mhurhangee/patent-ind-claim-en huggingface dataset:
A force sensor system, comprising: a substrate including a first side and a second side ; a cover coupled to the first side of the substrate, the cover having an inner surface , an outer surface , an opening extending between the inner and outer surfaces, and a wall structure extending from the inner surface that defines a sensor cavity and a processor cavity between the inner surface and the substrate; a sensor mounted on the first side of the substrate and disposed within the sensor cavity, the sensor configured to generate a sensor signal representative of a force supplied to the sensor; a processor mounted on the first side of the substrate and disposed within the processor cavity, the processor coupled to receive the sensor signal and configured, upon receipt thereof, to supply a force sensor output signal; a load bearing element coupled to the second side of the substrate and arranged to transfer load from a force applied to the sensor mounted on the first side of the substrate, through the substrate, to a bottom surface of the load bearing element; and a spherical force transfer element disposed partially within sensor cavity and movable relative to the cover, the spherical force transfer element extending from the opening in the cover and engaging the sensor, the spherical force transfer element adapted to receive an input force and configured, upon receipt of the input force, to transfer the input force to the sensor. a substrate including a first side and a second side ; a cover coupled to the first side of the substrate, the cover having an inner surface , an outer surface , an opening extending between the inner and outer surfaces, and a wall structure extending from the inner surface that defines a sensor cavity and a processor cavity between the inner surface and the substrate; a sensor mounted on the first side of the substrate and disposed within the sensor cavity, the sensor configured to generate a sensor signal representative of a force supplied to the sensor; a processor mounted on the first side of the substrate and disposed within the processor cavity, the processor coupled to receive the sensor signal and configured, upon receipt thereof, to supply a force sensor output signal; a load bearing element coupled to the second side of the substrate and arranged to transfer load from a force applied to the sensor mounted on the first side of the substrate, through the substrate, to a bottom surface of the load bearing element; and a spherical force transfer element disposed partially within sensor cavity and movable relative to the cover, the spherical force transfer element extending from the opening in the cover and engaging the sensor, the spherical force transfer element adapted to receive an input force and configured, upon receipt of the input force, to transfer the input force to the sensor.
A steering wheel cover with a multilayer structure which in the unwound state has a circumferential length and a cross-sectional width and whose layers cover each other at least partially in projection, with a lower electrically conductive shielding layer and with an upper cover layer , between which are arranged, starting from the shielding layer , an insulation layer and at least one electrically conductive sensor layer , wherein at least one of the shielding layer and the sensor layer comprises a conductor structure with conductors extending in circumferential length and cross-sectional width , and wherein the shielding layer and the sensor layer are electrically connected to connecting conductors of a connecting cable, characterized in that at least one of the shielding layer and the sensor layer has a knitted structure with non-conductive, stitchforming warp threads and conductive weft threads and that the electrical connection of the respective connecting conductors of the connecting cable with at least one of the shielding layer and the sensor layer is formed by a respective metal foil .
A convertible vest and jacket system comprising: in a first vest state: a torso portion having a front aspect and a back aspect , the torso portion defining a neck opening , a waist opening , a first sleeve opening , and a second sleeve opening ; a pocket located on an inner-facing surface of the back aspect of the torso portion , the pocket extending across a vertical midline of the back aspect of the torso portion ; a first sleeve having a proximal end and a distal end , a first portion of the proximal end of the first sleeve permanently affixed to the torso portion adjacent to the first sleeve opening , and a second portion of the proximal end of the first sleeve unaffixed from the first sleeve opening ; and a second sleeve having a proximal end and a distal end , a first portion of the proximal end of the second sleeve permanently affixed to the torso portion adjacent to the second sleeve opening and a second portion of the proximal end of the second sleeve unaffixed from the second sleeve opening , characterized by both of the first sleeve and the second sleeve being stowed within the pocket; wherein the pocket comprises a first pocket opening located on a first lateral side of the pocket , and wherein the pocket comprises a second pocket opening located on a second lateral side of the pocket .
