Structurally enhanced plastics with filler reinforcements
Abstract
one. A composition containing:! fluid; and! the material dispersed in the above-mentioned fluid, said material being formed from particles having a pointed surface similar to a blade, while said particles have an aspect ratio greater than 0.7 to promote kinetic mixing in the boundary layer in the non-linear viscosity zone. ! 2 The composition according to claim 1, further comprising an additive dispersed in the fluid. ! 3 The composition according to claim 1, wherein the fluid is a thermopolymer material. ! four. The composition according to claim 1, wherein the particles are characterized by a Mohs hardness value greater than 2.5. ! five. The composition according to claim 3, in which the pointed surface, similar to a blade, of said particles has a size corresponding to the grinding and cutting of the polymers of the thermopolymer material during the mixing operation. ! 6 The composition according to claim 1, wherein the particles are characterized by a hardness sufficient to deform the fluid during the flow of particles around it, thereby promoting kinetic mixing as a result of the effect of the particle turning or rolling. ! 7 The composition according to claim 1, wherein the particles have a size that mainly remains in the boundary layer of the fluid, said particles having a proper size with respect to the boundary layer, such that the fluid would be forced to flow around the boundary layer, causing rolling or turning of the particles mentioned above to create a kinetic rolling and, thereby, ensure mixing in the boundary layer. ! eight. The composition according to claim 1, in which the particles promote the update of the boundary
Term
2.7 yearsto projected expiry
Projected expiry 26 May 2029, counted from filing; an application has no term until it is granted.
- Priority
- Filed
- Published
- Today
- Projected expiry
35 claims: 15 independent, 20 dependent
- 1Композиция, содержащая:one. A composition containing:
- 22 fluid;and 2. текучую среду;и
- 33 the material dispersed in the above-mentioned fluid, said material being formed from particles having a pointed surface similar to a blade, while said particles have an aspect ratio greater than 0.7 to promote kinetic mixing in the boundary layer in the non-linear viscosity zone. 3. материал, диспергированный в упомянутой текучей среде, при этом упомянутый материал образован из частиц, имеющих остроконечную поверхность, подобную лопасти, при этом упомянутые частицы характеризуются аспектным соотношением, большим чем 0,7, для промотирования кинетического смешивания в граничном слое в зоне нелинейной вязкости.
- 1210. Способ экструдирования текучей среды, в котором:ten. A method of extruding a fluid in which:
- 13fluid is supplied to the extruder;13. подают текучую среду в экструдер;
- 14feed additive to extruder;14. подают добавку в экструдер;
- 15feeding the material into an extruder, wherein the material is formed from particles having a pointed surface, similar to a blade, and the particles are characterized by an aspect ratio greater than 0.7, 15. подают материал в экструдер, при этом материал образован из частиц, имеющих остроконечную поверхность, подобную лопасти, при этом частицы характеризуются аспектным соотношением, большим чем 0,7,
- 16осуществляют перепускание упомянутого материала через зону смешивания в экструдере для диспергирования материала в текучей среде, в которой материал мигрирует в граничный слой текучей среды, промотируя кинетическое смешивание добавок в текучей среде, при этом кинетическое смешивание происходит в зоне нелинейной вязкости. sixteen. carry out the bypassing of the above material through the mixing zone in the extruder to disperse the material in the fluid in which the material migrates to the boundary layer of the fluid, promoting kinetic mixing of the additives in the fluid, while the kinetic mixing occurs in the non-linear viscosity zone.
- 2222 use the technique of shell fracture in the jet grinding method to obtain the above material before the stage of feeding the material to the extruder. 22. используют методику раковинчатого излома в способе струйного размалывания для получения упомянутого материала перед стадией подачи материала в экструдер.
- 2424 transferring material through the mixing zone in an extruder involves mixing thermoplastic material as a result of the effects of grinding and cutting, created by the above particles of material that roll over a large surface area as in the boundary layer wherein the fluid flow of the thermoplastic material and the geometry of said surface are in constant contact, while said particle collides with the material as a result of kinetic turning of said particle, created by the flow of fluid above the surface. 24. перепускания материала через зону смешивания в экструдере включает смешивание термопластичного материала в результате воздействия эффектов растирания и резки, создаваемых упомянутыми частицами материала, которые перекатываются по большой площади поверхности, как в граничном слое, при этом течение текучей среды термопластичного материала и геометрия упомянутой поверхности находятся в постоянном контакте, при этом упомянутая частица соударяется с материалом в результате кинетического переворачивания упомянутой частицы, создаваемого обтеканием текучей средой упомянутой поверхности.
