclosed here, such that each sensor node can be made to allow, disallow, or alter the course of fluid communication between the wellbore (eg 10, Between the axial flow hole 191 of the series casing (190) and one or more subterranean formation regions, such as formations 2, 4 and 6. The sensor nodes 262 can be configured to deliver the wellbore service fluid at an appropriate rate and/or pressure.

Also in the embodiment in Figure 9, each of the 262 sensor nodes can also be generically configured and/or can be functional to obtain/measure one or more of the 15 data points associated with the wellbore (such as temperature, pressure, rate flow, pressure drop, or the like), data associated with the sensor node itself (such as the position and/or shape of the tool node, position of the tools, log of tool activities, the amount of power remaining in any associated power supply, the state of the tool node and/or one or more components of the tool). The sensor node 262 can also be configured to store data and/or output an NFC signal (for example, one or more data frames) that

20 Refer to all or part of that data.

Also in the embodiment in Figure 9, the wellbore 260 stimulation and feedback system includes a drilling performance log control node 264. In the embodiment in Figure 9, the drilling performance log control node 264 is generally configured to retrieve and/or receive data from One or more 262 sensor nodes, specifically 262a, 262b and 262c sensor nodes. As well

25 In the embodiment in Figure 9, the control node of the first drilling performance logging is configured 264 facet

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Generic To deliver one or more NFC signals to one or more 262 sensor nodes and effective in inducing one or more 262 sensor nodes etc. to output a response. In the embodiment in Figure 9, the DPR control node 264 includes a sphere, for example, so that the DPR control node 264 can communicate through the 5 190 casing chain. Alternatively, the DPR control node can include Drilling performance recording 264 on any type or

suitable body.

In one embodiment, a wellbore servicing system such as the 260 wellbore stimulation and feedback system disclosed for Figure 9 may be used to perform a wellbore servicing operation, for example, a wellbore stimulation operation, such as a fracturing operation, perforating operation, jetting operation Aqueous, process 10 acidification, or combinations thereof. In one embodiment, and as similarly disclosed with reference to the first wellbore stimulation system 210 in Figure 4, a wellbore stimulation may generally comprise the steps of placing one or more sensor nodes within the wellbore, connecting a control node (on For example, the same control node or a different control node) (alternatively, a drilling performance logging control node) across the wellbore to configure one or more sensor nodes to connect

<p>15th wellbore stimulation fluid, delivery of wellbore stimulation fluid through one or more sensors configured to deliver wellbore stimulation fluid, optionally, connection of a control node (alternatively, a drilling performance recording control node) across the wellbore to retrofit one or more of sensor nodes configured to deliver a wellbore stimulation fluid and, optionally, repeat the initialization process of one or more sensor nodes, delivery of a wellbore servicing fluid, and optionally, reconfiguration</p>

<p>20 One or more sensor nodes for one or more additional sensor nodes.</p>

In addition, in the embodiment in Figure 9, the wellbore stimulation process may also include the step of obtaining data from one or more 262 sensor nodes. For example, in one embodiment, obtaining data from one of the or more than

<p>25 . 262 sensor nodes validate 262 sensor node format validation</p>

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10

15

For example, in this embodiment, once you go from a first body to a second body (alternatively, from a second body to a third body, and so on) a 262 sensor node (alternatively, a tool node), etc. can be configured to output an NFC signal indicating that the sensor node 262 has been initialized (for example, that the sensor node 262 has moved from one body to another). For example, in one embodiment, the electronic circuit of the 262 node can be configured to deliver an NFC signal as soon as a trigger signal for one is output or more operators. Alternatively, in an embodiment, the sensor node may include one or more transformers capable of detecting the relative motion of one or more sensor node components (for example, moving a sliding sleeve from a first position to a second position relative to a housing , for example, upon movement, the sliding bushing completes a circuit that aids in the delivery of an NFC signal). Alternatively, in one embodiment, the sensor node can be configured to

so that moving one or more sensor node components in relation to another component of the sensor node (for example, moving a sliding bushing from a first position to a second position in relation to a housing) can cause one or more additional signaling members to become For example, NFC targets are “visible” (alternatively, “invisible”) to the Drill Performance Log Control Node 264, for example, indicating that the 262 sensor node is configured (for example, that the 262 sensor performance node is moved from one organization to another. Additionally, in one embodiment, several NFC targets can similarly be used to determine the degree of operation of an instrument.

In additional or alternative embodiments, getting data from one or more 262 sensor nodes may include receiving and/or retrieving data held by the sensor node.

<p>20 262. In one embodiment, this data may include wellbore related data (at</p>

for example, temperature data, pressure data, flow rate data, or combinations thereof), data associated with one or more tools (for example, tool nodes, as disclosed here) within the wellbore (for example, the condition of tool, enable tool capability, tool format and so on), or combinations thereof. Additionally, in an embodiment, the data may include associated data

<p>25 service process. For example, in one embodiment, the trap sensor node can be used</p>

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Data about flow rate, pressure, effect on formation (for example, fault extension), acoustic data, or the like.

While these systems and methods have been disclosed for a catalytic process, a downhole instrument capable of obtaining (for example, recording) data and then transmitting that data can likewise be used in many different ways.

<p>5 from other borehole service operations.</p>

Referring to Figure 10, another embodiment of a wellbore service system with at least two nodes connected via an NFC signal is shown. In the embodiment in Fig. 10, the wellbore service system includes a wellbore sensor system 270, eg, a system generally configured to collect and/or record data from within the wellbore. For example, this data can include data

<p>10 associated with the wellbore (for example, temperature data, pressure data, flow rate data, or combinations thereof), data associated with one or more tools (for example, a nodes) within the wellbore (for example, the state of the tool, Availability of a tool's ability, tool format, and so on), or combinations thereof.</p>

In the embodiment in Figure 10, the wellbore sensing system 270 includes a 274 transitory sensing node and one or more 272 tool nodes (specifically,

<p>15th Three sensing nodes 272a, 272b, and 272c) are placed inside the wellbore 114. While the embodiment in Figure 10 shows an embodiment in which there are three 272 tool nodes, in another embodiment any suitable number of tool nodes can be used. In one embodiment, one or more tool nodes may be configured of 272 additional or alternative nodes and/or functional as a drilling performance logging node, control node, sensing node, or any combination thereof.For example, in this embodiment, these nodes may also be configured</p>

<p>20 etc. Output an NFC signal indicating the position and/or shape of the node node, position of the widget, a record of the gadget's activities,</p>

The amount of power remaining in any source associated with the power supply, the state of the tool node (and/or one or more of the tool components), or combinations thereof.

