mhurhangee/ep-ind-claims huggingface dataset:
An electrochromic device comprising a first substrate, a first electrically conductive layer, a first electrode layer, a second electrically conductive layer and a second substrate, the first electrically conductive layer being between the first substrate and the first electrode layer, the first electrode layer comprising an electrochromic material on a surface of the first electrically conductive layer, wherein the first and second electrically conductive layers each have a sheet resistance, R s, to the flow of electrical current through the first and second electrically conductive layers that varies as a function of position in the first and second electrically conductive layers, respectively, wherein the ratio of the value of maximum sheet resistance, R max, to the value of minimum sheet resistance, R min, in the first electrically conductive layer is at least about 10 and the ratio of the value of maximum sheet resistance, R max, to the value of minimum sheet resistance, R min, in the second electrically conductive layer is at least about 10, the first substrate and the first electrically conductive layer being transmissive to electromagnetic radiation having a wavelength in the range of infrared to ultraviolet, wherein (i) a contour map of the sheet resistance, R s, as a function of position within the first electrically conductive layer contains a first set of isoresistance lines and a first set of resistance gradient lines normal to the isoresistance lines, and the resistance along a gradient line in the first set generally increases, generally decreases, generally increases until it reaches a maximum and then generally decreases, or generally decreases until it reaches a minimum and then generally increases, and (ii) an orthogonal projection of a line segment (X1-Y1) having a length of at least 1 cm of one of the gradient lines onto the second electrically conductive layer defines a complementary line segment (X-Y) in the second electrically conductive layer, wherein (a) the average value of the slope of the sheet resistance of the first electrically conductive layer over the gradient line segment, S 1 avg, is a positive or negative value, and (b) the average value of the slope of the sheet resistance of the second electrically conductive layer over the complementary line segment, S 2 avg, is zero or is opposite in sign to S 1 avg.
A remote operation assistance device, comprising: a state detection element configured to detect a motion state of a working machine or an operation aspect of a remote operation device, the remote operation device being configured to remotely control the working machine; and a point sound source control element configured to control individual sound output aspects of a plurality of sound output devices to displace a virtual point sound source a specified position path (tr1, tr2) when a motion state of the working machine or an operation aspect of the remote operation device represents a relative motion of a second component with respect to a first component, the plurality of sound output devices each being arranged at different locations in a remote operation space for an operator who operates the remote operation device, the first component and the second component constituting the working machine, the specified position path being determined according to a relative motion aspect of the second component with respect to the first component, the motion state of the working machine or the operation aspect of the remote operation device being detected by the state detection element. a state detection element configured to detect a motion state of a working machine or an operation aspect of a remote operation device, the remote operation device being configured to remotely control the working machine; and a point sound source control element configured to control individual sound output aspects of a plurality of sound output devices to displace a virtual point sound source a specified position path (tr1, tr2) when a motion state of the working machine or an operation aspect of the remote operation device represents a relative motion of a second component with respect to a first component, the plurality of sound output devices each being arranged at different locations in a remote operation space for an operator who operates the remote operation device, the first component and the second component constituting the working machine, the specified position path being determined according to a relative motion aspect of the second component with respect to the first component, the motion state of the working machine or the operation aspect of the remote operation device being detected by the state detection element.
