mhurhangee/ep-ind-claims huggingface dataset:
A foldable display stack for an electronic device comprising a covering structure comprising a first cover layer and a polarizing layer, a second cover layer, a displaying structure arranged between said covering structure and said second cover layer, a first adhesive layer attaching said covering structure to said displaying structure, a second adhesive layer attaching said displaying structure to said second cover layer, said displaying structure comprising a plurality of layers, said displaying structure comprising the neutral plane of said foldable display stack, said first cover layer being arranged at a first distance from said neutral plane, in a first direction perpendicular to said neutral plane, said second cover layer being arranged at a second distance from said neutral plane, in a second direction opposite to said first direction, said first distance and said second distance being equal such that said display stack is arranged to be foldable by an equal amount from an unfolded position, in said first direction to a first folded position and in said second direction to a second folded position, characterized in that said polarizing layer is arranged between said first cover layer and said first adhesive layer. a covering structure comprising a first cover layer and a polarizing layer, a second cover layer, a displaying structure arranged between said covering structure and said second cover layer, a first adhesive layer attaching said covering structure to said displaying structure, a second adhesive layer attaching said displaying structure to said second cover layer, said displaying structure comprising a plurality of layers, said displaying structure comprising the neutral plane of said foldable display stack, said first cover layer being arranged at a first distance from said neutral plane, in a first direction perpendicular to said neutral plane, said second cover layer being arranged at a second distance from said neutral plane, in a second direction opposite to said first direction, said first distance and said second distance being equal such that said display stack is arranged to be foldable by an equal amount from an unfolded position, in said first direction to a first folded position and in said second direction to a second folded position, characterized in that said polarizing layer is arranged between said first cover layer and said first adhesive layer.
Laser spark plug for an internal combustion engine, comprising a laser device for generating laser pulses, characterized in that the laser device comprises a plurality of surface emitting semiconductor lasers for generating the laser pulses and the laser device is integrated into the laser spark plug, and in that the laser device is hermetically encapsulated, and in that provision is made of a focusing optical unit arranged in the beam path and serving for coupling the laser radiation generated by the surface emitting semiconductor lasers into the combustion chamber of the internal combustion engine.
A laminated total heat exchange element that includes a plurality of laminated plates that are laminated, a first spacing member that is inserted between the laminated plates and forms a first flow path between the laminated plates, and a second spacing member that is inserted between the laminated plates and forms a second flow path between the laminated plates, and in which a layer in which the first flow path is formed and a layer in which the second flow path is formed are alternately provided, wherein the first flow path is formed to allow fluid to pass from one side to another side of the laminated total heat exchange element, the second flow path is formed to allow fluid to pass from the another side to the one side of the laminated total heat exchange element, a third flow path is formed, the third flow path communicating with the first flow path on the one side and extending substantially parallel to a lamination direction of the laminated plates, and a fourth flow path is formed, the fourth flow path communicating with the second flow path on the another side and extending substantially parallel to the lamination direction of the laminated plate, characterized in that a fifth flow path is formed, the fifth flow path communicating with the first flow path on the another side and extending substantially parallel to a direction in which fluid passes in the first flow path, a sixth flow path is formed, the sixth flow path communicating with the second flow path on the one side and extending substantially parallel to a direction in which fluid passes in the second flow path, a plurality of the third flow paths and a plurality of the sixth flow paths are formed on the one side of the laminated total heat exchange element such that the third flow path and the sixth flow path are alternately formed, in a layer in which the first flow path is formed, the third flow path includes a rectangular portion having a rectangular shape when viewed from the lamination direction and an incremental portion in which a width of a flow path gradually increases toward the first flow path, in a layer in which the second flow path is formed, the third flow path includes the rectangular portion and a tapered portion in which a width of a flow path gradually decreases toward the second flow path, and in the laminated plate, a region overlapping the tapered portion (103c, 104c, 105b, 106b) when viewed from the lamination direction is cut out.
