mhurhangee/ep-ind-claims huggingface dataset:
A method for collecting telematics data from a plurality of telematics devices, the method comprising: providing, at a plurality of fleet management servers, a plurality of data stores, each data store associated with at least one telematics device, each data store operable to store a set of telematics data associated with the at least one telematics device; detecting, at a gateway server of a plurality of gateway servers, a connection by a telematics device to the gateway server; registering, at an event bus in communication with the plurality of gateway servers and with the fleet management servers, the event bus configured to store a plurality of event records, an event record indicating that the telematics device is connected to the gateway server of the plurality of gateway servers; for each fleet management server having at least one data store associated with the telematics device: identifying, at the fleet management server, the gateway server in communication with the telematics device based on the event record; receiving, at the fleet management server, a set of telematics data associated with the telematics device from the gateway server; and storing, at the at least one data store, the set of telematics data associated with the telematics device. providing, at a plurality of fleet management servers, a plurality of data stores, each data store associated with at least one telematics device, each data store operable to store a set of telematics data associated with the at least one telematics device; detecting, at a gateway server of a plurality of gateway servers, a connection by a telematics device to the gateway server; registering, at an event bus in communication with the plurality of gateway servers and with the fleet management servers, the event bus configured to store a plurality of event records, an event record indicating that the telematics device is connected to the gateway server of the plurality of gateway servers; for each fleet management server having at least one data store associated with the telematics device: identifying, at the fleet management server, the gateway server in communication with the telematics device based on the event record; receiving, at the fleet management server, a set of telematics data associated with the telematics device from the gateway server; and storing, at the at least one data store, the set of telematics data associated with the telematics device. identifying, at the fleet management server, the gateway server in communication with the telematics device based on the event record; receiving, at the fleet management server, a set of telematics data associated with the telematics device from the gateway server; and storing, at the at least one data store, the set of telematics data associated with the telematics device.
A device comprising a heat transfer device and a plurality of cooling fans (306, 308), the heat transfer device comprising: a heat sink configured as a plurality of heat pipes (302, 304) configured to transfer heat from a heat-generating device using thermal conductivity and phase transition, the heat pipes (302, 304) arranged in different orientations in one or more of x, y, or z axis; and a thermal storage enclosure disposed proximal to at least a portion of the heat sink and configured to be disposed proximal to the heat-generating component of the device, the thermal storage enclosure including a phase change material configured to have a melting temperature that is below a temperature at which each of the plurality of cooling fans (306, 308) is set to operate to cool a respective one of the plurality of heat pipes (302, 304). a heat sink configured as a plurality of heat pipes (302, 304) configured to transfer heat from a heat-generating device using thermal conductivity and phase transition, the heat pipes (302, 304) arranged in different orientations in one or more of x, y, or z axis; and a thermal storage enclosure disposed proximal to at least a portion of the heat sink and configured to be disposed proximal to the heat-generating component of the device, the thermal storage enclosure including a phase change material configured to have a melting temperature that is below a temperature at which each of the plurality of cooling fans (306, 308) is set to operate to cool a respective one of the plurality of heat pipes (302, 304).
A phosphor comprising a (Li and Eu)-containing α-SiAlON crystal represented by a general formula: Li x Eu y Si 12-(m+n) Al m+n O n N 16-n (x+y≤2, m=x+2y), wherein a part of Li in the general formula may be replaced by one or more elements selected from the group consisting of Mg, Ca, Y and lanthanoids excluding La, Ce and Eu, and wherein the phosphor has: a Li content of 1.8 to 3 mass %, an Eu content of 0.1 to 1.5 mass %, an average particle diameter, as determined by laser diffraction/scattering method, of 7 to 35 μm, and a particle diameter at a cumulative volume of 10% in particle diameter distribution, as determined by laser diffraction/scattering method, of 4 μm or more and a particle diameter at a cumulative volume of 90% of 45 μm or less. a Li content of 1.8 to 3 mass %, an Eu content of 0.1 to 1.5 mass %, an average particle diameter, as determined by laser diffraction/scattering method, of 7 to 35 μm, and a particle diameter at a cumulative volume of 10% in particle diameter distribution, as determined by laser diffraction/scattering method, of 4 μm or more and a particle diameter at a cumulative volume of 90% of 45 μm or less.
A personal care implement (10, 100, 2000) comprising a head (16, 1114) and a handle (12, 112, 1112), the handle comprising a core-connector unit comprising a spring-loaded ball-snap element (14, 116, 1116) for releasably engaging into the head (16, 1114), the head (16, 1114) being repeatedly attachable to and detachable from the handle (12, 112, 1112), the core-connector unit exhibiting a sound when the head (16, 1114) gets attached to and/or detached from the handle (12, 112, 1112), thereby providing a signal of secure attachment or detachment, the sound being characterized by a tonal component of about 4000Hz to about 6000Hz, preferably over a time length of about 0.1s to about 0.3s on a tonality frequency vs. time analysis according to the hearing model of Sottek.