An apparatus comprising: an input/output, I/O, interface to: receive a video content request and context information (414, 450) associated with the video content request from a mobile computing device, the context information comprises hardware characteristics, including at least a power supply level of the mobile computing device and a screen size of the mobile computing device; and transmit Quality of Service, QoS, parameters associated with the video content request; and a QoS logic to generate the QoS parameters based, at least in part, on the context information (414, 450) associated with the video content request, the QoS parameters to define at least one of a packet delay tolerance, a packet loss rate, and/or a bit rate associated with transmission of the video content request, wherein the video content request indicates video content of a particular quality; and the apparatus being adapted to reduce network resources allocated to the mobile computing device for streaming video content to the mobile computing device, in response to receiving context information indicating that the power supply is below a predetermined power and the screen size is below a predetermined size. an input/output, I/O, interface to: receive a video content request and context information (414, 450) associated with the video content request from a mobile computing device, the context information comprises hardware characteristics, including at least a power supply level of the mobile computing device and a screen size of the mobile computing device; and transmit Quality of Service, QoS, parameters associated with the video content request; and a QoS logic to generate the QoS parameters based, at least in part, on the context information (414, 450) associated with the video content request, the QoS parameters to define at least one of a packet delay tolerance, a packet loss receive a video content request and context information (414, 450) associated with the video content request from a mobile computing device, the context information comprises hardware characteristics, including at least a power supply level of the mobile computing device and a screen size of the mobile computing device; and transmit Quality of Service, QoS, parameters associated with the video content request; and a QoS logic to generate the QoS parameters based, at least in part, on the context information (414, 450) associated with the video content request, the QoS parameters to define at least one of a packet delay tolerance, a packet loss rate, and/or a bit rate associated with transmission of the video content request, wherein the video content request indicates video content of a particular quality; and the apparatus being adapted to reduce network resources allocated to the mobile computing device for streaming video content to the mobile computing device, in response to receiving context information indicating that the power supply is below a predetermined power and the screen size is below a predetermined size.
Assembly of (a) a sample support and (b) a device for measuring thrombin generation in plasma, the device comprising a housing having a light tight box having a cartridge retainer received therein and wherein at least a part of a light source and a part of a light sensor are directed towards said cartridge retainer, said light tight box having a insertion opening for inserting the sample support and for directing the sample support into a receiving space for the sample holder in the cartridge retainer, wherein the sample support comprises a longitudinal separator medium having a sampling area near one end of the separator medium and a reading area near the other end, said other end being receivable in the insertion opening and the receiving space.
A refrigerating apparatus, comprising: a refrigerant circuit configured to perform a refrigeration cycle by circulating refrigerant and which includes: a heat source side circuit including a compressor and a heat source side heat exchanger and installed outdoors; and a user side circuit including a user side heat exchanger and installed indoors, the heat source side circuit and the user side circuit being connected to each other, and the heat source side heat exchanger performing heat exchange between the refrigerant and outdoor air, heating means configured to heat the compressor in operation stop of the refrigerating apparatus; outdoor air temperature detection means configured to detect a temperature of the outdoor air; and control means characterized by being configured to keep the heating means stopping heating the compressor during the time when a detection value of the outdoor air temperature detection means decreases in the operation stop of the refrigerating apparatus. a refrigerant circuit configured to perform a refrigeration cycle by circulating refrigerant and which includes: a heat source side circuit including a compressor and a heat source side heat exchanger and installed outdoors; and a user side circuit including a user side heat exchanger and installed indoors, the heat source side circuit and the user side circuit being connected to each other, and the heat source side heat exchanger performing heat exchange between the refrigerant and outdoor air, heating means configured to heat the compressor in operation stop of the refrigerating apparatus; outdoor air temperature detection means configured to detect a temperature of the outdoor air; and control means characterized by being configured to keep the heating means stopping heating the compressor during the time when a detection value of the outdoor air temperature detection means decreases in the operation stop of the refrigerating apparatus.