In the embodiment in Figure 10, each tool node 272 is included in (for example, part of) a chain of casing 190 and is placed in a wellbore 114. In one of the

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In embodiments, each Tool Node 272 is positioned within the wellbore such that each Tool Node 272 is generally attached to an aquifer region. In this embodiment, each tool node 272a, 272b, and 272c can obtain and/or contain data related to or associated with each of the regions, respectively.

<p>5 Also in the embodiment in Figure 10, the wellbore sensing system 270 includes a transition sensor node 274. In the embodiment in Figure 10, the transition sensor node 274 is generally configured to retrieve and/or receive data from one or more tool nodes 272, Specifically, holding tools 272a, 272b, and 272c, to obtain/measure one or more data points within a wellbore 114 (for example, via a transducer operation and, optionally,</p>

<p>10 to store that data. In the embodiment in Figure 10, the transition sensor node 274 includes a sphere, for example, such that the transition sensor node 274 can be connected through a chain of casing tubes 190 through its axial flow hole 191. In alternative embodiments, a drilling performance logging node functionally identical to a TSN 274 may comprise an arrow, a wiper, a tubed or wired member, or combinations thereof.</p>

<p>15th Also in the embodiment in Figure 10, the wellbore sensor system 270 includes a drilling performance log node 276. In the embodiment in Figure 10, the drilling performance log node 276 is generally configured to send and/or receive data from the transition sensor node 274. In the embodiment in Figure 10, the drilling performance logging node 276 is included within the casing chain 190 at the uphole location relative to the sensor nodes 272 (for example, the top of the well from the “bottom” of the wellbore</p>

<p>20 114, alternatively, substantially close to the surface (104), alternatively, a knot can be placed</p>

Surface drilling performance logging (for example, not located inside the wellbore). In one embodiment, a drilling performance log node 276 can be in communication by pointing to one or more surface components (for example, a computer or processor another data, a data storage medium, a long-range data transmission medium, and so on), for example, via a wired link or

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Another suitable link. In an alternative embodiment, an additional drilling performance log node (such as the drilling performance log node 276) is not required as part of the wellbore sensing system.

In one embodiment, a wellbore service system such as the wellbore sensor 270 system disclosed for Figure 10 may be used to collect, record, and/or obtain measured information

<p>5 Inside the borehole. For example, this wellbore sensing method can generally include the steps of placing one or more nodes (for example, tool nodes, control nodes, drilling performance logging nodes, sensor nodes, and so on) into a wellbore, connecting a sensor nodes Transition through at least a portion of the wellbore to receive or retrieve data from one or more nodes, and acquire data from the transit sensor node.</p>

<p>10 Referring back to Figure 10, in an embodiment, one or more nodes, such as tool nodes 272 may be placed inside a wellbore, such as wellbore 114. For example, in the embodiment in Figure 10, tool nodes 272 are included in Casing String 190, tool nodes 272 can be extended in the wellbore 114 (eg, positioned at a preferred location within the wellbore 114) with the casing string 190. In other embodiments, one or more of the</p>

<p>15th Sensor nodes for deployment after installation of casing string or other tubes.</p>

In one embodiment, a transition sensor node 274 can start collecting data as soon as it is placed in a well borehole 114, for example, a transition sensor node 274 can be placed inside a wellbore in an active state. In an alternative embodiment, the transition sensing nodes may be located inside the wellbore in the yi yi

An inactive state, for example, where the transition sensor node(s) does not conduct 274 i.e

<p>20 Function to collect data until activated. In this embodiment, the TSN can be activated by running another node (for example, a logging node, a control node, and so on), as will be disclosed here. Low Low Power (for example, to “sleep”), to move the sensor transition nodes to active (for example, to “energize”), or similar.</p>

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In one embodiment, a transition node 274 may be inserted into a wellbore 114 (for example, in a casing chain 190) and connected down through a wellbore 114. For example, in one embodiment, a transition node 274 may be connected downward through a wellbore Well 114, for example, by moving the fluid in the borehole 114 (eg, forward rotation of the fluid 5). When a transition sensor node 274 is connected through a wellbore 114, a transition sensor node 274 is connected by signaling to one or more tool nodes 272, eg, one or more tool nodes 272c, 272b, and 272a, respectively. In one embodiment, when TSN node 274 communicates by signaling to each of the tool nodes 272, TSN node 274 can initiate the communication (for example, via

<p>10 an NFC signal) with each 272 tool node (for example, a transition sensor node 274 acts as an active initiator). Once communication is established (for example, via an NFC signal) with a tool node, 272c, 272b, or 272a, it can The transition sensor node 274 receives and/or retrieves and stores at least a portion of the data inherent in a tool node 272 and/or can measure data from within the wellbore (for example, via one or more transformers). For example 15, in an embodiment, a TSN 274 could receive data related to the direction and/or position of a typical sensor node 274 (eg, data related to the position of a tool node 272 within the wellbore to which the TSN 274 is attached) Additionally or alternatively, the transition sensor node 274 can receive data related to environmental conditions (for example, temperature, pressure, flow rate, magnetic field, and so on) or any other</p>

<p>20 Another suitable data set as those of ordinary skill in the field will realize once this disclosure is reviewed, and correlates/associates the measured data with the position of the tool node 272 inside the borehole. In one embodiment, the communication (for example, via NFC) between the tool node and the transition sensor node 274 could cause the transition sensor node 274 to measure one or more of the specified variables and/or a subset of the variables. For example, 25 connections to different nodes at various positions within a wellbore can cause a transition node 274 to measure or not measure certain variables when a transition node is connected across the wellbore.</p>

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In one embodiment, the downstream connection of TSN 274 can continue until at least TSN 274 is transmitted through a sufficient portion of wellbore 114 (eg, casing chain 190) to connect to each of the instrument node 272 from which the data was collected .