A method of transmitting control information to a User Equipment, UE, by an evolved Node B, eNB, in a wireless communication system, the method comprising: determining whether the UE can perform interference management for receiving a data signal transmitted from the eNB based on information of an interference signal; when it is determined that the UE can perform the interference management, transmitting, to the UE, configuration information for receiving the data signal by applying the interference management by the UE; and transmitting, to the UE, downlink control information including transmission power control information indicating whether a transmission power of a DeModulation Reference Signal, DMRS, corresponding to the interference signal is different from a transmission power of the interference signal. determining whether the UE can perform interference management for receiving a data signal transmitted from the eNB based on information of an interference signal; when it is determined that the UE can perform the interference management, transmitting, to the UE, configuration information for receiving the data signal by applying the interference management by the UE; and transmitting, to the UE, downlink control information including transmission power control information indicating whether a transmission power of a DeModulation Reference Signal, DMRS, corresponding to the interference signal is different from a transmission power of the interference signal.
An electric connection box in which an internal circuit body is housed within a hollow case formed by fitting one case and an other case together and the one case is positioned with respect to the other case by means of at least one positioning boss (84, 88) provided to an interior of the one case which is fitted into a positioning recess ((45, 48) provided to an interior of the other case so that at least one connection terminal provided to the internal circuit body is inserted into a corresponding at least one terminal insertion hole provided so as to penetrate through the hollow case, the electric connection box being characterized in that: a tube body (50, 54) defining the positioning recess (45, 48) is provided so as to protrude on an outer surface of the other case. a tube body (50, 54) defining the positioning recess (45, 48) is provided so as to protrude on an outer surface of the other case.
A microwave spark plug for injecting microwave energy into a combustion chamber of an engine, comprising an elongated housing, including an elongated chamber forming a hollow conductor in an interior of the housing, and a microwave window arranged at one end of the hollow conductor in the housing, wherein the microwave window closes the hollow conductor relative to a combustion chamber, wherein a thread for threading into an engine housing defining the combustion chamber is arranged at an outer circumference of the housing, the hollow conductor includes a connection conductor for a high frequency feed conductor at another end of the hollow conductor arranged distal from the microwave window, the connection element includes a high frequency inlet cross section geometry which differs from a high frequency outlet cross section geometry at the microwave window, and a transition from the high frequency entry cross section geometry at the first end of the hollow conductor to the high frequency outlet cross section geometry at the second end of the hollow conduction is provided continuously.
A vehicle engine which is capable to perform a compression self-ignition operation comprising an intake and exhaust device, an intake system being disposed on a vehicle-front side of the engine and an exhaust system being disposed on a vehicle-rear side of the engine when the engine is mounted on a vehicle, the device comprising an intake manifold which is mounted on an intake side of the engine and is integrated with a water cooling inter cooler, a supercharger driven by a force other than an exhaust gas which is disposed on the vehicle-front side of the engine, upstream side of the intake manifold and above the intake manifold on an intake passage, wherein an exhaust purification device disposed on an exhaust passage is disposed adjacent to an outer surface of the engine. an intake manifold which is mounted on an intake side of the engine and is integrated with a water cooling inter cooler, a supercharger driven by a force other than an exhaust gas which is disposed on the vehicle-front side of the engine, upstream side of the intake manifold and above the intake manifold on an intake passage, wherein an exhaust purification device disposed on an exhaust passage is disposed adjacent to an outer surface of the engine.
A cooling device that comprises a body, a door, a body shelf disposed in the body /having a carrying surface, and another shelf having a carrying surface, characterized in that said shelf is mounted on the door in a first position, and in a second position, placed in front of the body shelf and mounted to the body shelf or the body, aligning with the carrying surface such that the carrying surface is widened.
