mhurhangee/ep-ind-claims huggingface dataset:
A blood separating agent containing: a (meth) acrylic acid ester-based polymer having a viscosity of 10 to 200 Pa·s at 25°C; an inorganic powder; and characterized by a polyalkylene glycol having a number average molecular weight of 700 or more, wherein the polyalkylene glycol is mixed at a concentration of 0.1 % by weight to 5% by weight of the total weight of the blood separating agent, and further characterized in that the (meth) acrylic acid ester-based polymer is a copolymer comprising a (meth)acrylic acid ester monomer and an aromatic vinyl monomer. a (meth) acrylic acid ester-based polymer having a viscosity of 10 to 200 Pa·s at 25°C; an inorganic powder; and characterized by a polyalkylene glycol having a number average molecular weight of 700 or more, wherein the polyalkylene glycol is mixed at a concentration of 0.1 % by weight to 5% by weight of the total weight of the blood separating agent, and further characterized in that the (meth) acrylic acid ester-based polymer is a copolymer comprising a (meth)acrylic acid ester monomer and an aromatic vinyl monomer.
A formation jig including a frame accommodating a plurality of battery cells, and a plurality of pressing plates for pressing a battery cell by moving in a horizontal direction, the formation jig comprising: the pressing plate configured to have a first through hole through which a first screw passes and press the battery cell; a pressing support plate configured to support the battery cell when the pressing plate presses an upper or lower portion of the battery cell and include a second through hole through which the first screw passes, and a third through hole through which a second screw passes; the first screw configured to pass through the pressing plate and the pressing support plate and move the pressing plate in a gap-adjusting direction by rotation; and the second screw configured to pass through the pressing support plate and move the pressing support plate in a gap-adjusting direction by rotation, wherein a diameter of the second through hole is larger than a diameter of the first through hole, characterized in that the pressing plate and the pressing support plate are installed in plurality in parallel, wherein the pressing plate is divided into an upper pressing region and a lower pressing region, wherein each of the upper pressing region and the lower pressing region has at least one pair of first through holes, and wherein a cross-sectional area of the pressing support plate is larger than a cross-sectional area of the pressing plate. the pressing plate configured to have a first through hole through which a first screw passes and press the battery cell; a pressing support plate configured to support the battery cell when the pressing plate presses an upper or lower portion of the battery cell and include a second through hole through which the first screw passes, and a third through hole through which a second screw passes; the first screw configured to pass through the pressing plate and the pressing support plate and move the pressing plate in a gap-adjusting direction by rotation; and the second screw configured to pass through the pressing support plate and move the pressing support plate in a gap-adjusting direction by rotation, wherein a diameter of the second through hole is larger than a diameter of the first through hole, characterized in that the pressing plate and the pressing support plate are installed in plurality in parallel, wherein the pressing plate is divided into an upper pressing region and a lower pressing region, wherein each of the upper pressing region and the lower pressing region has at least one pair of first through holes, and wherein a cross-sectional area of the pressing support plate is larger than a cross-sectional area of the pressing plate.
A communication apparatus (10, 100) for wireless communication in a wireless local area network, said communication apparatus comprising a communication unit configured to: transmit a trigger frame including wireless communication resource information specifying uplink resources and attribute information related to transmission of a response uplink frame; receive the response uplink frame transmitted as a response to the trigger frame, the response uplink frame including buffered data information; and the response uplink frame being transmitted using at least one resource unit selected from a group of resource units specified in the wireless communication resource information; transmit an uplink transmission permission frame including resource allocation information indicating allocated uplink transmission resources in response to the uplink resource frame including the buffered data information; and receive a data frame being transmitted using the allocated uplink data transmission resources in accordance with the uplink transmission permission frame. transmit a trigger frame including wireless communication resource information specifying uplink resources and attribute information related to transmission of a response uplink frame; receive the response uplink frame transmitted as a response to the trigger frame, the response uplink frame including buffered data information; and the response uplink frame being transmitted using at least one resource unit selected from a group of resource units specified in the wireless communication resource information; transmit an uplink transmission permission frame including resource allocation information indicating allocated uplink transmission resources in response to the uplink resource frame including the buffered data information; and receive a data frame being transmitted using the allocated uplink data transmission resources in accordance with the uplink transmission permission frame.
A method for comparing execution of a plurality of processing systems of a device, comprising: comparing execution of a program on a first processing system of the plurality of processing systems and execution of the program on a second processing system of the plurality of processing systems using a first comparator circuit; comparing the execution of the program on the first processing system and the execution of the program on the second processing system using a second comparator circuit; and the method is characterised by running a diagnosis program on the second comparator circuit while the comparing using the first comparator circuit is ongoing. comparing execution of a program on a first processing system of the plurality of processing systems and execution of the program on a second processing system of the plurality of processing systems using a first comparator circuit; comparing the execution of the program on the first processing system and the execution of the program on the second processing system using a second comparator circuit; and the method is characterised by running a diagnosis program on the second comparator circuit while the comparing using the first comparator circuit is ongoing.