A curable photochromic composition comprising: (a) a first component comprising a first compound having at least two active hydrogen-functional groups and an active hydrogen-functional group equivalent weight of at least 1000; (b) a second component comprising at least one of a polyisocyanate and a blocked polyisocyanate; and (c) at least one photochromic compound, wherein the ratio of total isocyanate and blocked isocyanate equivalents to total active hydrogen-functional group equivalents is at least 4:1. (a) a first component comprising a first compound having at least two active hydrogen-functional groups and an active hydrogen-functional group equivalent weight of at least 1000; (b) a second component comprising at least one of a polyisocyanate and a blocked polyisocyanate; and (c) at least one photochromic compound,
A misfire detection system for a hybrid electric vehicle including an internal combustion engine and an electric motor, the system comprising: a crankshaft speed sensor configured to generate a crankshaft speed signal indicative of a rotational speed of a crankshaft of the engine, the crankshaft being coupled to the electric motor via a flywheel; and a controller configured to: control the electric motor to provide a vibrational response to dampen disturbances to the crankshaft; receive the crankshaft speed signal; selectively modifying an amplitude of the crankshaft speed signal to obtain a modified crankshaft speed signal; and detect a misfire of the engine based on the modified crankshaft speed signal and a set of thresholds, wherein the set of thresholds includes at least one of a negative misfire threshold and a positive vibrational response threshold. a crankshaft speed sensor configured to generate a crankshaft speed signal indicative of a rotational speed of a crankshaft of the engine, the crankshaft being coupled to the electric motor via a flywheel; and a controller configured to: control the electric motor to provide a vibrational response to dampen disturbances to the crankshaft; receive the crankshaft speed signal; selectively modifying an amplitude of the crankshaft speed signal to obtain a modified crankshaft speed signal; and detect a misfire of the engine based on the modified crankshaft speed signal and a set of thresholds, wherein the set of thresholds includes at least one of a negative misfire threshold and a positive vibrational response threshold. control the electric motor to provide a vibrational response to dampen disturbances to the crankshaft; receive the crankshaft speed signal; selectively modifying an amplitude of the crankshaft speed signal to obtain a modified crankshaft speed signal; and detect a misfire of the engine based on the modified crankshaft speed signal and a set of thresholds, wherein the set of thresholds includes at least one of a negative misfire threshold and a positive vibrational response threshold.
Primary part of an ironless linear motor, comprising a cooling plate, on which flat coils each having a central opening (2.1) are arranged, characterized in that the coils are pressed onto the cooling plate by holding pieces which taper towards the cooling plate and which engage in the openings (2.1) in the coils, in that the cooling plate is provided on both sides with coils which lie opposite one another in pairs, and in that respectively two holding pieces of two opposite coils lie opposite each other on both sides of the cooling plate, wherein the two holding pieces are aligned with respect to one another by at least one centring pin.
A polycarbonate resin laminate comprising a substrate, comprising (1-i) a layer of polycarbonate resin and, on at least one surface of the polycarbonate resin layer, (1-ii) a layer of thermoplastic (meth)acrylic resin having a UV-absorbing group immobilized therein, and a scratch resistance film, of a cured coating composition containing UV-absorbing inorganic oxide fine particles, optionally also organic UV absorber, on said layer of the thermoplastic (meth)acrylic resin; wherein in the substrate the thermoplastic (meth)acrylic resin (1-ii) having a UV absorbing group immobilized therein is a (meth)acrylic resin having a glass transition temperature of at least 90°C and obtainable by copolymerizing the following monomers (1-ii-a) and (1-ii-b): (1-ii-a) a (meth)acrylic monomer having an organic UV absorbing group, and (1-ii-b) a (meth)acrylic monomer other than monomer (1-ii-a) which is copolymerizable with monomer (1-ii-a), and wherein the copolymerizable (meth)acrylic monomer (1-ii-b) contains a (meth)acryloxypropyl trialkoxysilane as part thereof, and in the scratch resistance film the UV-absorbing inorganic oxide fine particles are composite zinc oxide fine particles prepared by coating the surface of zinc oxide particles with at least one selected from oxides and hydroxides of A1, Si, Zr and Sn. a substrate, comprising (1-i) a layer of polycarbonate resin and, on at least one surface of the polycarbonate resin layer, (1-ii) a layer of thermoplastic (meth)acrylic resin having a UV-absorbing group immobilized therein, and a scratch resistance film, of a cured coating composition containing UV-absorbing inorganic oxide fine particles, optionally also organic UV absorber, on said layer of the thermoplastic (meth)acrylic resin; wherein in the substrate the thermoplastic (meth)acrylic resin (1-ii) having a UV absorbing group immobilized therein is a (meth)acrylic resin having a glass transition temperature of at least 90°C and obtainable by copolymerizing the following monomers (1-ii-a) and (1-ii-b): (1-ii-a) a (meth)acrylic monomer having an organic UV absorbing group, and (1-ii-b) a (meth)acrylic monomer other than monomer (1-ii-a) which is copolymerizable with monomer (1-ii-a), and wherein the copolymerizable (meth)acrylic monomer (1-ii-b) contains a (meth)acryloxypropyl trialkoxysilane as part thereof, and in the scratch resistance film the UV-absorbing inorganic oxide fine particles are composite zinc oxide fine particles prepared by coating the surface of zinc oxide particles with at least one selected from oxides and hydroxides of A1, Si, Zr and Sn. (1-ii-a) a (meth)acrylic monomer having an organic UV absorbing group, and (1-ii-b) a (meth)acrylic monomer other than monomer (1-ii-a) which is copolymerizable with monomer (1-ii-a), and wherein the copolymerizable (meth)acrylic monomer (1-ii-b) contains a (meth)acryloxypropyl trialkoxysilane as part thereof, and in the scratch resistance film the UV-absorbing inorganic oxide fine particles are composite zinc oxide fine particles prepared by coating the surface of zinc oxide particles with at least one selected from oxides and hydroxides of A1, Si, Zr and Sn.