A rocker-type assembly device for a wiper, assembled between a wiper body and a swing arm, the assembly device comprising: a wiper fastening base fixed to the wiper body and including a shaft and a buckling portion; a connection base combined with the wiper fastening base and defining a shaft groove, the shaft groove being configured to receive the shaft, wherein the connection base swings in a rocker-like manner, about the shaft as a pivot, relative to the wiper fastening base, and the swing arm is assembled to the connection base; and a control member assembled to the connection base and swings together with the connection base, the control member including a buckling body; wherein the control member is configured to drive the buckling body to be selectively engaged with the buckling portion and disengaged from the buckling portion by swinging together with the connection base, characterized in that the connection base is provided with a plurality of restraining slots, a plurality of protruding bodies of the swing arm are respectively positioned for limited movement in the restraining slots by moving in a first direction, and the control member is moved with respect to the connection base to block the swing arm in another direction opposite to the first direction a wiper fastening base fixed to the wiper body and including a shaft and a buckling portion; a connection base combined with the wiper fastening base and defining a shaft groove, the shaft groove being configured to receive the shaft, wherein the connection base swings in a rocker-like manner, about the shaft as a pivot, relative to the wiper fastening base, and the swing arm is assembled to the connection base; and a control member assembled to the connection base and swings together with the connection base, the control member including a buckling body; wherein the control member is configured to drive the buckling body to be selectively engaged with the buckling portion and disengaged from the buckling portion by swinging together with the connection base, characterized in that the connection base is provided with a plurality of restraining slots, a plurality of protruding bodies of the swing arm are respectively positioned for limited movement in the restraining slots by moving in a first direction, and the control member is moved with respect to the connection base to block the swing arm in another direction opposite to the first direction
A wireless communication device, comprising: a memory; and one or more processors coupled to the memory, configured to perform first wireless communication with a base station using a wireless channel, and perform, using the wireless channel without the base station, second wireless communication with a wireless communication device of a communication partner, wherein the first wireless communication and the second wireless communication are performed by time division, the base station is a wireless LAN access point, the first wireless communication is communication in an infrastructure mode, and the second wireless communication is communication in a peer-to-peer mode, and characterized in that in a case where the wireless channel is used for one of the first wireless communication and the second wireless communication, and a different wireless channel is used for the other one of the wireless communications, the one or more processors is configured to release setting of the different wireless channel used for the other one of the wireless communications, and perform setting for third wireless communication with a different communication partner using the wireless channel used for the one of the wireless communications. a memory; and one or more processors coupled to the memory, configured to perform first wireless communication with a base station using a wireless channel, and perform, using the wireless channel without the base station, second wireless communication with a wireless communication device of a communication partner, wherein the first wireless communication and the second wireless communication are performed by time division, the base station is a wireless LAN access point, the first wireless communication is communication in an infrastructure mode, and the second wireless communication is communication in a peer-to-peer mode, and characterized in that in a case where the wireless channel is used for one of the first wireless communication and the second wireless communication, and a different wireless channel is used for the other one of the wireless communications, the one or more processors is configured to release setting of the different wireless channel used for the other one of the wireless communications, and perform setting for third wireless communication with a different communication partner using the wireless channel used for the one of the wireless communications.
A method for handing over codes of a call in a GSM system, characterized by: receiving, by a Mobile Switching Center, MSC, server, a code handover instruction sent by a base station system, BSS, wherein the instruction carries a new code type and a new BSS user plane connection endpoint identifier; forwarding the code handover instruction, by the MSC server, to a media gateway, MGW; and adding, by the MGW, a new core network, CN, user plane connection endpoint according to the new BSS user plane connection endpoint identifier notified by the MSC, sending, by the MGW, a speech packet of the new code type through the new CN user plane connection endpoint and a new BSS user plane connection endpoint corresponding to the new BSS user plane connection endpoint identifier, and simultaneously sending and receiving a speech packet through an original BSS user plane connection endpoint and an original CN user plane connection endpoint. receiving, by a Mobile Switching Center, MSC, server, a code handover instruction sent by a base station system, BSS, wherein the instruction carries a new code type and a new BSS user plane connection endpoint identifier; forwarding the code handover instruction, by the MSC server, to a media gateway, MGW; and adding, by the MGW, a new core network, CN, user plane connection endpoint according to the new BSS user plane connection endpoint identifier notified by the MSC, sending, by the MGW, a speech packet of the new code type through the new CN user plane connection endpoint and a new BSS user plane connection endpoint corresponding to the new BSS user plane connection endpoint identifier, and simultaneously sending and receiving a speech packet through an original BSS user plane connection endpoint and an original CN user plane connection endpoint.