<p>5 In one embodiment, after a transition node 274 has collected data from each preferred tool node 272, then a transition node 274 can be removed from a wellbore 114. For example, in one embodiment, a transition node 274 can be connected up through a wellbore 114 , for example, by moving the fluid up through the borehole 114 (for example, by back-circulating the fluid). Alternatively, the transition sensor node 10 274 ​​can be allowed to be carried up through the wellbore 114 with a formation fluid being produced through the wellbore 114 (for example,</p>

product fluid.

In one embodiment, when the TSN 274 passes through each of the 272 tool nodes again, the TSN 274 can achieve communication again (for example, via an NFC signal) with one or more of the 272 tool nodes, for example For example, for the purpose of validating and/or checking for observed data errors 15, receiving or restoring additional data, sending one or more commands to tool nodes 272, or combinations thereof.

20

25

Alternatively, in one embodiment, while connected down through a sufficient portion of the wellbore 114 ^y

(e.g. casing chain 190) To collect data, TSN 274 can “live” or go into active mode. Additionally, while connected upwards through wellbore 114, TSN 274 can achieve communication (for example, casing chain 190) for example, via an NFC signal) with one or more tool nodes 272, for example, for the purpose of validating and/or checking data received from tool nodes 272, receiving or restoring data, sending one or more commands to Holding instruments 272, or combinations thereof. Alternatively, while connected down through a sufficient portion of wellbore 114 (eg, casing chain 190) to connect to each instrument node from which the data was collected,

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A transition sensor node 274 can communicate (for example, via an NFC signal) with one or more tool nodes 272, for example, for the purpose of receiving or retrieving data. Additionally, while it is connected upstream through a wellbore 114, it can The transition sensor node 274 goes into “sleep” or static mode.

<p>5 For example, in the embodiment in Figure 10, when a TSN 274 moves up through a wellbore 114, a TSN 274 can be in communication by signaling to a drilling performance logging node 276. In one embodiment, when a TSN node is 276 274 In connection with a DPR node 276, a DPR node 276 or TPR node 274 can initiate the connection (for example, via</p>

<p>10 NFC signal) with the other. Once communication is established, a TSN 274 can carry at least a portion of the data stored on TSN node 274 (for example, data obtained from tool nodes 272a, 272b, and/or 272c, data from the wellbore, and so on) to the DPR node 276. Additionally, in an embodiment, there may be a set of DPR nodes configured to perform the functions of the DPR node</p>

<p>15th 276, for example, placed along a wellbore 114 along a certain length, for example</p>

For example, to allow a greater amount of data to be exchanged when TSN 274 travels up through wellbore 114.

In an alternate embodiment, for example, in an embodiment in which there is no additional DPC node (such as the DPR node 276), the TPS node 274 can communicate up via

<p>20 Wellbore 114 and removed from the wellbore 114. The data stored on the TSN 274 can be downloaded to another medium (eg, a computer or other data processor, a data storage medium, a long-range data transmission medium, and so on). data can be stored on a removable media (eg flash drive, SD card).</p>

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In one embodiment, as will be realized by those of ordinary skill in the art upon review of this disclosure, data obtained through the operation of a wellbore system and/or sensing method, as disclosed herein, may be used by a wellbore operator not to observe many 5 From wellbore parts and/or aquifers, to improve production from a wellbore and/or formation, monitor and/or check the condition of various downhole equipment, or combinations thereof.

While other examples of systems and/or methods in which many components (for example, tools) communicate via an NFC signal are disclosed here, many additional uses of wellbore servicing systems and/or methods are also illustrated and, therefore, no This disclosure shall be construed as necessarily limiting itself to the embodiments specifically described herein.

<p>10 In an embodiment, a wellbore servicing method (for example, a node), a wellbore service system comprising one or more nodes, a wellbore servicing method using a wellbore servicing system and/or said well tool, or combinations thereof may be characteristically used. In an embodiment, as disclosed before, the use of two or more nodes helps the operator to make a two-way communication (for example, via one or more NFC signals) between</p>

<p>15th Contract. For example, each node can be configured to receive one or more NFC signals (for example, data frame requests) and/or to send one or more NFC signals (for example, data frame responses). Conventional well tools and/or conventional wellbore service systems have the ability to make two-way or peer-to-peer communication between a group of well tools.</p>

<p>20 For example, to retrieve data (for example, switch data, state information, identification information, and so on) from one or more nodes, to send one or more commands (for example, an on-off signal), to send data (for example e.g. control data, software update, firmware update, and so on), any other appropriate wellbore service operations by sending and/or receiving one or more NFC signals as ordinary skilled in the field will immediately realize</p>

<p>25 Review this disclosure, or combinations thereof.</p>

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For example, in one embodiment, the use of two or more nodes allows the operator to create and use a network of well tools (for example, nodes) to perform one or more wellbore servicing operations. e.g. node) within a wellbore to perform one or more operations (e.g., data measurement, data recovery, transmission

5 data, and so on) in response to NFC signal communication between a well tool and other downhole tools (for example, other nodes). For example, a well tool can perform one or more operations based on the data received by one or more of other well tool, on the identity of the other well tool in communication by NFC signal with the well tool, on the site of the well tool, and so on.

10 Additional disclosure:

First embodiment, a wellbore servicing device comprising a body, a Near Field Communication (NFC) system placed inside the body and including a processor configured for NFC communication, one or more antennas each in signal communication with the processor, an input device At least one I/O input/output in a signal connection with the processor, 15 power supply in an electrical connection with the processor.

A second embodiment is the device according to the first embodiment where at least one I/O device includes a trigger in electrical communication by way of a signal with the processor.

A third embodiment, being the device according to one of the first to two embodiments, wherein the body comprises a housing comprising one or more ports and generally defining a flow lane.

20 Embodiment four, is the tool according to one of the two embodiments from the second to the third, which also includes a bushing that is slipped into the housing and moves from one position to a second position, whereby the bushing is moved from the first position to the second position as soon as the actuator is turned on.

A fifth embodiment, is the tool according to one of the first to four embodiments, wherein the tool is configured for inclusion in a tube chain.

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Sixth embodiment, is the device according to one of the first to four embodiments, in which at least one I/O device includes a transformer in electrical connection by way of a signal with the processor.

A seventh embodiment is the tool according to the sixth embodiment, where the tool is configured to be transitional into a wellbore.

5 An eighth embodiment, is the tool according to one of the first through seventh embodiments, wherein the tool is configured for inclusion in a pipe string.

