TWM249103U

Improved configuration structure for heat sink module and thermo conductive pipe

Abstract

The creation system provides an improved structure of a heat dissipation module and a heat pipe, which comprises a base, a fan group, a heat dissipation row and a heat pipe; the base has a guide groove on one side for the fan group, and the other side of the base The heat conducting surface is combined for the CPU assembly; the heat pipe is disposed between the heat conducting surface of the base and the heat dissipation row; the creative features include: the base guiding groove is provided with obliquely opposite tongue ends to generate The air flow in the left and right directions; the base has two left and right heat dissipation rows and two hot gas discharge ports for the two directions to discharge the air to the outside; the heat pipe is U-shaped, and the segment is disposed on the heat conduction surface of the base The left and right side steering tube ends are respectively arranged on the left and right side heat dissipation rows of the base; thereby improving the design, the raft can obtain a more efficient heat dissipation effect for its function and use.

TWM249103U, drawing sheet 1 — Sheet 1 of 13

Term

No projected expiry on record.

5 claims: 5 independent, 0 dependent

1
The configuration of a heat dissipation module and a heat pipe is improved, and the large system comprises a base, a fan group, a heat dissipation row and a heat pipe; wherein one of the bases has a guide groove for the fan group to be disposed therein, The other side of the base has a heat conducting surface for the CPU assembly to be combined; the heat pipe is disposed between the heat conducting surface of the base and the heat dissipation row; and the feature includes:the guiding channel of the base is provided with a slope To the opposite two tongue ends, the derivable airflow in the left and right directions can be generated;the base has two left and right opposite heat dissipation rows and two hot gas discharge ports for the derivation of the two directions The heat pipe is arranged in a U-shaped tubular shape, wherein the segments are disposed on the heat conducting surface of the base, and the left and right steering tube ends are parallel to each other, and the left and right steering tube ends are respectively assembled. The heat is discharged on the left and right sides of the base. 1、一種散熱模組與熱導管之配置結構改良，其大體係包括基座、風扇組、散熱排以及熱導管；其中該基座之一側具一導流槽以供風扇組設置於其中，基座之另一側具一導熱面以供CPU組設結合；該熱導管則組設於基座之導熱面與散熱排之間；其特徵包含：該基座之導流槽係設置有斜向相對的二舌端，而能夠產生左、右兩個方向的導出氣流；該基座係具有左、右相對的二側散熱排而具有兩個熱氣排出口，藉以供前述兩方向的導出氣流排出外部；該熱導管係設呈U形管狀，其中段係組設於基座之導熱面，而左、右側轉向管端互成平行分置狀態，且該左、右側轉向管端分別組設於基座之左、右二側散熱排上者。 M249103 五、申請專利範圍 1、一種散熱模組與熱導管之配置結構改良’其大體係包括基座、風扇組、散熱排以及熱導管；其中該基座之一側具一導流槽以供風扇組設置於其中’基座之另一側具一導熱面以供CPU組設結合；該熱導管則組設於基座之導熱面與散熱排之間；其特徵包含：該基座之導流槽係設置有斜向相對的二舌端’而能夠產生左、右兩個方向的導出氣流；該基座係具有左、右相對的二側散熱排而具有兩個熱氣排出口，藉以供前述兩方向的導出氣流排出外部；該熱導管係設呈U形管狀，其中段係組設於基座之導熱面，而左、右側轉向管端互成平行分置狀態’且該左、右側轉向管端分別組設於基座之左、右二側散熱排上者。 2、依據申請專利範圍第1項所述之散熱模組與熱導 :管之配置結構改良，其中，該熱導管係可為單管結構型態、亦可為雙管、多管併行之結構型態者。 3、一種散熱模組與熱導管之配置結構改良，其大體係包括基座、風扇組、散熱排以及熱導管；其中該基座之一側具一導流槽以供風扇組設置於其中，基座之另一側具一導熱面以供CPU組設結合；該熱導管則組設於基座之導熱面與散熱排之間；其特徵包含：該基座之導流槽係設置有斜向相對的二舌端，而能夠產生左、右兩個方向的導出氣流；該基座係具有左、右相對的二側散熱排而具有兩個熱 I氣排出口，藉以供前述兩方向的導出氣流排出外部；泌‘ 第13頁 M249103 五、申請專利範圍該熱導管係設呈U形管狀，其管中段係組設於基座之導熱面，而左、右側轉向管端互成分置狀態，又該其中一 i側之轉向管端與管中段係具有一内傾角之型態；左、右側轉向管端則分別組設於基座之左、右二側散熱排上者。 4、依據申請專利範圍第3項所述之散熱模組與熱導 :管之配置結構改良，其中，該熱導管係可為單管結構型態丨、亦可為雙管、多管併行之結構型態者。 1 5、依據申請專利範圍第3項所述之散熱模組與熱導 :=之配置結構改良，其中，熱導管設成内傾角之該側轉向丨盲、所對應的散熱排外部係可再形成一外斜角導面，藉以 :讓熱氣能夠較為順暢地排出者。