An impedance transformer operating in the VHF and UHF frequency bands, having a low-impedance access Eb and a high-impedance access Eh, intended to be connected to a printed circuit, said impedance transformer being comprised of at least: - a multilayer circuit comprising a long side for its connection to the printed circuit, at least three layers, a first outer layer separated from a second outer layer of the same thickness (ex) by at least one inner layer (Ci) of thickness (ec) at least four times greater than the thickness (ex) of the outer layers, each outer layer having two metallised faces to form electrical conductors, an internal face (70, 80) comprising an internal electrical conductor (72, 82) and an external face (74, 84) including an external electrical conductor (76, 86) facing the internal electrical conductor to form a microstrip line (L1, L2) on each of the two outer layers (Ce1, Ce2), the two microstrip lines (L1, L2) being symmetrical with respect to a central plane of the multilayer circuit to the external faces (74, 84), the multilayer circuit comprising: - an electrical connection (116, 118) between the end of the internal conductor (72, 82) of one of the microstrip lines and the end of the external conductor (76, 86) of the other microstrip line to produce said low- impedance access Eb, said two ends facing one another; - another electrical connection between the two other ends of the internal electrical conductors (72, 82) of the two microstrip lines (L1, L2), to produce said high-impedance access Eh, said other ends facing one another; said low-impedance access Eb and said high-impedance access Eh being on the long side of the multilayer circuit and close to each other to limit the area of connection with the printed circuit. - a multilayer circuit comprising a long side for its connection to the printed circuit, at least three layers, a first outer layer separated from a second outer layer of the same thickness (ex) by at least one inner layer (Ci) of thickness (ec) at least four times greater than the thickness (ex) of the outer layers, each outer layer having two metallised faces to form electrical conductors, an internal face (70, 80) comprising an internal electrical conductor (72, 82) and an external face (74, 84) including an external electrical conductor (76, 86) facing the internal electrical conductor to form a microstrip line (L1, L2) on each of the two outer layers (Ce1, Ce2), the two microstrip lines (L1, L2) being symmetrical with respect to a central plane of the multilayer circuit to the external faces (74, 84), the multilayer circuit comprising: - an electrical connection (116, 118) between the end of the internal conductor (72, 82) of one of the microstrip lines and the end of the external conductor (76, 86) of the other microstrip line to produce said low- impedance access Eb, said two ends facing one another; - another electrical connection between the two other ends of the internal electrical conductors (72, 82) of the two microstrip lines (L1, L2), to produce said high-impedance access Eh, said other ends facing one another;
A light-emitting apparatus comprising: a first light emitter (120; 120'; 120"; 120′′′; 220; 320; 420) configured to emit visible light, the first light emitter (120; 120'; 120"; 220; 320; 420) comprising a plurality of light sources (LED11,..., LEDn; RLED, GLED, BLED; WWLED, DLLED) having color temperatures different from each other; a second light emitter (130; 230; 330; 430) configured to emit infrared rays; and a controller (110; 210; 310; 410) configured to adjust characteristics of the visible light and the infrared rays by controlling the first and second light emitters (120; 120'; 120"; 120′′′; 220; 320; 420; 130; 230; 330; 430), wherein each of the light sources (LED11,..., LEDn; RLED, GLED, BLED; WWLED, DLLED) comprises a light-emitting diode chip and a wavelength conversion unit configured to convert a wavelength rage of light emitted from the light-emitting diode chip, characterized in that the light-emitting apparatus (100; 200; 300; 400) further comprises an optical sensor (140; 240; 340; 440) configured to sense external light and including an infrared sensor for sensing infrared rays of the external light, wherein the controller (110; 210; 310; 410) is further configured to acquire a spectrum of the external light by communicating with the optical sensor (140; 240; 340; 440), and control the first and second light emitters (120; 120'; 120"; 120′′′; 220; 320; 420; 130; 230; 330; 430) according to the spectrum of the external light. a first light emitter (120; 120'; 120"; 120′′′; 220; 320; 420) configured to emit visible light, the first light emitter (120; 120'; 120"; 220; 320; 420) comprising a plurality of light sources (LED11,..., LEDn; RLED, GLED, BLED; WWLED, DLLED) having color temperatures different from each other; a second light emitter (130; 230; 330; 430) configured to emit infrared rays; and a controller (110; 210; 310; 410) configured to adjust characteristics of the visible light and the infrared rays by controlling the first and second light emitters (120; 120'; 120"; 120′′′; 220; 320; 420; 130; 230; 330; 430), wherein each of the light sources (LED11,..., LEDn; RLED, GLED, BLED; WWLED, DLLED) comprises a light-emitting diode chip and a wavelength conversion unit configured to convert a wavelength rage of light emitted from the light-emitting diode chip, characterized in that the light-emitting apparatus (100; 200; 300; 400) further comprises an optical sensor (140; 240; 340; 440) configured to sense external light and including an infrared sensor for sensing infrared rays of the external light, wherein the controller (110; 210; 310; 410) is further configured to acquire a spectrum of the external light by communicating with the optical sensor (140; 240; 340; 440), and control the first and second light emitters (120; 120'; 120"; 120′′′; 220; 320; 420; 130; 230; 330; 430) according to the spectrum of the external light.