mhurhangee/ep-ind-claims huggingface dataset:
A temperature control device for controlling temperatures at a plurality of sites of a medium, comprising: a plurality of active thermal sites disposed at respective locations on a substrate, each active thermal site comprising a heating element configured to apply a variable amount of heat to a corresponding site of said medium and a thermal insulation layer disposed between the heating element and the substrate; and one or more passive thermal regions disposed between the plurality of active thermal sites on the substrate, each passive thermal region comprising a thermal conduction layer configured to conduct heat from a corresponding portion of the medium to the substrate; wherein the thermal conduction layer of said one or more passive thermal regions has a lower thermal resistance in a direction perpendicular to a plane of the substrate than the thermal insulation layer of said plurality of active thermal sites; characterised in that the thermal insulation layer of a given active thermal site comprises: one or more pillars of a first thermal insulation material extending substantially perpendicular to the plane of the substrate in the area of the active thermal site between the heating element and the substrate; and one or more voids disposed between or around the pillars. a plurality of active thermal sites disposed at respective locations on a substrate, each active thermal site comprising a heating element configured to apply a variable amount of heat to a corresponding site of said medium and a thermal insulation layer disposed between the heating element and the substrate; and one or more passive thermal regions disposed between the plurality of active thermal sites on the substrate, each passive thermal region comprising a thermal conduction layer configured to conduct heat from a corresponding portion of the medium to the substrate; wherein the thermal conduction layer of said one or more passive thermal regions has a lower thermal resistance in a direction perpendicular to a plane of the substrate than the thermal insulation layer of said plurality of active thermal sites; characterised in that the thermal insulation layer of a given active thermal site comprises: one or more pillars of a first thermal insulation material extending substantially perpendicular to the plane of the substrate in the area of the active thermal site between the heating element and the substrate; and one or more voids disposed between or around the pillars. one or more pillars of a first thermal insulation material extending substantially perpendicular to the plane of the substrate in the area of the active thermal site between the heating element and the substrate; and one or more voids disposed between or around the pillars.
Method for authorizing access to a motor vehicle by means of a mobile electronic identification transmitter, which motor vehicle can be unlocked by means of this identification transmitter, wherein the identification transmitter can communicate with the motor vehicle for data transmission, both via a first wireless communication connection operating according to the UWB standard and via a second wireless communication connection operating according to the BLE standard, wherein a maximum transmission range of the first communication connection is less than a maximum transmission range of the second communication connection, wherein the method comprises the following measures: a) monitoring a decrease in the signal strength of the second communication connection while the identification transmitter is moved away from the motor vehicle, such that the distance between the motor vehicle and the identification transmitter increases, b) storing the current signal strength of the second communication connection as a reference value as soon as the first communication connection between the motor vehicle and the identification transmitter is deactivated/interrupted, c) reactivating the first communication connection when the identification transmitter is moved back toward the motor vehicle, as soon as the signal strength of the second communication connection exceeds the stored reference value due to the decreasing distance between the motor vehicle and the identification transmitter. a) monitoring a decrease in the signal strength of the second communication connection while the identification transmitter is moved away from the motor vehicle, such that the distance between the motor vehicle and the identification transmitter increases, b) storing the current signal strength of the second communication connection as a reference value as soon as the first communication connection between the motor vehicle and the identification transmitter is deactivated/interrupted, c) reactivating the first communication connection when the identification transmitter is moved back toward the motor vehicle, as soon as the signal strength of the second communication connection exceeds the stored reference value due to the decreasing distance between the motor vehicle and the identification transmitter.
A method for fixing a coating on a carrier band fitted with chip modules, wherein the coating and the carrier band are joined and arranged between a first tool and a second tool and wherein the coating and the carrier band are pressed against each other with the two tools (1, 2) and the second tool adapts to the topography of the surface adjacent to the second tool during the pressing process, characterized in that the carrier band and/or the coating are heated during the pressing process.
A resin composition comprising a cyanate ester compound, an epoxy resin, a first inorganic filler, a second inorganic filler, and a molybdenum compound, wherein an average particle diameter ratio of the first inorganic filler to the second inorganic filler is in a range of 1:0.02 to 1:0.2, and wherein the second inorganic filler is at least one selected from the group consisting of alumina, magnesium oxide, boron nitride, and aluminum nitride.