Strength member ply of the carcass of a pneumatic vehicle tyre comprising strength members, wherein within the strength member ply the strength members are arranged substantially parallel to one another and are embedded in elastomeric material, wherein at least one strength member is in the form of a cord composed of two yarns (21, 22) which are end-twisted with one another and wherein the two yarns (21, 22) are composed of polyester and wherein the cord comprises precisely two yarns (21, 22), characterized in that the two yarns (21, 22) are end-twisted with a twist factor of 270 to 350, particularly preferably 280 to 320, to afford the cord, wherein the twist factor is defined as twist level [T/m] * (thread fineness [dtex]/10 000) 1/2, wherein the twist level is reported in turns per metre and wherein the thread fineness is the fineness of the cord, i.e. the sum of the finenesses of the yarns of the cord.
Apparatus, comprising: a signal generator, which is configured to deliver a Radio Frequency signal having a time-varying power to an intra-body probe, for application to tissue in a vicinity of the probe, in order to ablate the tissue; and a processor, which is configured to receive a measurement of a temperature in the vicinity of the probe, and automatically to decide whether the probe is in contact with the tissue by comparing the measured temperature to a temperature threshold that varies in time depending on the time-varying power of the RF signal, characterized in that the processor is configured to set the temperature threshold depending on a fourth root of the power of the RF signal, and wherein the processor is configured to set a proportion coefficient between the temperature threshold and the fourth root of the power of the RF signal, based on a first coefficient that links the measured temperature and the fourth root of the power when the probe is in contact with the tissue, and a second coefficient that links the measured temperature and the fourth root of the power when the probe is not in contact with the tissue. a signal generator, which is configured to deliver a Radio Frequency signal having a time-varying power to an intra-body probe, for application to tissue in a vicinity of the probe, in order to ablate the tissue; and a processor, which is configured to receive a measurement of a temperature in the vicinity of the probe, and automatically to decide whether the probe is in contact with the tissue by comparing the measured temperature to a temperature threshold that varies in time depending on the time-varying power of the RF signal, characterized in that the processor is configured to set the temperature threshold depending on a fourth root of the power of the RF signal, and wherein the processor is configured to set a proportion coefficient between the temperature threshold and the fourth root of the power of the RF signal, based on a first coefficient that links the measured temperature and the fourth root of the power when the probe is in contact with the tissue, and a second coefficient that links the measured temperature and the fourth root of the power when the probe is not in contact with the tissue.
A method of providing electrical energy to a traction motor comprising: providing electrical power to the traction motor via a first battery circuit having at least two first batteries electrically coupled together via a plurality of first battery switches, wherein the first battery switches configure the first battery circuit in a series configuration; charging, via a fuel cell stack a second battery circuit having at least two second batteries electrically coupled together via a plurality of second battery switches, wherein the second battery switches configure the second battery circuit in a parallel configuration; switching, via the first battery switches, the first battery circuit to a parallel configuration; switching, via the second battery switches, the second battery circuit to a series configuration; decoupling, via two traction motor switches, the first battery circuit from the traction motor; decoupling, via at least one fuel cell stack switch, the second battery circuit from the fuel cell stack; coupling, via the two traction motor switches, the first battery circuit to the fuel cell stack; and coupling, via the two traction motor switches, the second battery circuit to the traction motor. providing electrical power to the traction motor via a first battery circuit having at least two first batteries electrically coupled together via a plurality of first battery switches, wherein the first battery switches configure the first battery circuit in a series configuration; charging, via a fuel cell stack a second battery circuit having at least two second batteries electrically coupled together via a plurality of second battery switches, wherein the second battery switches configure the second battery circuit in a parallel configuration; switching, via the first battery switches, the first battery circuit to a parallel configuration; switching, via the second battery switches, the second battery circuit to a series configuration; decoupling, via two traction motor switches, the first battery circuit from the traction motor; decoupling, via at least one fuel cell stack switch, the second battery circuit from the fuel cell stack; coupling, via the two traction motor switches, the first battery circuit to the fuel cell stack; and coupling, via the two traction motor switches, the second battery circuit to the traction motor.