A ninth embodiment is the device according to one of the first through eight embodiments, in which the NFC system is configured to communicate via an active mode, a passive mode, or combinations thereof.

Tenth embodiment, is the tool according to one of the first to ninth embodiments, where the NFC 10 system is configurable between communication in active mode and passive mode.

Eleventh embodiment, is a wellbore servicing method that involves placing a first node inside a wellbore, moving a second node across the wellbore so that the second node communicates with the first node, whereby the first node and the second node achieve signal transmission over the near field communication signal ( NFC), where data is communicated from the first node to the second node via NFC, from the second node 15 to the first node via NFC, or combinations thereof.

Twelfth embodiment, is a wellbore servicing method of embodiment eleven, where the first node is included within a pipeline.

embodiment thirteenth, is a wellbore servicing method of embodiment twelfth, wherein the piping chain also has a third knot embedded therein.

20 embodiment thirteenth, is a wellbore servicing method according to one of embodiments eleven through thirteen, where the first node includes a wellbore servicing device.

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embodiment XV, is a wellbore servicing method of embodiment fourteen, where data is communicated from the second node to the first node, and where the data is effective in initializing the wellbore servicing tool to provide a fluid communication path between the downstream bore of the wellbore servicing tool and the wellbore servicing area subterranean composition.

5 embodiment sixteen, is a wellbore servicing method of embodiment fifteen, which also includes the delivery of a wellbore servicing fluid through the fluid communication path.

Seventeenth embodiment, a wellbore servicing method according to one of embodiments eleventh through sixteenth, wherein the first node includes a sensor, wherein the drilling performance logging instrument is configured to monitor at least one wellbore variable.

10

15

Eighteenth embodiment, is a wellbore service method of embodiment seventeen, where data is communicated from the second node to the first node, and where the data is effective in moving the sensor from a passive mode to an active mode.

embodiment nineteen, is a wellbore service method according to one of embodiments seventeen to eighteen, where the data is connected from the first node to the second node, and where the data includes at least one wellbore variable, where the wellbore variable has a degree of H flow rate, pressure, flow rate, flow composition, or combinations thereof.

Embodiment Twenty, is a wellbore servicing method according to one of embodiments eleven through nineteen, where the second knot is a ball, arrow, or wiper.

The twenty-first embodiment, is a wellbore service system, comprising a first node placed inside

20 A wellbore, a drilling performance logging node configured for movement across the wellbore, where a drilling performance logging node is connected to the first node via a Near Field Communication (NFC) signal.

embodiment twenty-two, is a wellbore service system of embodiment twenty-first, wherein the first node includes a second node comprising a transformer.

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Embodiment Twenty-Third, is a wellbore service system of embodiment twenty-two where the sensor node is configured to monitor at least one wellbore variable.

Embodiment Twenty-Four, is a wellbore servicing system of embodiment Twenty-third, where the wellbore variable includes temperature, pressure, flow rate, or flow composition.

embodiment twenty-fifth, is a wellbore servicing system according to one of embodiments twenty-first through twenty-fourth, where the first node includes a tool node movable from a first body to a second body.

Embodiment Twenty-sixth, is a wellbore servicing system of embodiment Twenty-fifth, where the tool node is configured to monitor the tool body.

10

15

20

Twenty-seventh embodiment, is a wellbore servicing system of one of the twenty-fifth to twenty-sixth embodiments, wherein the tool node includes a transformer.

embodiment twenty-eighth, is a wellbore service system according to one of the 25th through 27th embodiments, where an NFC connection is not made between a tool node and a drilling performance logging node when the tool node is in the first form, and where an NFC communication is made between a tool node and a drilling performance logging node The tool and drilling performance logging node when the tool node is in the second configuration.

Twenty-ninth embodiment, a wellbore servicing system of one of the twenty-fifth to twenty-eighth embodiments, wherein the tool node comprises a housing comprising one or more ports and generally specifying a flow lane, and a sliding sleeve, in which the sliding sleeve moves

sleeve between a first position in relation to the housing and a second position in relation to the housing.

embodiment thirtieth, is a wellbore service system of one of the twenty-first through twenty-ninth embodiments, wherein the first node is included in a pipeline.

Embodiment XXXI, is a wellbore servicing method of embodiments twenty-first through thirty, where the drilling performance logging node is a ball, arrow, or wiper.

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Thirty-second embodiment, is a wellbore servicing method of embodiments twenty-first through thirty, in which a drilling performance logging node is a coiled tubing string member or a wire-laced member.

embodiment thirty-third, is a wellbore service system of one of the twenty-first 5 through thirty-second embodiments, which also includes a second drilling performance logging node.

Embodiment Thirty-Four, is a wellbore servicing system of embodiment thirty-three where the second Drilling Performance Log Node is located in the wellbore and above the sensor node.

embodiment thirty-fifth, is a wellbore servicing system according to one of the thirty-third to thirty-fourth embodiments, in which the second drilling performance logging node is located outside the wellbore.

10 The thirty-sixth embodiment, is a wellbore service system according to one of the twenty-first to thirty-fifth embodiments, where the first node is configured to transmit information via an NFC signal and to receive information via an NFC signal.

embodiment thirty-seven, is a wellbore service system according to one of the twenty-first to thirty-sixth embodiments, in which the drilling performance logging node is configured to send information via an NFC signal

15th And receive information via NFC signal.

The thirty-eighth embodiment is a wellbore servicing method that involves placing a first node inside a wellbore, moving the DPR node across the wellbore so that the DPR node is connected to the first node, where the DPR node connects to the first node via the field communication signal . Near Nearby (NFC), where data is transferred from the first node to the drilling performance logging node via

.NFC 20

embodiment thirty-nine, is a wellbore servicing method of embodiment thirty-eight, where the first node includes a sensor, wherein the sensor is configured to monitor at least one wellbore variant.

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Embodiment Forty, is a wellbore servicing method according to one of embodiments thirty-eight to thirty-ninth, where the data includes data associated with at least one wellbore variable, where the wellbore variable includes temperature, pressure, flow rate, flow composition, or combinations thereof.