Method for learning a particular position (FC1, PI, FC2) of an electric actuator intended to drive a moving solar protection, privacy, closure or screen element, said method comprising the following steps: a. displacement of the actuator in a first direction, the displacement being controlled by a command of a first type, then b. displacement of the actuator in a second direction, the displacement being controlled by a command of the first type when the actuator is in a first position, said method being characterized in that it comprises a step: c. of interpretation of the succession of the steps a and b as a command to record the first position of the actuator as the particular position and of implementation of this record, and in that a displacement of the actuator in the second direction can be controlled by a command of a second type between the steps a and b. a. displacement of the actuator in a first direction, the displacement being controlled by a command of a first type, then b. displacement of the actuator in a second direction, the displacement being controlled by a command of the first type when the actuator is in a first position, said method being characterized in that it comprises a step: c. of interpretation of the succession of the steps a and b as a command to record the first position of the actuator as the particular position and of implementation of this record, and in that a displacement of the actuator in the second direction can be controlled by a command of a second type between the steps a and b. c. of interpretation of the succession of the steps a and b as a command to record the first position of the actuator as the particular position and of implementation of this record, and in that a displacement of the actuator in the second direction can be controlled by a command of a second type between the steps a and b.
A trailer/semi-trailer vehicle braking system comprising a brake actuator which is operable to adopt a brake apply position in which the actuator may apply a braking force to a vehicle wheel and a brake release position in which the actuator may release any braking force applied to a vehicle wheel, supply of pressurised fluid to the actuator causing the actuator to move to the brake apply position and release of pressurised fluid from the actuator causing the actuator to move to the brake release position, a braking control valve assembly having a delivery port which is connected to the actuator by means of which pressurised fluid may be supplied to the actuator, a supply line which is connected to a source of pressurised fluid, and a braking control line which is adapted in use to be connected to a source of a fluid pressure braking demand signal, the system further including an emergency apply valve having a control port which is connected to the supply line by means of a further control line and which is movable in response to fluid pressure at the control port between a first position in which the braking control line is connected to a control port of the braking control valve assembly, and a second position in which the supply line is connected to the control port of the braking control valve assembly, wherein the braking system is also provided with an electrically operable brake apply valve in the further control line, the brake apply valve being movable between a first position in which fluid flow along further control line is permitted and a second position in which fluid flow along the further control line is substantially prevented and the control port of the emergency apply valve is connected to a low pressure region.
A composition for forming a release coating, said composition comprising: an organopolysiloxane comprising the reaction product of: (i) a silicone resin having the formula (R 1 y R 2 3-y SiO 1/2) x (SiO 4/2)1.0(ZO 1/2) w, wherein each R 1 is an independently selected hydrocarbyl group having from 1 to 32 carbon atoms; each R 2 is independently selected from R 1, an alkoxy group, and a hydroxyl group; Z is independently H or an alkyl group; y is an integer from 1 to 3 and is independently selected in each siloxy unit indicated by subscript x; subscript x is from 0.05 to 0.85; and subscript w is from 0 to 3; and (ii) a cyclic siloxane having the formula (R 1 2 SiO 2/2) n, where R 1 is defined above and n is an integer from 3 to 15; in the presence of a polymerization catalyst; and an organopolysiloxane including an average of at least two silicon-bonded ethylenically unsaturated groups per molecule. an organopolysiloxane comprising the reaction product of: (i) a silicone resin having the formula (R 1 y R 2 3-y SiO 1/2) x (SiO 4/2)1.0(ZO 1/2) w, wherein each R 1 is an independently selected hydrocarbyl group having from 1 to 32 carbon atoms; each R 2 is independently selected from R 1, an alkoxy group, and a hydroxyl group; Z is independently H or an alkyl group; y is an integer from 1 to 3 and is independently selected in each siloxy unit indicated by subscript x; subscript x is from 0.05 to 0.85; and subscript w is from 0 to 3; and (ii) a cyclic siloxane having the formula (R 1 2 SiO 2/2) n, where R 1 is defined above and n is an integer from 3 to 15; in the presence of a polymerization catalyst; and (i) a silicone resin having the formula (R 1 y R 2 3-y SiO 1/2) x (SiO 4/2)1.0(ZO 1/2) w, wherein each R 1 is an independently selected hydrocarbyl group having from 1 to 32 carbon atoms; each R 2 is independently selected from R 1, an alkoxy group, and a hydroxyl group; Z is independently H or an alkyl group; y is an integer from 1 to 3 and is independently selected in each siloxy unit indicated by subscript x; subscript x is from 0.05 to 0.85; and subscript w is from 0 to 3; and (ii) a cyclic siloxane having the formula (R 1 2 SiO 2/2) n, where R 1 is defined above and n is an integer from 3 to 15; an organopolysiloxane including an average of at least two silicon-bonded ethylenically unsaturated groups per molecule.