Stator for a rotary electric machine comprising: - a stator body formed by a stack of laminations, the said stator body being provided with an axis and being delimited by an internal radial surface and an external radial surface, - slots formed in the said stator body and extending axially, two slots being separated by a tooth, each of the two slots having a slot bottom and a slot opening, the said slot opening being situated on the same side as the said internal radial surface, - a stator winding borne by the said stator body, the said winding comprising several winding parts (51, 52, 53) each of them being housed in one of the said slots, each of the slots (44, 41, 42, 43) being provided, at the slot opening, with at least one slot-closure element (451, 452, 453, 454) so that the winding part that is housed in the said slot is held between the slot bottom and the said closure element, and characterized in that, for each of the slots, the said closure element is formed by an circumferential offsetting (451, 452a, 452b, 453, 454) of at least one of the laminations of the adjacent tooth towards the said slot, the said offsetting being brought about by a deforming of the said slot. - a stator body formed by a stack of laminations, the said stator body being provided with an axis and being delimited by an internal radial surface and an external radial surface, - slots formed in the said stator body and extending axially, two slots being separated by a tooth, each of the two slots having a slot bottom and a slot opening, the said slot opening being situated on the same side as the said internal radial surface, - a stator winding borne by the said stator body, the said winding comprising several winding parts (51, 52, 53) each of them being housed in one of the said slots,
Walk-in stationary ethylene oxide sterilization system comprising a vacuum pump, an ethylene oxide evaporator, an ethylene oxide reservoir, a control, a humidifier and a sterilization chamber, characterized in that the sterilization chamber, the vacuum pump, the ethylene oxide evaporator and the ethylene oxide reservoir are housed in at least one metal container.
Toothing of a gearwheel having a plurality of teeth: 1.1 the tooth flanks (2, 4) of which have a main area and a tooth root area; 1.2 as viewed in the transverse section or normal section through the axis of rotation of the gearwheel, the tooth root area extending from a root circle as far as a main circle (d H); characterized in that - in each case viewed in the transverse section or normal section - 1.3 the tooth flanks in the tooth root area are formed as a Bézier curve beginning from a relevant diameter (d r) in the direction of the root circle; 1.4 the Bézier curve in the relevant diameter (d r) in each case merges tangentially continuously into the tooth profile of the main area at a main point (P 0, P 3). 1.1 the tooth flanks (2, 4) of which have a main area and a tooth root area; 1.2 as viewed in the transverse section or normal section through the axis of rotation of the gearwheel, the tooth root area extending from a root circle as far as a main circle (d H); characterized in that - in each case viewed in the transverse section or normal section - 1.3 the tooth flanks in the tooth root area are formed as a Bézier curve beginning from a relevant diameter (d r) in the direction of the root circle; 1.4 the Bézier curve in the relevant diameter (d r) in each case merges tangentially continuously into the tooth profile of the main area at a main point (P 0, P 3).
A method of a wireless LAN system, comprising: receiving, by a receiving device, a trigger frame triggering uplink multiple user transmission from a transmitting device; determining (S1230, S1240), by the receiving device, whether or not to transmit an uplink physical layer protocol data unit, PPDU, in response to the trigger frame based on a network allocation vector, NAV, of the receiving device, wherein, in case the NAV is configured by an intra basic service set, BSS, frame, whether or not to transmit the uplink PPDU is determined without considering the NAV; and in case the uplink PPDU is determined to be transmitted, transmitting, by the receiving device, the uplink PPDU to the transmitting device. receiving, by a receiving device, a trigger frame triggering uplink multiple user transmission from a transmitting device; determining (S1230, S1240), by the receiving device, whether or not to transmit an uplink physical layer protocol data unit, PPDU, in response to the trigger frame based on a network allocation vector, NAV, of the receiving device, wherein, in case the NAV is configured by an intra basic service set, BSS, frame, whether or not to transmit the uplink PPDU is determined without considering the NAV; and in case the uplink PPDU is determined to be transmitted, transmitting, by the receiving device, the uplink PPDU to the transmitting device.
A silicone compound of the general formula: where each R1 is independently a straight or branched alkyl, cycloalkyl, polycycloalkyl, heterocycloalkyl, alkaryl, alkoxy, aryl, aralkyl, alkenyl, alkynyl or fluorocarbon group containing 1 - 50 carbon atoms; R2 is R1 or -H, -OH or an organic moiety containing carbon, nitrogen, phosphorous, sulphur, oxygen or silicon atoms; "Vis" is a UV-visible absorbing moiety selected from the hydroxyanthraquinone group which is capable of covalently linking to a polymer chain; R3 is R1 or optionally an organic moiety (or spacer) containing carbon, nitrogen, phosphorous, sulphur, oxygen or silicon atoms capable of linking to another polymer; units A and F are the terminal moieties; blocks B, C, D and E are non-terminal moieties independently positioned between A and F in any order; a and c are each independently integers 1-10 000; and b and d are each independently an integer 0-10 000. where each R1 is independently a straight or branched alkyl, cycloalkyl, polycycloalkyl, heterocycloalkyl, alkaryl, alkoxy, aryl, aralkyl, alkenyl, alkynyl or fluorocarbon group containing 1 - 50 carbon atoms; R2 is R1 or -H, -OH or an organic moiety containing carbon, nitrogen, phosphorous, sulphur, oxygen or silicon atoms; "Vis" is a UV-visible absorbing moiety selected from the hydroxyanthraquinone group which is capable of covalently linking to a polymer chain; R3 is R1 or optionally an organic moiety (or spacer) containing carbon, nitrogen, phosphorous, sulphur, oxygen or silicon atoms capable of linking to another polymer; units A and F are the terminal moieties; blocks B, C, D and E are non-terminal moieties independently positioned between A and F in any order; a and c are each independently integers 1-10 000; and b and d are each independently an integer 0-10 000.