2
The configuration of the heat dissipation module and the heat pipe according to the first aspect of the patent application scope is improved, wherein the heat pipe system can be a single pipe structure type, or can be a double pipe or a multi pipe parallel structure type. By. 2、依據申請專利範圍第1項所述之散熱模組與熱導管之配置結構改良，其中，該熱導管係可為單管結構型態、亦可為雙管、多管併行之結構型態者。
3
The configuration of the heat dissipation module and the heat pipe is improved, and the large system comprises a base, a fan group, a heat dissipation row and a heat pipe; wherein one of the bases has a guide groove for the fan group to be disposed therein, The other side of the base has a heat conducting surface for the CPU assembly to be combined; the heat pipe is disposed between the heat conducting surface of the base and the heat dissipation row; and the feature includes:the guiding channel of the base is provided with a slope To the opposite two tongue ends, the derivable airflow in the left and right directions can be generated;the base has two left and right opposite heat dissipation rows and two hot gas discharge ports for the derivation of the two directions The heat pipe is arranged in a U-shaped tubular shape, the middle section of the pipe is set on the heat conducting surface of the base, and the left and right steering pipe ends are mutually combined, and the steering pipe end and the middle section of the one side are The system has an inward angle;the left and right steering tube ends are respectively arranged on the left and right heat dissipation rows of the base. 3、一種散熱模組與熱導管之配置結構改良，其大體係包括基座、風扇組、散熱排以及熱導管；其中該基座之一側具一導流槽以供風扇組設置於其中，基座之另一側具一導熱面以供CPU組設結合；該熱導管則組設於基座之導熱面與散熱排之間；其特徵包含：該基座之導流槽係設置有斜向相對的二舌端，而能夠產生左、右兩個方向的導出氣流；該基座係具有左、右相對的二側散熱排而具有兩個熱氣排出口，藉以供前述兩方向的導出氣流排出外部；該熱導管係設呈U形管狀，其管中段係組設於基座之導熱面，而左、右側轉向管端互成分置狀態，又該其中一側之轉向管端與管中段係具有一內傾角之型態；左、右側轉向管端則分別組設於基座之左、右二側散熱排上者。
4
The configuration of the heat dissipation module and the heat pipe according to the third aspect of the patent application scope is improved, wherein the heat pipe system can be a single pipe structure type, or can be a double pipe or a multi pipe parallel structure type. By. 4、依據申請專利範圍第3項所述之散熱模組與熱導管之配置結構改良，其中，該熱導管係可為單管結構型態、亦可為雙管、多管併行之結構型態者。
5
The arrangement structure of the heat dissipation module and the heat pipe according to Item 3 of the patent application scope is improved, wherein the external heat dissipation tube corresponding to the side of the steering tube end of the heat pipe is set to have an external inclination. Angle guide surface, so that the hot air can be discharged more smoothly. 5、依據申請專利範圍第3項所述之散熱模組與熱導管之配置結構改良，其中，熱導管設成內傾角之該側轉向管端所對應的散熱排外部係可再形成一外斜角導面，藉以讓熱氣能夠較為順暢地排出者。

Independent claims5

67 paragraphs, as filed

Improved configuration of heat dissipation module and heat pipe

This creative part:Pedestal. . . (10)Diversion trough. . . (11)Thermal surface. . . (12)Tongue end. . . (13)(14)Fan group. . . (20)Heat sink. . . . (30)(31)Hot gas discharge. . . (32)(33)Heat pipe. . . (40)Left side steering tube end. . . (41)Right side steering tube end. . . (42)Middle section of the tube. . . (43)Export airflow. . . (A1) (A2)Inward angle. . . (X)Notebook computer. . . (50)External beveled guide. . . (51)Conventional part:Pedestal. . . (60)Fan capacity. . . (61)Fan group. . . (62)Heat sink. . . (63) (63B)Heat pipe. . . (64)Transition extension. . . (642)CPU group setting. . . (65)Tongue end. . . (66)

Figure 1 is a perspective view of a preferred embodiment of the present invention.