A disconnect mechanism to disconnect an electric machine from an ancillary component, comprising: a ramp shaft connected to a disconnect shaft of the electric machine, and connected to the ancillary component, such that when connected to the ancillary component the disconnect shaft transmits rotational energy between the electric motor and the ancillary component, the ramp shaft including a disconnect feature; and a plunger selectably engageable with the disconnect feature to disconnect the ramp shaft from the disconnect shaft; wherein the disconnect feature includes: a drop-in window for initial engagement with the plunger; and a ramp surface extending in a circumferential direction from the drop in window at an acute angle relative to the drop in window, such that engagement of the plunger with the ramp surface urges movement of the ramp shaft in an axial direction away from the disconnect shaft to disconnect the ramp shaft from the disconnect shaft; characterized in that: the drop-in window extends in the range of 135 degrees to 145 degrees circumferentially around the ramp shaft. a ramp shaft connected to a disconnect shaft of the electric machine, and connected to the ancillary component, such that when connected to the ancillary component the disconnect shaft transmits rotational energy between the electric motor and the ancillary component, the ramp shaft including a disconnect feature; and a plunger selectably engageable with the disconnect feature to disconnect the ramp shaft from the disconnect shaft; wherein the disconnect feature includes: a drop-in window for initial engagement with the plunger; and a ramp surface extending in a circumferential direction from the drop in window at an acute angle relative to the drop in window, such that engagement of the plunger with the ramp surface urges movement of the ramp shaft in an axial direction away from the disconnect shaft to disconnect the ramp shaft from the disconnect shaft; characterized in that: the drop-in window extends in the range of 135 degrees to 145 degrees circumferentially around the ramp shaft. a drop-in window for initial engagement with the plunger; and a ramp surface extending in a circumferential direction from the drop in window at an acute angle relative to the drop in window, such that engagement of the plunger with the ramp surface urges movement of the ramp shaft in an axial direction away from the disconnect shaft to disconnect the ramp shaft from the disconnect shaft; characterized in that: the drop-in window extends in the range of 135 degrees to 145 degrees circumferentially around the ramp shaft.
Spring package for a torsion damper of a clutch disc, comprising - a coil spring; - a support element on which a disc portion and a step portion are configured; - wherein a step for actuating the coil spring is configured on the step portion; and - wherein an actuating face of the coil spring is assigned to a bearing face of the step of the support element, characterized in that a first centring face which for centring the coil spring communicates with a second centring face of the coil spring is configured on the step of the step portion, wherein the first centring face is configured on a lateral end region of the bearing face. - a coil spring; - a support element on which a disc portion and a step portion are configured; - wherein a step for actuating the coil spring is configured on the step portion; and - wherein an actuating face of the coil spring is assigned to a bearing face of the step of the support element,
A microorganism belonging to the genus Aurantiochytrium having an 18S rRNA gene consisting of the base sequence represented by any of SEQ ID NOS: 1 to 5.
A polycarbonate-polydiorganosiloxane block copolymer, comprising: (a) at least one block derived from a compound of formula (IIIa): wherein: each R is independently a C 1 -C 13 monovalent organic group; and n is 2 to 200; and (b) at least one block comprising repeating units derived from one or more monomers of formula (iii) and a carbonate precursor: HO-A 1 -Y-A 2 -OH (iii) wherein: each of A 1 and A 2 comprises a monocyclic divalent arylene group; and Y is a bridging group comprising one or two member atoms. (a) at least one block derived from a compound of formula (IIIa): wherein: each R is independently a C 1 -C 13 monovalent organic group; and n is 2 to 200; and each R is independently a C 1 -C 13 monovalent organic group; and n is 2 to 200; and (b) at least one block comprising repeating units derived from one or more monomers of formula (iii) and a carbonate precursor: HO-A 1 -Y-A 2 -OH (iii) wherein: each of A 1 and A 2 comprises a monocyclic divalent arylene group; and Y is a bridging group comprising one or two member atoms. each of A 1 and A 2 comprises a monocyclic divalent arylene group; and Y is a bridging group comprising one or two member atoms.
A method of communication at a user terminal, comprising: receiving, via a broadcast transmission, a broadcast information block, BIB, message including a first BIB element and a second BIB element (BIBe), wherein the first BIB element indicates a periodicity of the second BIB element and the second BIB element includes satellite ephemeris information for a set of satellites; determining that the user terminal will not be able to receive further ephemeris information via broadcast messages before an expiration of a refresh period, and, in response: sending (1302, 1902), via a unicast transmission, a request via a satellite for satellite ephemeris information for each satellite of a plurality of satellites, wherein each satellite ephemeris information consists of a plurality of ephemeris elements; and receiving (1304, 1704, 1904), via a unicast transmission, a response to the request at the user terminal, wherein the response comprises the requested satellite ephemeris information. receiving, via a broadcast transmission, a broadcast information block, BIB, message including a first BIB element and a second BIB element (BIBe), wherein the first BIB element indicates a periodicity of the second BIB element and the second BIB element includes satellite ephemeris information for a set of satellites; determining that the user terminal will not be able to receive further ephemeris information via broadcast messages before an expiration of a refresh period, and, in response: sending (1302, 1902), via a unicast transmission, a request via a satellite for satellite ephemeris information for each satellite of a plurality of satellites, wherein each satellite ephemeris information consists of a plurality of ephemeris elements; and receiving (1304, 1704, 1904), via a unicast transmission, a response to the request at the user terminal, wherein the response comprises the requested satellite ephemeris information. sending (1302, 1902), via a unicast transmission, a request via a satellite for satellite ephemeris information for each satellite of a plurality of satellites, wherein each satellite ephemeris information consists of a plurality of ephemeris elements; and receiving (1304, 1704, 1904), via a unicast transmission, a response to the request at the user terminal, wherein the response comprises the requested satellite ephemeris information.