Device for dismountably connecting two intersecting formwork beams (17, 18; 24, 26; 117, 118), comprising a resilient single-component structure having two intermediate arms (1, 2; 27, 28; 101, 102) joining together respective regions for pressing the two beams (17, 18; 24, 26; 117, 118) together at support regions, and which can slide longitudinally over one of the beams until it reaches the other beam and, by means of pressure or impact on the device, elastic deformation of the device is produced so as to clamp or hold both beams and press them together, wherein the single-component structure is composed of a rod made of resilient material that has two intermediate arms that extend at their upper ends into respective substantially straight extensions for pressing on support regions of one of the beams to be connected, while at the other end they extend into a U- or V- shaped bridge for pressing on the support region of the opposite beam to be joined, wherein the two intermediate arms (1, 2; 27, 28; 101, 102) both have double elbows in their upper portion, being joined to said substantially straight extensions (6, 7; 36, 37; 136, 137), wherein each of said two substantially straight extensions ends, at the side opposite the U- or V-shaped, in an end portion , characterised in that said end portions are formed by straight aligned portions being mutually coaxial to allow the device to tilt about the axis of coaxially of the end portions.
A thermoplastic polyurethane (TPU) consisting of the reaction product of an aromatic diisocyanate, an alkylene substituted spirocyclic compound comprising an alkylene substituted saturated spirocyclic-diol, an alkylene substituted saturated spirocyclic-diamine, or a combination thereof, and a polycarbonate polyol, wherein the alkylene substituted spirocyclic compound contains two rings containing from 5 to 7 atoms per ring, and where each ring is substituted with an alkylene group that contains from 1 to 4 carbon atoms, terminated by a hydroxy group or an amine where the amine is a primary or secondary amine.
A wholly aromatic polyester, which exhibits optical anisotropy when it is molten, which has a crystallization heat quantity of 2.3 J/g or less, and which has a melting point of 300 to 390°C both parameters measured as outlined in the description, the polymer comprising, as essential constituents, the constitutional units represented by the following formulae (I), (II), (III), (IV) and (V), containing, relative to a total of all constitutional units, the constitutional unit (I) in an amount of 35 to 75 mol%, the constitutional unit (II) in an amount of 2 to 8 mol%, the constitutional unit (III) in an amount of 4.5 to 30.5 mol%, the constitutional unit (IV) in an amount of 3 to 7 mol%, the constitutional unit (V) in an amount of 12.5 to 32.5 mol%, the total of constitutional units (II) and (IV) being in an amount of 4 to 10 mol%; (V) -O-Ar 4 -O- wherein Ar 1 is Ar 2 is Ar 3 is and Ar 4 is
Method for HVAC system control of a thermostat , the method comprising: accessing a first comfort map; receiving comfort event data at a comfort event time point and a comfort event temperature point, wherein the comfort event data comprises a temperature increase request data or a temperature decrease request data; determining a temperature range based on the comfort event temperature point, a temperature offset and the temperature increase request data or the temperature decrease request data, wherein the temperature range having an absolute minimum value of the system if the comfort event data comprise the temperature increase request data and an absolute maximum value of the system if the comfort event data comprises the temperature decrease request data; determining a time range based on the comfort event time point, a first time offset and a second time offset; determining a two-dimensional comfort event window based on the temperature range and the time range; updating the first comfort map using the comfort event window by overlaying the comfort event window onto the first comfort map; and controlling a temperature trajectory based on the updated comfort map. accessing a first comfort map; receiving comfort event data at a comfort event time point and a comfort event temperature point, wherein the comfort event data comprises a temperature increase request data or a temperature decrease request data; determining a temperature range based on the comfort event temperature point, a temperature offset and the temperature increase request data or the temperature decrease request data, wherein the temperature range having an absolute minimum value of the system if the comfort event data comprise the temperature increase request data and an absolute maximum value of the system if the comfort event data comprises the temperature decrease request data; determining a time range based on the comfort event time point, a first time offset and a second time offset; determining a two-dimensional comfort event window based on the temperature range and the time range; updating the first comfort map using the comfort event window by overlaying the comfort event window onto the first comfort map; and controlling a temperature trajectory based on the updated comfort map.