Figure 2 is a plan view of a preferred embodiment of the present invention.

Fig. 3 is a schematic view showing the heat dissipation line of the preferred embodiment of the present invention.

Figure 4: The heat pipe of the preferred embodiment of the present invention may be a two-tube schematic.

Fig. 5 is a view showing another embodiment of the heat pipe type of the present invention.

Figure 6: The heat pipe of Figure 5 can be a two-tube schematic.

Figure 7: A schematic representation of the structure of a conventional structure.

Figure 8 is a plan view of another conventional structure.

Figure 9: A schematic representation of another conventional structure.

Figure 10: A schematic representation of a further conventional structure.

[Technical Field]

This creation is about the configuration of a computer cooling module and a heat pipe, especially a double-sided heat pipe with a two-way heat sink and an innovative structural space type for the airflow.

[Prior Art]

According to the computer device's central processing unit (CPU), the heat generated by the CPU must be dissipated and cooled by the thermal module to maintain its normal operation. This is true for desktop computers. The role played by the thermal module is even more important. In particular, the current CPU of the notebook computer is continuously upgraded. If the performance of the heat dissipation cannot be matched, it will obviously affect the normal operation of the CPU, thereby accelerating the damage of the CPU. The structure of the known heat dissipation module is as shown in Fig. 7, which is mainly composed of a base (60), a fan receptacle (61), a fan set (62), a heat dissipation row (63), and a heat pipe (64). The one end of the heat pipe (64) is disposed on the CPU assembly portion (65) on the base side, and the other end is disposed on the heat dissipation row (63), and the fan receiving slot (61) is disposed. It is a spatial type of a single tongue end (66), so the airflow drawn through the fan group (62) (indicated by the arrow in the figure) is a state in which only hot air is discharged toward one of the heat dissipation rows (63), due to such a habit Knowing that the structure has only a single heat pipe and one-way heat removal, the heat removal efficiency is not enough to cope with higher A CPU of a level; for this reason, another manufacturer has developed another conventional structure, which is shown in Fig. 8, which differs from the conventional structure in that the fan receptacle (61) is provided with the other side. The heat sink (63B) is disposed, and the heat pipe (64) is further formed with a transition portion (642); however, the improved heat dissipation effect is better than the foregoing, but due to the fan group (62) The main exhaust flow is still discharged from one of the heat dissipation rows (63), so that the heat dissipation effect of the added heat dissipation row (63B) and the transition extension (642) is rather weak and ineffective; The structure of the heat dissipation row (63B) and the transition extension (642) is further modified as shown in Figs. 9 and 10, and a variation of the second heat pipe (63B) and (63C) is added. However, such structural changes The problem with the type is still that its effective heat dissipation effect is limited to a single side heat dissipation row, so it is impossible to make great progress in the heat dissipation efficiency of the overall heat dissipation module.

Therefore, in view of the problems existing in the configuration structure of the above-mentioned conventional computer cooling module and heat pipe, how to develop a new structure with better heat dissipation performance and more ideal practicability is an improvement breakthrough for the industry.

[New content]

Technical problems to be solved: The main reason is that the configuration structure of the conventional computer cooling module and the heat pipe is a one-way exhaust with a one-way or two-way heat pipe and the problem of poor heat dissipation is improved.

Technical features of the problem: The large system includes a base, a fan set, a heat dissipation row, and a heat pipe; wherein the base has a guide groove on one side for the fan set, and the other side of the base has a heat transfer surface for the CPU The heat pipe is disposed between the heat conducting surface of the base and the heat dissipation row; the technical features include: the guiding channel of the base is provided with obliquely opposite tongue ends to generate two left and right sides Directional derivation airflow; the base has two left and right opposite heat dissipation rows and two hot gas discharge ports, so that the derivation airflow in the two directions is discharged to the outside; the heat pipe is U-shaped, and the segment is set The left and right steering tube ends are parallel or have a dip angle, and the left and right steering tube ends are respectively disposed on the left and right heat dissipation rows of the base. .

Wherein, the heat pipe system may be a single pipe structure type, or may be a double pipe or a multi pipe parallel structure type.

Compared with the effect of the prior art: mainly by the two-tongue end of the pedestal of the pedestal to produce an improved design of the two-direction derivation flow, and the two-side heat-dissipating row with two hot gas discharge ports and a heat pipe The special structure design of the side steering tube end can greatly improve the heat conduction and heat removal efficiency of the computer cooling module, so as to cope with the high heat generated by the continuous upgrading of the central processing unit (CPU) of the current computer.