Battery-operated multifunction unit - having a battery connection (2.2), which is configured for connecting a battery, and the battery connected thereto, - having a capacitor, which is connected in parallel with the battery connection (2.2), - having a radio module (2.1) and - having a multifunction module (2.3) that • has at least one data collection and/or storage unit (2.4), and • is connected in parallel with the battery and the capacitor, wherein the capacitor - is used to supply current from the capacitor for the multifunction module (2.3) during periods of high current draw by the multifunction module (2.3), and - can be used to transfer current from the battery to the capacitor during periods of low current draw by the multifunction module (2.3), and wherein the battery is a lithium thionyl chloride battery, characterized in that - the capacitor is an electrochemical double layer capacitor, and - the radio module (2.1) is intended for packet data transmissions by means of mobile radio technologies. - having a battery connection (2.2), which is configured for connecting a battery, and the battery connected thereto, - having a capacitor, which is connected in parallel with the battery connection (2.2), - having a radio module (2.1) and - having a multifunction module (2.3) that • has at least one data collection and/or storage unit (2.4), and • is connected in parallel with the battery and the capacitor, wherein the capacitor • has at least one data collection and/or storage unit (2.4), and • is connected in parallel with the battery and the capacitor, - is used to supply current from the capacitor for the multifunction module (2.3) during periods of high current draw by the multifunction module (2.3), and - can be used to transfer current from the battery to the capacitor during periods of low current draw by the multifunction module (2.3), and wherein the battery is a lithium thionyl chloride battery, characterized in that - the capacitor is an electrochemical double layer capacitor, and - the radio module (2.1) is intended for packet data transmissions by means of mobile radio technologies.
A negative-working lithographic printing plate precursor comprising a substrate having thereon an imageable layer comprising: a free radically polymerizable component, an initiator composition capable of generating radicals sufficient to initiate polymerization of the free radically polymerizable component upon exposure to imaging radiation, a radiation absorbing compound, one or more polymeric binders, and at least 5 weight % of core-shell particles comprising a hydrophobic polymeric core and a hydrophilic polymeric shell that is covalently bound to the polymeric core; characterized in that: the hydrophilic polymeric shell comprises one or more zwitterionic functional groups. a free radically polymerizable component, an initiator composition capable of generating radicals sufficient to initiate polymerization of the free radically polymerizable component upon exposure to imaging radiation, a radiation absorbing compound, one or more polymeric binders, and at least 5 weight % of core-shell particles comprising a hydrophobic polymeric core and a hydrophilic polymeric shell that is covalently bound to the polymeric core; characterized in that: the hydrophilic polymeric shell comprises one or more zwitterionic functional groups.
Method for the preparation of a solution of human albumin characterised in that it comprises a stage of reducing the dissolved oxygen in said solution of albumin wherein the level of oxygen is reduced to a concentration equal to or less than 0.5 ppm.
A method of processing gameplay inputs during and after network disruptions, the method comprising: at a server system having one or more processors and memory storing one or more programs for execution by the one or more processors: determining, during a disruption in a network connection between the server system and a first client device, a simulated gameplay input for the first client device; updating a first game state based on the simulated gameplay input, resulting in a placeholder game state; receiving, upon resumption of the network connection, a recovered gameplay input made by a user of the first client device during the disruption; updating the first game state based on the recovered gameplay input, resulting in an intended game state (GS2a); comparing the placeholder game state to the intended game state (GS2a); updating the placeholder game state based on the comparison of the placeholder game state to the intended game state (GS2a), resulting in a subsequent game state; and transmitting a frame depicting the subsequent game state to an output device associated with the first client device. determining, during a disruption in a network connection between the server system and a first client device, a simulated gameplay input for the first client device; updating a first game state based on the simulated gameplay input, resulting in a placeholder game state; receiving, upon resumption of the network connection, a recovered gameplay input made by a user of the first client device during the disruption; updating the first game state based on the recovered gameplay input, resulting in an intended game state (GS2a); comparing the placeholder game state to the intended game state (GS2a); updating the placeholder game state based on the comparison of the placeholder game state to the intended game state (GS2a), resulting in a subsequent game state; and transmitting a frame depicting the subsequent game state to an output device associated with the first client device.