5 embodiment forty-first, is a wellbore servicing method according to one of embodiments thirty-eight to forty, where the first node includes a tool node.

embodiment forty-second, is a wellbore servicing method of embodiment forty-first, where the tool node moves from a first body to a second body.

embodiment forty-third, is a wellbore servicing method according to one of embodiments 10 forty-first through forty-second, wherein the data includes data associated with the tool node.

embodiment forty-four, is a wellbore service method of embodiment 43, wherein the data associated with a tool node includes battery capacity, a function of the tool configuration, operating mode, date of operation of the tool node, or combinations thereof.

embodiment forty-fifth, is a wellbore servicing method according to one of embodiments 15th through 44th, which also includes removal of the drilling performance logging node from the wellbore and downloading at least part of the data to another medium.

embodiment forty-sixth, is a wellbore servicing method according to one of the thirty-eighth to forty-fifth embodiments, which also includes the movement of a drilling performance log node across the wellbore, where the drilling performance log node is in contact with the second drilling performance log node 20 above Sensor node, where the drilling performance log node is connected to the drilling performance log node

The second is via NFC, where at least part of the data is transmitted to the second drilling performance logging node via NFC.

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embodiment forty-seventh, is a wellbore servicing method according to one of the thirty-eighth to forty-sixth embodiments, which also includes the movement of a drilling performance logging node across the wellbore, where the drilling performance logging node is in contact with the second drilling performance log node above the node . The first, where the drilling performance log node is connected to the second drilling performance log node via

5 NFC, where the DPR node switches from a low-power mode to an active mode in response to communication with the second DPR node.

Embodiment forty-eighth, is a wellbore service method of embodiment 47, which also includes the recovery of the drilling performance logging node from the wellbore, where the drilling performance log node is in contact with the second drilling performance log node, where the drilling performance log node is connected with 10 Second DPR Node via NFC, where the DPR node switches from an active mode to a low-powered mode in response to communication with the second DPR node.

embodiment forty-nine, is a wellbore service system comprising one or more wellbore tool nodes placed within a wellbore, where each of one or more wellbore tool nodes is configurable from a first body to a second body, and a control node, The control node communicates with the 15 borehole tool nodes via the Near Field Communication (NFC) signal.

Embodiment Fifty, is a wellbore service system of embodiment 49 where the control node is configured to deliver a signal to the wellbore node operative in causing the wellbore tool to output a response, wherein the response includes an actuation signal.

embodiment fifty-first is a wellbore service system of embodiments 20 forty-fifty in which the control node is configured to deliver a signal to a wellbore node effective in making the wellbore tool node activate, silent, start, pause, By increasing a counter, decreasing a counter, or combinations thereof.

Fifty-second embodiment, is a wellbore service system according to one of the forty-ninth to fifty-first embodiments, where in the first body the wellbore tool node does not allow the connection path

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The fluid flows from an axial flow bore out of it through one or more ports, and where in the second form a borehole tool node allows a path of fluid communication from its axial flow bore to the outside of it through one or more ports.

Fifty-third embodiment, is a wellbore service system of the fifty-second embodiment, where the wellbore tool node is configurable from the second body to the first body.

embodiment fifty-four, is a wellbore service system of one of the fifty-second to fifty-third embodiments, wherein the wellbore tool node includes a housing comprising one or more ports and generally designating a flow lane; a sliding bushing, where the sliding bushing moves between a first position with respect to the housing and a second position with respect to the housing, where, when the sliding bushing is in the first position 10, the wellbore tool knot is in the first shape, and when the sliding bushing is in the first position

Second, the borehole tool node is located in the second body.

embodiment fifty-fifth, is a wellbore service system according to one of the fifty-second to fifty-fourth embodiments, wherein the wellbore tool node also includes an actuator, wherein, when the actuator is engaged, the sliding bushing is permitted to travel from the first position to the second position.

15th embodiment fifty-six, is a wellbore servicing system according to one of the fifty-second to fifty-fifth embodiments, where the wellbore tool node is configurable from a second body to a third body where the wellbore tool node does not allow a fluid connection path from an axial flow hole from it to An external part of it via one or more ports.

embodiment fifty-seventh, is a wellbore servicing system of one of embodiments ninth 20 forty-sixth to fifty-sixth, wherein at least one of the tool nodes includes a packing,

Where in the first form, at least one tool node is not fixed, and in the second form, at least one tool node is fixed.

Fifty-eighth embodiment, is a wellbore service system according to one of the forty-ninth to fifty-seventh embodiments, wherein it also includes a second control node, in which the control node is placed

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The second control node is up-well from the wellbore tool node, where the second control node is configured to deliver a signal to the control node that is effective in activating the control node, in making the control node initiate signal transmissions, in programming instructions within the control node, in inhibiting the control node, in converting a control node from a passive target to an active initiator, or combinations thereof.

5 Fifty-ninth embodiment, is a wellbore service system of embodiment 58, wherein the second control node is included in a casing string or other tubing string placed within the wellbore.

Embodiment Stone, is a wellbore servicing system according to one of the forty-ninth to 59th embodiments, where the wellbore tool node is also configured to monitor a single wellbore variable on

10 At least, to monitor one or more wellbore-related variables, or combinations thereof, and where the wellbore node is also configured to store data associated with at least one wellbore variable, one or more wellbore-related variables, or combinations Of which.

embodiment sixty-first, is a wellbore service system of embodiment sixty where the control node is also configured to have at least a portion of the data stored in the wellbore tool node from the wellbore tool node 15.

embodiment sixty-second, is a wellbore servicing system of one of the sixty-first embodiments, where the wellbore variable includes temperature, pressure, flow rate, or flow composition.

Sixty-third embodiment, a wellbore service system according to one of the sixty-second embodiments

20 Sixty, where one or more of the variables associated with a borehole tool node include battery capacity, configuration, operating mode, operating date, or operating status.

Sixty-four embodiment, is a wellbore service system according to one of the forty-ninth to sixty-third embodiments, wherein one or more wellbore tool nodes are configured to transmit information via an NFC signal and to receive information via an NFC signal.

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Sixty-fifth embodiment, is a wellbore service system according to one of the forty-ninth to sixty-fourth embodiments, in which the control node is configured to transmit information via an NFC signal and to receive information via an NFC signal.

embodiment sixty-six, is a wellbore servicing method involving placing one or more tool nodes into a wellbore, where each one or more wellbore tool nodes are configurable from a first body to a second body, moving the control node across the wellbore , where the control node communicates with at least one of the wellbore tool nodes via a Near Field Communication (NFC) signal, and where the control node delivers a signal to the wellbore node that is effective in the transition of the wellbore tool node from the first body to the second body; and fluid delivery 10 Wellbore service via a fluid connection path from its axial flow hole to the outside of it through one or more ports.