A communication control method for use in a small-or-medium-scale base station, comprising the steps of: receiving a radio signal transmitted from a communication terminal or a large-scale base station; acquiring information of the communication terminal or the large-scale base station by analyzing the radio signal; selecting one operation range among a plurality of types of operation ranges based on the information of the communication terminal or the large-scale base station; and communicating with the communication terminal in accordance with the operation range selected from among the plurality of types of operation ranges, wherein the plurality of types of operation ranges include a first operation range for communication link quality reinforcement between the communication terminal and the large-scale base station, a second operation range for improving a capacity, a third operation range for extending communication coverage, and a fourth operation range in which the small-or-medium-scale base station operates a cell. receiving a radio signal transmitted from a communication terminal or a large-scale base station; acquiring information of the communication terminal or the large-scale base station by analyzing the radio signal; selecting one operation range among a plurality of types of operation ranges based on the information of the communication terminal or the large-scale base station; and communicating with the communication terminal in accordance with the operation range selected from among the plurality of types of operation ranges, wherein the plurality of types of operation ranges include a first operation range for communication link quality reinforcement between the communication terminal and the large-scale base station, a second operation range for improving a capacity, a third operation range for extending communication coverage, and a fourth operation range in which the small-or-medium-scale base station operates a cell.
A communication apparatus comprising: a receiver which, in operation, receives each of a plurality of codewords mapped to one or a plurality of layers, wherein at least one of the plurality of codewords is mapped to the plurality of layers; the receiver, which in operation receives demodulation reference signals mapped to each of the plurality of layers, wherein, each of the demodulation reference signals is generated at a communication partner apparatus by using a first cyclic shift value and a first orthogonal sequence; a transmitter which, in operation, transmits ACK/NACK information indicating error detection results of the received codewords, wherein, when the transmitted ACK/NACK information denotes a retransmission request of one codeword that is mapped to the plurality of layers, the receiver receives the one codeword mapped to a plurality of layers as a retransmission and receives demodulation reference signals mapped to the plurality of layers of the retransmission, wherein, the same orthogonal sequence is used, from among the first orthogonal sequences used in the previous transmission of the demodulation reference signal, for the demodulation reference signals mapped to the plurality of layers of the retransmission, regardless of whether a signal orthogonal sequence was commonly used or different orthogonal sequences were used for the plurality of layers to which the one codeword was mapped in the previous transmission. a receiver which, in operation, receives each of a plurality of codewords mapped to one or a plurality of layers, wherein at least one of the plurality of codewords is mapped to the plurality of layers; the receiver, which in operation receives demodulation reference signals mapped to each of the plurality of layers, wherein, each of the demodulation reference signals is generated at a communication partner apparatus by using a first cyclic shift value and a first orthogonal sequence; a transmitter which, in operation, transmits ACK/NACK information indicating error detection results of the received codewords, wherein, when the transmitted ACK/NACK information denotes a retransmission request of one codeword that is mapped to the plurality of layers, the receiver receives the one codeword mapped to a plurality of layers as a retransmission and receives demodulation reference signals mapped to the plurality of layers of the retransmission, wherein, the same orthogonal sequence is used, from among the first orthogonal sequences used in the previous transmission of the demodulation reference signal, for the demodulation reference signals mapped to the plurality of layers of the retransmission, regardless of whether a signal orthogonal sequence was commonly used or different orthogonal sequences were used for the plurality of layers to which the one codeword was mapped in the previous transmission.