A breathing air system, comprising: a compressor assembly generating intake air; a first power subsystem supplying power to the compressor assembly ; a filtration assembly in communication with the compressor assembly and filtering the intake air; a second power subsystem supplying power to the filtration assembly ; one or more collection pots (80A-B) in communication with the filtration assembly and collecting the intake air; one or more distribution manifolds (90A-B) in communication with the one or more collection pots (80A-B) and distributing the intake air to one or more breathing hoses ; one or more wireless sensors (220, 232, 240, 250A-B) in communication with the intake air from the filtration assembly and continuously monitoring the intake air for one or more parameters; a monitoring unit in wireless communication with the one or more wireless sensors (220, 232, 240, 250A-B) and obtaining readings of the one or more parameters monitored by the one or more wireless sensors (220, 232, 240, 250A-B); and a third power subsystem supplying power to the monitoring unit ; wherein each of the power subsystems is independently operable. a compressor assembly generating intake air; a first power subsystem supplying power to the compressor assembly ; a filtration assembly in communication with the compressor assembly and filtering the intake air; a second power subsystem supplying power to the filtration assembly ; one or more collection pots (80A-B) in communication with the filtration assembly and collecting the intake air; one or more distribution manifolds (90A-B) in communication with the one or more collection pots (80A-B) and distributing the intake air to one or more breathing hoses ; one or more wireless sensors (220, 232, 240, 250A-B) in communication with the intake air from the filtration assembly and continuously monitoring the intake air for one or more parameters; a monitoring unit in wireless communication with the one or more wireless sensors (220, 232, 240, 250A-B) and obtaining readings of the one or more parameters monitored by the one or more wireless sensors (220, 232, 240, 250A-B); and a third power subsystem supplying power to the monitoring unit ; wherein each of the power subsystems is independently operable.
A heat recovery engine including: a compressor to increase pressure, density and temperature of a gas stream flowing in a closed loop within the engine , with the gas stream at base system pressure at a compressor inlet; an expander to reduce the pressure of said gas stream when compressed to just above said base system pressure, at the same time receiving power from the gas stream; a recuperator to transfer thermal energy from downstream gas stream of said expander to downstream gas stream of said compressor , thereby increasing the temperature of said downstream gas stream of said compressor at approximately constant pressure; a heater to provide further heat energy to said gas stream at approximately constant pressure after exit from said recuperator ; a heat source and a heating device for transferring heat energy from said heat source to said heater ; a cooler to cool said gas stream prior to compression in said compressor ; a heat energy transfer device to transfer heat from said cooler to the environment; an operability device to ensure the operation of said compressor and said expander , and to take off surplus power either mechanically or electrically; and a plurality of insulated ducts to transfer said gas stream between said compressor , recuperator , heater , expander and cooler , characterised in that the compressor and expander are positive displacement devices, and the heat recovery engine does not include turbomachinery. a compressor to increase pressure, density and temperature of a gas stream flowing in a closed loop within the engine , with the gas stream at base system pressure at a compressor inlet; an expander to reduce the pressure of said gas stream when compressed to just above said base system pressure, at the same time receiving power from the gas stream; a recuperator to transfer thermal energy from downstream gas stream of said expander to downstream gas stream of said compressor , thereby increasing the temperature of said downstream gas stream of said compressor at approximately constant pressure; a heater to provide further heat energy to said gas stream at approximately constant pressure after exit from said recuperator ; a heat source and a heating device for transferring heat energy from said heat source to said heater ; a cooler to cool said gas stream prior to compression in said compressor ; a heat energy transfer device to transfer heat from said cooler to the environment; an operability device to ensure the operation of said compressor and said expander , and to take off surplus power either mechanically or electrically; and a plurality of insulated ducts to transfer said gas stream between said compressor , recuperator , heater , expander and cooler , characterised in that the compressor and expander are positive displacement devices, and the heat recovery engine does not include turbomachinery.
A blade comprising a blade body made of organic matrix composite material reinforced by fibers and a leading edge shield made of a material that withstands point impacts better than the composite material of the blade body, the blade including a blade tip , the leading edge shield being assembled on the blade body and including a pressure-side fin and a suction-side fin , the blade being characterized in that the pressure-side fin includes a pressure-side tab and in that the suction-side fin includes a suction-side tab , the pressure-side tab and the suction-side tab being folded one on the other and being secured to each other so as to form a partial covering of the blade tip , the blade being characterized in that the pressure-side fin and the suction-side fin each includes a free edge , one of the pressure-side and suction-side fins being longer than the other, and the tab of the longer fin including a cutout starting from the free edge of the longer fin and going towards the free edge of the shorter fin.