A chemical vapor infiltration and deposition (CVI/CVD) reactor assembly comprising: a CVI/CVD reactor comprising: a first inlet at a first end of the CVI/CVD reactor; a second inlet at a second end of the CVI/CVD reactor opposite the first end; a first outlet at the second end; a second outlet at the first end; and a chamber in fluid communication with the first and second inlets (14, 16) and first and second outlets (18, 20) and configured to hold a substrate; and a reactant gas feed source interchangeably and fluidly connected to the first and second inlets (14, 16) by first and second valved gas lines (54, 56), respectively; characterised by the chamber further comprising: a first completion bed at the first end configured to provide surface area for completing reaction of unreacted reactant gas; and a second completion bed at the second end configured to provide surface area for completing reaction of unreacted reactant gas. a CVI/CVD reactor comprising: a first inlet at a first end of the CVI/CVD reactor; a second inlet at a second end of the CVI/CVD reactor opposite the first end; a first outlet at the second end; a second outlet at the first end; and a chamber in fluid communication with the first and second inlets (14, 16) and first and second outlets (18, 20) and configured to hold a substrate; and a reactant gas feed source interchangeably and fluidly connected to the first and second inlets (14, 16) by first and second valved gas lines (54, 56), respectively; characterised by a first inlet at a first end of the CVI/CVD reactor; a second inlet at a second end of the CVI/CVD reactor opposite the first end; a first outlet at the second end; a second outlet at the first end; and a chamber in fluid communication with the first and second inlets (14, 16) and first and second outlets (18, 20) and configured to hold a substrate; and a reactant gas feed source interchangeably and fluidly connected to the first and second inlets (14, 16) by first and second valved gas lines (54, 56), respectively; characterised by the chamber further comprising: a first completion bed at the first end configured to provide surface area for completing reaction of unreacted reactant gas; and a second completion bed at the second end configured to provide surface area for completing reaction of unreacted reactant gas. a first completion bed at the first end configured to provide surface area for completing reaction of unreacted reactant gas; and a second completion bed at the second end configured to provide surface area for completing reaction of unreacted reactant gas.
Process for preparing a diesel fuel composition wherein the process comprises the steps of: (i) blending 2 mass% to 30 mass%, by mass of the diesel fuel composition, of Fischer-Tropsch derived kerosene, with 2 mass% to 20 mass%, by mass of the diesel fuel composition, of Fischer-Tropsch derived base oil to form a kerosene-based fuel blend, wherein the Fischer-Tropsch derived kerosene has a kinematic viscosity at 40°C of 1.5 mm 2 /s or less and a density of 810 kg/m 3 or less, wherein the Fischer-Tropsch derived kerosene consists of at least 95% w/w of paraffinic components, and wherein the Fischer-Tropsch derived kerosene comprises no more than 1% w/w of cycloparaffins and no more than 1% w/w of olefins, by weight of the Fischer-Tropsch derived kerosene, and wherein the Fischer-Tropsch derived base oil has a kinematic viscosity at 40°C of 7.5 mm 2 /s or greater and a density of 790 kg/m 3 or greater, wherein the Fischer-Tropsch derived base oil consists of at least 95% w/w of paraffinic components, and wherein the Fischer-Tropsch derived base oil comprises no more than 1% w/w of cycloparaffins and no more than 1% w/w of olefins, by weight of the Fischer-Tropsch derived base oil; and (ii) blending the kerosene-based fuel blend produced in step (i) with a diesel base fuel to produce a diesel fuel composition. (i) blending 2 mass% to 30 mass%, by mass of the diesel fuel composition, of Fischer-Tropsch derived kerosene, with 2 mass% to 20 mass%, by mass of the diesel fuel composition, of Fischer-Tropsch derived base oil to form a kerosene-based fuel blend, wherein the Fischer-Tropsch derived kerosene has a kinematic viscosity at 40°C of 1.5 mm 2 /s or less and a density of 810 kg/m 3 or less, wherein the Fischer-Tropsch derived kerosene consists of at least 95% w/w of paraffinic components, and wherein the Fischer-Tropsch derived kerosene comprises no more than 1% w/w of cycloparaffins and no more than 1% w/w of olefins, by weight of the Fischer-Tropsch derived kerosene, and wherein the Fischer-Tropsch derived base oil has a kinematic viscosity at 40°C of 7.5 mm 2 /s or greater and a density of 790 kg/m 3 or greater, wherein the Fischer-Tropsch derived base oil consists of at least 95% w/w of paraffinic components, and wherein the Fischer-Tropsch derived base oil comprises no more than 1% w/w of cycloparaffins and no more than 1% w/w of olefins, by weight of the Fischer-Tropsch derived base oil; and (ii) blending the kerosene-based fuel blend produced in step (i) with a diesel base fuel to produce a diesel fuel composition.