Method for determining a predisposition of an organism for the development of Crohn's Disease, the method comprising determining, in a biological specimen of the organism, the presence of at least one single nucleotide polymorphism, characterized in that the at least one SNP is determined in at least one gene coding for a protein associated with the Wnt signaling pathway in Paneth cells, wherein the at least one gene is TCF4 or LRP6 and wherein the at least one SNP is selected from any of the following: rs3814570, rs10885394, rs10885395 (TCF 4) and rs2302685. rs3814570, rs10885394, rs10885395 (TCF 4) and rs2302685.
An interlayer film for laminated glass comprising at least two resin layers laminated together, the interlayer film having a large number of minute recesses having a groove shape with a continuous bottom and regularly arranged side by side and a large number of minute projections on at least one surface, the surface roughness (Rz) of which, measured by a method in conformity with JIS-B-0601, is between 5 and 90 μm, the at least two resin layers including a first surface layer and a second surface layer and each containing a thermoplastic resin and a plasticizer, wherein, provided that the interlayer film is allowed to stand at 23°C and a humidity of 30%RH for three hours, and cut with a microtome at 23°C and a humidity of 30%RH in the horizontal direction of the interlayer film at a portion of 80 to 90 μm distant on the first surface layer side from the interface between the first surface layer and a resin layer contacting the interior side of the first surface layer and then at a portion of 50 μm distant from the cut face on the second surface layer side to prepare a resin film 1 having a thickness of 50 μm, the resin film 1 after standing at a temperature of 23°C and a humidity of 30%RH for three hours has a surface roughness (Rz) measured by a method in conformity with JIS B-0601 of less than 2.5 μm. the interlayer film having a large number of minute recesses having a groove shape with a continuous bottom and regularly arranged side by side and a large number of minute projections on at least one surface, the surface roughness (Rz) of which, measured by a method in conformity with JIS-B-0601, is between 5 and 90 μm, the at least two resin layers including a first surface layer and a second surface layer and each containing a thermoplastic resin and a plasticizer, wherein, provided that the interlayer film is allowed to stand at 23°C and a humidity of 30%RH for three hours, and cut with a microtome at 23°C and a humidity of 30%RH in the horizontal direction of the interlayer film at a portion of 80 to 90 μm distant on the first surface layer side from the interface between the first surface layer and a resin layer contacting the interior side of the first surface layer and then at a portion of 50 μm distant from the cut face on the second surface layer side to prepare a resin film 1 having a thickness of 50 μm, the resin film 1 after standing at a temperature of 23°C and a humidity of 30%RH for three hours has a surface roughness (Rz) measured by a method in conformity with JIS B-0601 of less than 2.5 μm.
A rapid heating device for pyrolysis of organic solid waste, includes an infrared heater, a heating furnace, a pyrolysis furnace and an automatic control unit; the pyrolysis furnace is embedded in the heating furnace, the infrared heater is uniformly arranged on the outer side wall of the heating furnace, the outer wall of the pyrolysis furnace is uniformly coated with infrared absorbing paint for absorbing infrared wavelengths of heat radiation from the infrared heater, wherein under the action of the infrared absorbing paint, rapid heating of the pyrolysis furnace is realized, and the inner wall of the pyrolysis furnace is covered with an insulating layer, wherein the automatic control unit is configured to control the heating rate of the pyrolysis furnace according to pyrolysis temperature, wherein when the pyrolysis temperature in the pyrolysis furnace is lower than a first preset temperature, the automatic control unit turns on the infrared heater to realize the rapid heating of the pyrolysis furnace, and when the pyrolysis temperature is higher than a second preset temperature, the automatic control unit turns off the infrared heater to maintain the pyrolysis temperature in the pyrolysis furnace by relying on the insulating layer, wherein the heating rate of the rapid heating device is in the range of 75~125°C/s, preferably 90~110°C/s, most preferably 100°C/s.