A screen unlocking method, comprising: obtaining a sliding path of a user on a screen, if a preset operation of the user on the screen is detected; determining a similarity between the sliding path and a preset unlocking pattern; and unlocking the screen and lighting the whole screen, if the similarity between the sliding path and the preset unlocking pattern is greater than or equal to a preset threshold; wherein the method further comprises: after the preset operation of the user on the screen is detected and before determining the similarity between the sliding path and a preset unlocking pattern, lighting the sliding path of the user on the screen simultaneously with the sliding of the user without lighting the whole screen if the sliding path of the user on the screen is detected, wherein determining a similarity between the sliding path and a preset unlocking pattern comprises: transforming a pattern corresponding to the sliding path to have a same size as the preset unlocking pattern; calculating a histogram of a transformed pattern corresponding to the sliding path and calculating a histogram of the preset unlocking pattern; and determining the similarity between the sliding path and the preset unlocking pattern according to a similarity between the two histograms. obtaining a sliding path of a user on a screen, if a preset operation of the user on the screen is detected; determining a similarity between the sliding path and a preset unlocking pattern; and unlocking the screen and lighting the whole screen, if the similarity between the sliding path and the preset unlocking pattern is greater than or equal to a preset threshold; wherein the method further comprises: after the preset operation of the user on the screen is detected and before determining the similarity between the sliding path and a preset unlocking pattern, lighting the sliding path of the user on the screen simultaneously with the sliding of the user without lighting the whole screen if the sliding path of the user on the screen is detected, wherein determining a similarity between the sliding path and a preset unlocking pattern comprises: transforming a pattern corresponding to the sliding path to have a same size as the preset unlocking pattern; calculating a histogram of a transformed pattern corresponding to the sliding path and calculating a histogram of the preset unlocking pattern; and determining the similarity between the sliding path and the preset unlocking pattern according to a similarity between the two histograms. transforming a pattern corresponding to the sliding path to have a same size as the preset unlocking pattern; calculating a histogram of a transformed pattern corresponding to the sliding path and calculating a histogram of the preset unlocking pattern; and determining the similarity between the sliding path and the preset unlocking pattern according to a similarity between the two histograms.
An apparatus, for a first radio device (UE1), comprising: at least one processor and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to perform: transmitting data to at least one second radio device (UE2), wherein transmission of the data is controlled by an automatic retransmission procedure, receiving a response from the at least one second radio device (UE2), the response indicating the result of an attempt to decode the data and including range estimation information of the second radio device (UE2), the range estimation information comprising a range estimation indicating an estimated range between the first radio device (UE1) and the second radio device (UE2) and/or an estimated precision of the range estimation, wherein the response is an acknowledgement in case of a successful attempt to decode the data, and the response is a non-acknowledgement in case of a non-successful attempt to decode the received data, and deciding on retransmitting the data based on the response and on the range estimation information of the second radio device (UE2) by deciding to retransmit the data in case the estimated precision of the range estimation is higher than a certain precision threshold, and deciding to not retransmit the data in case the estimated precision of the range estimation is lower than the precision threshold. transmitting data to at least one second radio device (UE2), wherein transmission of the data is controlled by an automatic retransmission procedure, receiving a response from the at least one second radio device (UE2), the response indicating the result of an attempt to decode the data and including range estimation information of the second radio device (UE2), the range estimation information comprising a range estimation indicating an estimated range between the first radio device (UE1) and the second radio device (UE2) and/or an estimated precision of the range estimation, wherein the response is an acknowledgement in case of a successful attempt to decode the data, and the response is a non-acknowledgement in case of a non-successful attempt to decode the received data, and deciding on retransmitting the data based on the response and on the range estimation information of the second radio device (UE2) by deciding to retransmit the data in case the estimated precision of the range estimation is higher than a certain precision threshold, and deciding to not retransmit the data in case the estimated precision of the range estimation is lower than the precision threshold.