Sixty-seventh embodiment, is a wellbore service method of embodiment sixty-six where when a control node moves through the wellbore, the control node connects to a second control node via NFC.

embodiment sixty-eighth is a wellbore service method of embodiment 67 where the communication between a control node and a second control node is effective in activating the control node, in making the control node initiate signal transmissions, in programming instructions within the control node, in inhibiting Control node, converting a control node from a passive target to an active initiator, or combinations thereof.

embodiment sixty-ninth, is a wellbore servicing method according to one of the sixty-sixth to sixty-eighth embodiments, where the wellbore tool node is also configured to monitor at least one wellbore variable or one or more of the variables associated with the wellbore tool, and is Initialize a wellbore tool node to store data associated with at least one wellbore variable or one or more variables associated with a wellbore tool node.

Embodiment Seventy, is a wellbore servicing method of embodiment 69 that also includes the connection of at least part of the data stored in the wellbore tool node to the control node.

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embodiment seventy-first, a wellbore servicing method according to one of embodiments 69th through 71st, which also includes the connection of at least part of the data stored in a wellbore tool node to a drilling performance logging node.

A seventy-second embodiment, a wellbore servicing method according to one of the sixty-ninth embodiments

5 to the seventy-first, where the wellbore variable includes temperature, pressure, flow rate, or direction of flow.

embodiment seventy-third, a wellbore servicing method of one of the sixty-ninth to seventy-second embodiments, wherein one or more of the variables associated with a wellbore tool node include battery capacity, configuration, operating mode, operating date, or operating status.

10 embodiment seventy-four, is a wellbore servicing method according to one of the sixty-sixth to seventy-third embodiments, where in the first form a wellbore tool node does not allow a path of fluid communication from its axial flow bore to an external part of it through one or more ports, and where In the second configuration, the borehole tool node allows the path of fluid communication from its axial flow hole to the outside of it through one or more ports.

15th embodiment seventy-fifth, is a wellbore servicing method according to one of the sixty-sixth to seventy-fourth embodiments, wherein at least one of the tool knots includes a packing, where in the first form at least one tool knot is unstable, and where in the second form it is At least one tool node is static.

embodiment 76, is a wellbore servicing method comprising two or more sensor nodes, in which each sensor node is configured to allow, disallow, or selectively alter the path of fluid communication between its axial flow hole and its outer portion Via one or more ports, where each sensor node is also configured to monitor at least one variable, and a drilling performance log control node where the DPR control node communicates with the sensor nodes via a Near Field Communication (NFC) signal (.

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embodiment seventy-seventh, is a wellbore servicing system of embodiment 76 where two or more sensor nodes are included in the wellbore downstream chain of production.

seventy-eighth embodiment, is a wellbore service system according to one of the embodiments of the sixth

Seventy to seventy-seventh, where the hole is used to serve the system well to improve the production of a hole

5 well.

seventy-ninth embodiment, is a wellbore servicing system according to one of the sixth embodiments

Seventy-eighth, where at least one variable includes temperature, pressure, flow rate, flow composition, or combinations thereof.

embodiment eighty, is a wellbore servicing system according to one of the seventy-sixth to ten seventy-ninth embodiments, wherein one variable includes at least one or more of the variables associated with the sensor nodes.

Eighty-first embodiment, a wellbore service system of embodiment eighty, where one or more variables associated with a sensor node include battery capacity, configuration, operating mode, operating date, or operating status.

15th Eighty-second embodiment, a wellbore service system according to one of the seventy-sixth through eighty-first, which also includes a second performance logging control node, wherein the second performance logging control node is located in the wellbore and upstream of the sensor nodes.

embodiment eighty-third, is a wellbore service system of one of the seventy-sixth to eighty-second embodiments, wherein each sensor node includes a housing comprising 20 one or more ports and generally specifying a flow lane, and a sliding bushing, in which the bushing moves sliding for housing.

embodiment eighty-four, is a wellbore service system of embodiment 83, in which the movement of the sliding sleeve relative to the housing is effective in allowing fluid communication through one or more of the

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Ports, in not allowing fluid communication through one or more ports, to increase fluid communication through one or more ports, to reduce fluid communication through one or more ports, or combinations of them.

Eighty-fifth embodiment, is a wellbore service system according to one of the sixth embodiments

5 The seventy to eighty-four, which also includes a production packer, which is connected to the control node of the drilling performance recording via an NFC signal.

An eighty-sixth embodiment is a wellbore service system of one of the seventy-sixth to eighty-fifth embodiments, wherein two or more sensor nodes are configured to transmit information via an NFC signal and to receive information via an NFC signal.

<p>10 Eighty-seventh embodiment, is a wellbore service system according to one of the seventy-sixth to eighty-sixth embodiments, in which the drilling performance logging control node is configured to transmit information via an NFC signal and receive information via an NFC signal.</p>

embodiment eighty-eight, is a wellbore servicing method comprising the placement of two or more sensor nodes within a wellbore, and where each sensor nodes are configured to allow,

<p>15th Disallow, or selectively alter the path of the fluid communication between its axial flow hole and its outer portion through one or more ports, and where each sensor node is also configured to monitor at least one wellbore variable, trigger a performance logging control node Drilling through the borehole so that the drilling performance recording control node communicates with the sensor nodes, where the control node communicates with the sensor nodes via the Near Field Communication (NFC) signal,</p>

<p>20 Where data associated with at least one wellbore variable is transmitted from the sensor node to the DRL control node via an NFC signal, and where one or more commands are transmitted from the DRL control node to the sensor node via an NFC signal.</p>

embodiment eighty-nine, a wellbore service method of embodiment 88, where each sensor node is configured to allow, disallow, or alter the fluid communication path

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Based on the data received from the drilling performance log control node, the data received from the drilling performance log control node includes data associated with a wellbore variable that is aggregated with another sensor node.

embodiment ninety, is a wellbore servicing method according to one of embodiments eighty-eight to

<p>5 The eighty-ninth, where each sensor node is configured to allow, disallow, or change the fluid communication path based on a command received from the drilling performance log control node, where the command received from the drilling performance log control node is communicated to Drilling performance log control node by other drilling performance log control node.</p>

Ninety-first embodiment, a wellbore servicing method according to one of the eighth embodiments

<p>10 Eighty to ninety, where, when moving the DPR control node across the wellbore, the DPR control node again connects one or more commands to the DPR control node, where the commands contain instructions for one or more bodies of nodes sensor tools.</p>

Ninety-second embodiment, a wellbore servicing method according to one of the eighty-eighth embodiments

<p>15th to ninety-first, where the wellbore variable includes temperature, pressure, flow rate, or flow composition.</p>

embodiment ninety-third, a wellbore servicing method according to one of the eighty-eighth to ninety-second embodiments, where the top wellbore variant includes one or more variables associated with the sensor nodes.