Device for closing a line system, having a shut-off unit arranged in a pipeline and having an actuator unit, wherein the actuator unit is arranged in a possible heat-influencing zone and is suitable, if it is exposed to a temperature which exceeds a defined range, to act on the shut-off unit in such a way that the shut-off unit closes the line system, and wherein the shut-off unit is arranged outside the heat-influencing zone, characterized in that the shut-off unit is arranged in a housing which is received in a spacer sleeve, wherein the spacer sleeve is inserted into the pipeline, and wherein the housing and the spacer sleeve are formed from a plastic.
A porous carbon sheet comprising at least carbon fibers and having a thickness of 30 to 95 μm, a resistance to gas permeation of 0.5 to 8.8 Pa, and a tensile strength of 5 to 50 N/cm, wherein the total area of through-pores accounts for 7% to 40% of the area of the carbon sheet, which accounts for 100%, the total area of through-pores measured by the method in the description.
A method for performing a vehicle to X, V2X, communication based on a short transmission time interval, S-TTI, shorter than a legacy transmission time interval, L-TTI, in a wireless communication system, the method performed by a V2X User Equipment, UE, and comprising: measuring (S1310, S1720) a channel busy ratio, CBR, or a channel occupancy ratio, CR, for the V2X communication based on the S-TTI; and performing (S1320, S1730) the V2X communication based on the S-TTI and either the measured CBR or the measured CR, wherein the S-TTI has a variable length, wherein the L-TTI corresponds to a plurality of the S-TTIs, wherein, when the V2X UE measures the CBR or the CR, the measurement is performed in a subchannel unit based on the S-TTI and a duration of the measurement is determined in S-TTI units, and wherein the V2X UE performs the V2X communication on a resource pool on which only V2X communications based on the S-TTI are existed. measuring (S1310, S1720) a channel busy ratio, CBR, or a channel occupancy ratio, CR, for the V2X communication based on the S-TTI; and performing (S1320, S1730) the V2X communication based on the S-TTI and either the measured CBR or the measured CR, wherein the S-TTI has a variable length, wherein the L-TTI corresponds to a plurality of the S-TTIs, wherein, when the V2X UE measures the CBR or the CR, the measurement is performed in a subchannel unit based on the S-TTI and a duration of the measurement is determined in S-TTI units, and wherein the V2X UE performs the V2X communication on a resource pool on which only V2X communications based on the S-TTI are existed.
A battery system for an electric vehicle, comprising a plurality of battery cells and a battery housing enclosing the battery cells, wherein the battery cells are at a surface thereof interconnected with one another via electrical connecting means contacting cell terminals of the battery cells, further comprising an isolation and fixation element of an electrically and thermally insulating material for isolating the electrical connecting means from the surroundings, the isolation and fixation element enclosing the electrical connecting means and at least one cell carrier element for supporting the battery cells at the battery housing as a structural member of the battery system, wherein the cell carrier element is a metallic cell holder strip serving as a fixation for the battery cells to the battery housing.
A memory device comprising: a sequencer; and a compute engine comprising a plurality of arithmetic logic unit blocks configured to operate in parallel, wherein the sequencer is configured to receive and execute a condition instruction to produce an enable signal to enable the use of conditional masking logic in all ALUs, the sequencer being configured to receive conditional instructions to be executed by each ALU according to the condition instruction in an IF....THEN....ELSE statement; the sequencer being further configured to send a further signal as to whether the condition has been met or not which masks the results of execution of the subsequent conditional instructions in each ALU, wherein the condition instruction is one of a stream of received instructions, wherein each of the instructions in the stream comprises a plurality of bit fields, wherein the plurality of bit fields: indicate an operation; indicate whether the instruction is a condition instruction or a conditional instruction; and identify an operand for the operation. a sequencer; and a compute engine comprising a plurality of arithmetic logic unit blocks configured to operate in parallel, wherein the sequencer is configured to receive and execute a condition instruction to produce an enable signal to enable the use of conditional masking logic in all ALUs, the sequencer being configured to receive conditional instructions to be executed by each ALU according to the condition instruction in an IF....THEN....ELSE statement; the sequencer being further configured to send a further signal as to whether the condition has been met or not which masks the results of execution of the subsequent conditional instructions in each ALU, wherein the condition instruction is one of a stream of received instructions, wherein each of the instructions in the stream comprises a plurality of bit fields, wherein the plurality of bit fields: indicate an operation; indicate whether the instruction is a condition instruction or a conditional instruction; and identify an operand for the operation. indicate an operation; indicate whether the instruction is a condition instruction or a conditional instruction; and identify an operand for the operation.