[Embodiment]

To make Your review committee can have a better understanding and understanding of the purpose, characteristics and efficacy of this creation. Please follow the detailed description of the drawing as follows: First, please refer to the figures shown in Figures 1, 2 and 3. A preferred embodiment of the improved heat dissipation module and heat pipe configuration structure includes a base (10), a fan assembly (20), a heat dissipation row (30), and a heat pipe (40); wherein the base (10) One side has a guiding groove (11) for the fan group (20) to be disposed therein, and the other side of the base (10) has a heat conducting surface (12) for the central processing unit of the computer (CPU) (not shown) is assembled; the heat pipe (40) is disposed between the heat conducting surface (12) of the base (10) and the heat dissipation row (30); and the feature comprises: the base (10) The diversion channel (11) is provided with obliquely opposite tongue ends (13) (14) (which are pressure points for generating exhaust gas flow), thereby enabling the derivation of the left and right directions (A1) (A2); the base (10) has left and right opposite two-side heat dissipation rows (30) (31) and two hot gas discharge ports (32) (33) for the outward flow of the two directions ( A1) (A2) discharges the outside; the heat The conduit (40) is formed in a U-shaped tubular shape, and the middle section (43) of the tube is formed on the heat conducting surface (12) of the base (10) to thereby absorb the central processing unit (CPU) of the notebook computer (50). The left and right steering tube ends (41) (42) are parallel to each other, and the left and right steering tube ends are respectively disposed on the left and right side heat dissipation rows of the base (10) (30). ) (31) The above.

According to the above-mentioned structural type, the airflow actuation system during heat dissipation is as shown in Fig. 3. When the fan assembly (20) rotates, the left and right directions can be generated by the two tongue ends (13) and (14). The outgoing airflow (A1) (A2), the two-way airflow will be sequentially discharged from the two side heat dissipation rows (30) (31) and the two side hot gas discharge ports (32) (33); and on the other hand, the heat The conduit (40) is U-shaped tubular design, so that the heat generated by the notebook computer (50) central processing unit (CPU) will be led out from the middle section (43) of the tube and transmitted to the left and right sides in two directions. The steering tube end (41) (42), and then to the two side heat dissipation rows (30) (31), can be used to dissipate heat by the blown air stream.

In addition, as shown in FIG. 5, it is another type of design of the heat pipe, and the left and right steering tube ends (41) (42) are mutually in a state of being placed, and the steering tube end of the one side is 41) or (42) has a degree of internal inclination (X) with the middle section of the pipe; the design of the structure is intended to be because the left and right sides of the heat dissipation row (30) or (31) If one side is directly discharged to the outside of the notebook computer (50), the other side heat dissipation row (31) or (30) will have a steering angle with the outer side wall of the computer, which will not facilitate the smooth export of hot air. Therefore, designing the side steering tube end (41) or (42) of the heat pipe (40) to have a spatial inclination of the inner inclination angle (X) will enable the hot gas discharge port to be biased toward the notebook computer (50). The outer side wall, then, can further cooperate with the inside of the notebook computer to form an outer beveled guide surface (51) (as shown in Fig. 5), so that the hot air can be discharged more smoothly to the outside (Note: The embodiments disclosed in Figures 1 to 3 are equally applicable to the beveled guide structure.

The heat pipe (40) may be a single pipe structure type (as shown in FIGS. 2 and 5), or a double pipe (as shown in FIGS. 4 and 6), and a multi-tube parallel structure. Type.

Effect Description

The fact that the effect of the creation is improved is as follows: mainly by providing the two tongue ends (13) (14) by the diversion groove (11) of the base (10) to produce an improved flow in two directions (A1) (A2) Designed with two heat-dissipating rows (30) (31) and two hot gas discharge ports (32) (33) and two side steering tube ends (41) (42) of the heat pipe, which can greatly enhance the computer The heat dissipation of the thermal module and the efficiency of heat removal are used to cope with the high heat generated by the continuous upgrading of the central processing unit (CPU) of today's computers.

The new effect that can be produced by the creation is as follows: the heat pipe (40) is set to the inner dip angle (X) of the side of the steering tube end (41) or (42) corresponding to the heat dissipation row (31) or (30) The structure of the outer beveled guide surface (51) is further formed, and the heat can be more smoothly discharged to the outside.

Simple illustration