<p>20 embodiment ninety-four, is a wellbore servicing method of embodiment 93 where one or more variables associated with the sensor nodes include battery capacity, configuration, operating mode, operating date, or operating status.</p>

embodiment ninety-fifth, is a wellbore servicing method according to one of the eighty-eighth to ninety-fourth embodiments, where when the control node is moved the drilling performance is recorded across a hole

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well, a production pack receives one or more commands from the drilling performance logging control node, where one or more commands contain effective instructions in an actuatable charge

.packer

embodiment ninety-six, is a wellbore service system comprising a control node placed in a wellbore 5, and a tool node configured for movement across the wellbore, wherein the tool node is connected to the control node via a Near Field Communication (NFC) signal, wherein before connecting to the control node, The tool node does not perform at least one job, and after connecting to the control node, the tool node will selectively perform at least one job.

embodiment ninety-seventh, is a wellbore servicing system of embodiment 96 where the tool node is configured to perforate a portion of a wellbore or a pipeline.

Ninety-eighth embodiment, is a wellbore servicing system of one of the ninety-sixth to ninety-seventh embodiments, wherein the tool knot comprises a perforating hexagon.

embodiment ninety-nine, is a wellbore servicing system of embodiment 98, in which the perforating gun comprises a selectively detonating explosive charge.

15th Embodiment One Hundred, is a wellbore service system of embodiment 99, where prior to connection to the control node, the explosive charge cannot be detonated, and after connection to the control node, the explosive charge can be detonated.

One hundred and one embodiment, is a wellbore servicing system of one ninety-sixth to one hundredth embodiment, in which a control node is included in a pipe chain within the wellbore.

20 One hundred and two embodiment, is a wellbore service system according to one of the ninety-sixth to one hundred and one embodiments, in which the control node is configured to deliver an arming command or a non-armament command to the tool node.

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One hundred and three embodiment, is a system to one hundred and two, where it is a knot with a wire.

The personification of one hundred and four, is a system

Wellbore service according to one of the ninety-sixth embodiments

Wellbore servicing according to one of the ninety-sixth embodiments

to one hundred and three, which also includes one or more additional control nodes placed in the wellbore.

One hundred and five embodiments, is a wellbore service system according to the one hundred and four embodiment, where each control node is configured to connect only to a specific tool node.

10

One hundred and sixty embodiment, is a wellbore service system according to one of the ninety-sixth to one hundred and five embodiments, in which the control node is configured to transmit information via an NFC signal and to receive information via an NFC signal.

One hundred and seventy embodiment, is a wellbore service system according to one of the ninety-sixth to one hundred and six embodiments, in which the tool node is configured to transmit information via an NFC signal and to receive information via an NFC signal.

15th One hundred and eight embodiment, is a wellbore servicing method that involves placing a control node in a wellbore, moving a tool node across the wellbore so that the tool node is connected to the control node, wherein the tool node is connected to the control node via the Near Field Communication (NFC) signal, where before When connecting to the control node, the tool node will not perform at least one job, and after connecting to the control node, the tool node will selectively perform at least one job.

20 One hundred and nine embodiment, is a wellbore service method of embodiment one hundred and eight where the control node communicates one or more commands to the tool node.

One hundred and ten embodiment, is a wellbore servicing method of embodiment one hundred and nine where one or more of the orders includes an armament order.

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One hundred and eleven embodiment, a wellbore servicing method according to one of the hundred nine to one hundred and ten embodiments, wherein one or more of the orders includes a disarmament order.

One hundred and twelve embodiment, is a wellbore servicing method according to one of the one hundred eight to one hundred and eleven embodiments, in which the tool node moves from an unarmed body to an armed body in response to one or more commands from the control node.

Embodiment One Hundred and Thirteen, is a wellbore servicing method of embodiment one hundred and twelve, in which a tool node transitions from an armed body to a demilitarized body in response to one or more additional commands from a second control node within the wellbore.

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One hundred and fourteen embodiment, is a wellbore servicing method according to one of the one hundred and eight to one hundred and thirteenth embodiments, wherein the tool knot comprises a perforating gun comprising a selectively detonating explosive charge.

One hundred and fifteen embodiment, is a wellbore servicing method according to the one hundred and fourteenth embodiment, where before connection to the control node, the explosive charge cannot be detonated, and after connection to the control node, the explosive charge can be detonated.

One hundred and sixteen embodiment, a wellbore servicing method of embodiment one hundred and fifteen, which further comprises the placement of a perforating gun near the wellbore portion and/or a string of tubes in which one or more holes are created.

One hundred and seventeen embodiment, is a wellbore servicing method according to the one hundred and sixteenth embodiment, which also includes blasting of the blasting charge.

One hundred and eighteen embodiment, a wellbore servicing method according to one of the one hundred and sixteen to one hundred and seventeenth embodiment, wherein the control node is located within the wellbore near the portion of the wellbore and/or a chain of pipes in which one or more holes are created.

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One hundred and nineteen embodiment, is a wellbore servicing system comprising one or more instrument nodes placed within a wellbore, and a transition sensor node configured to communicate across at least a portion of the wellbore, wherein the transition sensor node is configured to measure at least one wellbore variable ، , where the transition sensor node communicates with one or more instrument nodes via the communication signal

5 In the near field (NFC).

One hundred and twenty embodiment, is a wellbore service system according to the one hundred and nineteen embodiment, wherein the transition sensor node is a ball or an arrow.