An apparatus for mixing a liquid comprising: a vessel for containing a liquid, the vessel having an upper end, a lower end and a substantially cylindrical containing wall extended between the upper and lower ends, the vessel including a baffle; a single axial impeller for rotating about a substantially vertical axis, said axial impeller configured to be submerged in said liquid to a position that is located approximately one quarter to one half of the distance from said upper end to said lower end of the vessel, the baffle extending along the containing wall to approximately the axial impeller; and means for adjusting the rotational speed of the impeller; the axial impeller configured to produce an axial flow in the liquid with the axial impeller, said flow comprising (a) an inner flow along said vertical axis, moving from the lower end toward the upper end, (b) an outward flow from the axial impeller toward the containing wall, and (c) an outer flow along the containing wall, moving from the upper end toward the lower end. a vessel for containing a liquid, the vessel having an upper end, a lower end and a substantially cylindrical containing wall extended between the upper and lower ends, the vessel including a baffle; a single axial impeller for rotating about a substantially vertical axis, said axial impeller configured to be submerged in said liquid to a position that is located approximately one quarter to one half of the distance from said upper end to said lower end of the vessel, the baffle extending along the containing wall to approximately the axial impeller; and means for adjusting the rotational speed of the impeller; the axial impeller configured to produce an axial flow in the liquid with the axial impeller, said flow comprising (a) an inner flow along said vertical axis, moving from the lower end toward the upper end, (b) an outward flow from the axial impeller toward the containing wall, and (c) an outer flow along the containing wall, moving from the upper end toward the lower end.
A combination of a purified air discharge device and a surrounding wall, the purified air discharge device comprising a push hood comprising an air flow discharge surface discharging a uniform purified first air flow from a front side of the push hood, wherein the push hood is provided with a lateral air discharger for creating a purified second air flow, perpendicular to the first air flow, that collides against the surrounding wall that is formed as the push hood is installed and that is situated close along the circumferential direction of the air flow discharge surface of the push hood, wherein the purified second air flow discharged from the lateral air discharger collides against the surrounding wall to create a collided air flow, and the collided air flow is directed towards the front side and the rear side of the push hood for preventing ambient air at the rear side of the push hood from entering an area between the lateral air discharger and the surrounding wall. the push hood is provided with a lateral air discharger for creating a purified second air flow, perpendicular to the first air flow, that collides against the surrounding wall that is formed as the push hood is installed and that is situated close along the circumferential direction of the air flow discharge surface of the push hood, wherein the purified second air flow discharged from the lateral air discharger collides against the surrounding wall to create a collided air flow, and the collided air flow is directed towards the front side and the rear side of the push hood for preventing ambient air at the rear side of the push hood from entering an area between the lateral air discharger and the surrounding wall.
A user equipment (116, 118, 120, 122), comprising: a receiver configured to receive a physical multicast channel, PMCH, transmission through a plurality of spatial layers (212, 216); and processing circuitry configured to: configure PMCH parameters indicated by a network node; process the PMCH transmission, for the plurality of spatial layers (212, 216), using the configured PMCH parameters to obtain multicast channel transport blocks; and process enhanced multicast broadcast single frequency network, eMBSFN, reference signals supporting at least two antenna ports; characterized in that the processing circuitry is further configured to report a measured block error rate of the multicast channel transport blocks; wherein resource elements of the eMBSFN reference signals for each of the two antenna ports occupy a respective half of corresponding resource elements for a single antenna port transmission of multicast broadcast single frequency network, MBSFN, reference signals. a receiver configured to receive a physical multicast channel, PMCH, transmission through a plurality of spatial layers (212, 216); and processing circuitry configured to: configure PMCH parameters indicated by a network node; process the PMCH transmission, for the plurality of spatial layers (212, 216), using the configured PMCH parameters to obtain multicast channel transport blocks; and process enhanced multicast broadcast single frequency network, eMBSFN, reference signals supporting at least two antenna ports; configure PMCH parameters indicated by a network node; process the PMCH transmission, for the plurality of spatial layers (212, 216), using the configured PMCH parameters to obtain multicast channel transport blocks; and process enhanced multicast broadcast single frequency network, eMBSFN, reference signals supporting at least two antenna ports; characterized in that the processing circuitry is further configured to report a measured block error rate of the multicast channel transport blocks; wherein resource elements of the eMBSFN reference signals for each of the two antenna ports occupy a respective half of corresponding resource elements for a single antenna port transmission of multicast broadcast single frequency network, MBSFN, reference signals.