- 2626 they carry out self-cleaning of the boundary layer on most of the stationary and moving mechanical parts of the extruder, including forms, as a result of passing through the kinetic mixing stage due to the continuous interaction of solid particles during rolling over during the kinetic mixing on said surface, and the fluid is moving. 26. осуществляют самоочищение граничного слоя на большинстве неподвижных и движущихся механических деталей экструдера, включая формы, в результате прохождения стадии кинетического смешивания за счет непрерывного взаимодействия твердых частиц в ходе переворачивания во время кинетического смешивания на упомянутой поверхности, причем текучая среда является движущейся.
- 2920. A method for increasing fluid flow through an element in which:20. Способ увеличения текучести текучей среды через элемент, в котором:
- 30подают текучую среду в упомянутый элемент;thirty. supplying fluid to said element;
- 31feeding the material into the said element, wherein the material is formed from particles having a pointed surface, similar to a blade, and said particles are characterized by an aspect ratio greater than 0.7, 31. подают материал в упомянутый элемент, при этом материал образован из частиц, имеющих остроконечную поверхность, подобную лопасти, причем упомянутые частицы характеризуются аспектным соотношением, большим чем 0,7,
- 32carry out the dispersion of the above-mentioned material in the fluid in which the material migrates into the boundary layer of the fluid, promoting kinetic mixing in the fluid, while the kinetic mixing occurs in the zone of nonlinear viscosity, which results in a decrease in the coefficient of friction caused by deceleration in the boundary layer. 32. осуществляют диспергирование упомянутого материала в текучей среде, в котором материал мигрирует в граничный слой текучей среды, промотируя кинетическое смешивание в текучей среде, при этом кинетическое смешивание происходит в зоне нелинейной вязкости, что в результате приводит к уменьшению коэффициента трения, обусловленного торможением в граничном слое.
Independent claims15
100 members in 20 offices
Priority claims8
| Document | Office | Kind | Date |
|---|---|---|---|
| 61070876 | United States of America | – | |
| 7087608 | United States of America | P | |
| 7087608 | United States of America | P | |
| 2009045180 | United States of America | W | |
| 2009045180 | United States of America | W | |
| 61070876 | – | – | – |
| US20080070876P | – | – | – |
| WO2009US45180 | – | – | – |
Members100
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| IL208408D0 | Israel | D0 | |
| US2010331451A1 | United States of America | A1 | |
| CN102046705A | China | A | |
| EP2365993A2 | European Patent Office (EPO) | A2 | |
| US2011272156A1 | United States of America | A1 | |
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| ES2710284T3 | Spain | T3 | |
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Numbers
- Publication
- 2010143543
- Publication, DOCDB
- 2010143543
- Publication, EPODOC
- RU2010143543
- Application
- 201014354305
- Application, DOCDB
- 2010143543
- Application, EPODOC
- RU20100143543
Titles2
- Russian
- КОНСТРУКЦИОННО-УЛУЧШЕННЫЕ ПЛАСТМАССЫ, ХАРАКТЕРИЗУЮЩИЕСЯ АРМИРУЮЩИМ ДЕЙСТВИЕМ НАПОЛНИТЕЛЯ
- English
- STRUCTURED-IMPROVED PLASTICS, CHARACTERIZED BY REINFORCING ACTIVITY OF THE FILLER
Classification
- CPC, 30
- B29B7/88
- C08K7/00
- B29B7/42
- B29K2105/0005
- B29K2105/06
- C08J3/201
- C08K2201/005
- B29K2105/16
- C08K2201/016
- C08K3/013
- B29C48/29
- B29C48/022
- B29C48/03
- B29C48/2886
- B29C48/362
- B29C48/363
- B29C48/625
- B29C48/41
- B29C48/40
- B29B7/48
- B29B7/007
- B29B9/06
- B29B9/12
- B29B7/726
- B29B7/92
- B29B9/14
- B29C48/00
- C08J3/20
- C08K7/22
- C08L23/06
- IPC, 6
- C08J3 20
- B29C48 03
- B29C48 29
- B29C48 40
- B29C48 41
- B29C48 625