One hundred and twenty-first embodiment, is a wellbore service system according to one of the hundred nineteen to one hundred and twenty embodiments, where the wellbore variable includes temperature, pressure,

10 Flow rate, or direction of flow.

One hundred and twenty-two embodiment, is a wellbore service system according to one of the one hundred and nineteen to one hundred and twenty-first, where the communication between one or more tool nodes and the transition sensor node is effective in routing the transition sensor node within the wellbore.

One hundred and twenty-three embodiment, is a wellbore service system according to one of the fifteen hundred and nineteen to one hundred and twenty-two embodiments, which also includes a drilling performance logging node.

Embodiment One Hundred and Twenty-Four, is a wellbore service system of embodiment one hundred and twenty-three, in which a drilling performance logging node is located in the wellbore and at least one top of one or more tool nodes.

One hundred and twenty-five embodiments, is a wellbore service system according to one of the hundred embodiments

20 and twenty-third to one hundred and twenty-four, where the drilling performance logging node is positioned outside the wellbore.

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One hundred and twenty-six embodiments, is a wellbore service system according to one of the hundred nineteen to one hundred and twenty-five embodiments, wherein one or more instrument nodes are configured to transmit information via an NFC signal and to receive information via an NFC signal.

One hundred and twenty-seven embodiments, is a wellbore service system according to one of the hundred embodiments

<p>5 Nineteen to one hundred and twenty-six, where the transition sensor node is configured to send information via an NFC signal and to receive information via an NFC signal.</p>

One hundred and twenty-eight embodiment, is a wellbore servicing method that involves placing one or more tool nodes within a wellbore, and moving a transition sensor node across the wellbore such that the transition sensor node is connected to one or more tool nodes, wherein the transition sensor node is initialized 10 To measure at least one wellbore variable while it is in motion through at least a portion of the wellbore, and where the transmission sensing node is communicating with at least one of one or more instrument nodes via a Near Field Communication (NFC) signal.

Embodiment One Hundred and Twenty-Nine, is a wellbore service system of embodiment one hundred and twenty-eight, wherein the connection between at least one of one or more tool nodes and a transition sensor node is effective in routing the transition sensor node within the wellbore.

embodiment one hundred and thirty, is a wellbore servicing method according to one of the one hundred twenty-eight to one hundred and twenty-nine embodiments, which further comprises the removal of the transition sensor node from the wellbore and the downloading of data associated with at least one wellbore variant onto at least another means.

One hundred and thirty-first embodiment, a wellbore servicing method according to one of the 20th and twenty-eight to thirty-eighth embodiments, which further comprises the movement of a transition sensor node through a wellbore, wherein the transition sensor node is in contact with a drilling performance logging node located on top of the well From at least one of one or more tool nodes, where a transition sensor node is connected to an NFC drilling performance logging node, where at least part of the data associated with at least one wellbore variant is converted to a node Recording of drilling performance via NFC.

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One hundred and thirty-two embodiment, a wellbore servicing method according to one of the one hundred twenty-eight to one hundred and thirty-first, which further comprises the movement of the transition sensor node through the wellbore, where the transition sensor node is in contact with the drilling performance logging node on top of the well . From at least one of one or more instrument nodes, where

<p>5 The transition sensor node communicates with an NFC drilling performance log node, where at least part of the data associated with one wellbore variable is transmitted to the NFC drilling performance log node, where the transition sensor node goes from a low-power mode to an active mode in response to the connection to a log node drilling performance.</p>

embodiment one hundred and thirty-three, a wellbore servicing method according to embodiment one hundred and thirty-two, 10 which further includes the recovery of the transition sensor node from the wellbore, where the transition sensor node is in communication with the drilling performance logging node, where the transition sensor node is connected to a wellbore node Drilling performance logging via NFC, where the transition sensor node switches from active to low power mode in response to communication with the drilling performance logging node.

embodiment one hundred and thirty-four, a wellbore servicing method according to one of the hundred embodiments

<p>15th Twenty-eight to one hundred and thirty-three, where the wellbore variable includes temperature, pressure, flow rate, or direction of flow.</p>

While embodiments of the invention have been clarified and described, modifications can be made to them by those skilled in the field without departing from the field of invention and the information contained therein. The embodiments described here are illustrative only, and are not intended to limit. Many changes and modifications can be made

<p>20 The invention disclosed herein and it falls within the scope of the invention. When publicly disclosing numerical ranges or restrictions, be aware that the declared ranges or restrictions include repeating ranges or restrictions to the same extent that they fall within the publicly stated ranges or restrictions (for example, the range from about 1 to about 10 includes 2, 3 , 4 and so on; and greater than 0.10 includes 0.11, 0.12, 0.13, and so on). For example, whenever a numeric range min., Rl, and bound is detected.</p>

<p>25 Above, Ru, any number that falls within the range is specifically detected. Specifically, is</p>

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In particular, detect the following numbers within the range: R=Rl +k* (Ru-Rl), where k is a variable ranging from 1 percent to 100 percent in increments of 1 percent, i.e., k is 1 Percent, 2 per cent, 3 per cent, 4 per cent, 5 per cent, ..... 50 per

percent, 51 percent, 52 percent, ...., 95 percent, 96 percent, 97 percent, 98

5 percent, 99 percent, or 100 percent. Furthermore, any numeric range identified with two R numbers as specified above is also specifically disclosed. The use of the term “optionally” in relation to any element of an element of protection is intended to mean that the said element is needed, or alternatively not needed. Both alternatives are intended to fall within the scope of the element of protection. Recognize that the use of larger terms such as includes, includes, in, and so provides support for narrower terms such as comprises of, mainly consists of, mainly includes, and so on.

Accordingly, the scope of protection is not limited to the above description but is limited only to the following claims, the scope of which includes all equivalents of the subject matter of the claims. Each claim is included in the specification as an embodiment of the present invention. Thus, the protection items represent another description which is yi

<p>15th In addition to embodiments of the current invention. Discussion of a reference in the detailed description of embodiments does not constitute an acknowledgment that it represents art prior to the present invention, and in particular any reference that may have a publication date after the date of this application's precedence. The disclosure contents of all patents, patent applications, and publications mentioned herein are included by reference, to the extent that illustrative, procedural or other details are provided supplementary to those described herein.</p>

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