mhurhangee/ep-ind-claims huggingface dataset:
Autonomously driving vehicle with a driver assistance system and a vehicle camera apparatus for capturing a surrounding region of a motor vehicle, having an image sensor device for recording at least one image of the surrounding region of the motor vehicle, having an image evaluation device, wherein, for checking for a correct headlamp state, the image evaluation device is configured to evaluate at least one variable (9, 10, 11, 14) describing the headlamp light of at least one vehicle headlamp of the own motor vehicle based on the at least one image recorded by the image sensor device, wherein, for checking for the correct headlamp state, the image evaluation device is configured to evaluate a light intensity distribution of the headlamp light of the at least one vehicle headlamp based on the at least one image, wherein the light intensity distribution is evaluated by way of the evaluation of at least two light intensity values present along a main beam direction of the headlamp light, wherein furthermore a control device is provided, wherein the control device captures information data relating to the switch-on state of the at least one vehicle headlamp, and wherein the control device transmits the information data relating to the switch-on state of the at least one vehicle headlamp to the image evaluation device via an output interface and wherein the result of the check for a correct headlamp state contributes to the determination of which vehicle speeds are currently available for an autonomously driving vehicle with the vehicle camera apparatus, wherein the vehicle speed is reduced by a driver assistance apparatus of the motor vehicle in the event of the evaluation of the incorrect headlamp state.
A robot movement control device for controlling an industrial robot comprising a moveable arm section (12, 14), a first motor for moving the arm section around an axis of rotation, a first gear box between the first motor and the arm section, a second motor for moving the arm section around the axis of rotation and for applying torque to the arm section, and a second gear box between the second motor and the arm section, characterized in that the device comprises a path planning unit configured to generate a position control signal q r and a torque control signal T r, a first control unit configured to control the first motor using position control and the position control signal q r and a second control unit configured to control the second motor using torque control and the torque control signal T r.
A reactor for polycrystalline silicon in which a silicon seed rod installed inside the reactor is heated by supplying electricity, a raw material gas supplied inside the reactor is allowed to react, thereby producing polycrystalline silicon on the surface of the silicon seed rod, the reactor for polycrystalline silicon, comprising: raw material gas supply ports installed on the bottom of the reactor; and raw material gas supply nozzles which extend upward from the raw material gas supply ports so as to be communicatively connected, characterized in that the raw material gas supply nozzles are formed in a tapered cylindrical shape, the raw material gas supply nozzles include a through-hole, an outer circumferential side face, an inner circumferential side face, a minor diameter face at the upper end of the raw material gas supply nozzles, a major diameter face which is the end face on the opposite side of the minor diameter face, an opening formed on the minor diameter face, and a cylindrical hole formed on the major diameter face; the outer circumferential side face and the inner circumferential side face of the through-hole installed on an interior of the raw material gas supply nozzles are reduced in diameter upward; the cylindrical hole has a central axis which is aligned with a central axis of the through-hole; the cylindrical hole is fitted into the raw material gas supply ports, by which the raw material gas supply nozzles are attached to the raw material gas supply ports; the upper end of the raw material gas supply nozzles is set to a height in a range from -10 cm to +5 cm on the basis of the upper end of the electrode which retains the silicon seed rod. raw material gas supply ports installed on the bottom of the reactor; and raw material gas supply nozzles which extend upward from the raw material gas supply ports so as to be communicatively connected, characterized in that the raw material gas supply nozzles are formed in a tapered cylindrical shape, the raw material gas supply nozzles include a through-hole, an outer circumferential side face, an inner circumferential side face, a minor diameter face at the upper end of the raw material gas supply nozzles, a major diameter face which is the end face on the opposite side of the minor diameter face, an opening formed on the minor diameter face, and a cylindrical hole formed on the major diameter face; the outer circumferential side face and the inner circumferential side face of the through-hole installed on an interior of the raw material gas supply nozzles are reduced in diameter upward; the cylindrical hole has a central axis which is aligned with a central axis of the through-hole; the cylindrical hole is fitted into the raw material gas supply ports, by which the raw material gas supply nozzles are attached to the raw material gas supply ports; the upper end of the raw material gas supply nozzles is set to a height in a range from -10 cm to +5 cm on the basis of the upper end of the electrode which retains the silicon seed rod.
An endoscopic device including an endoscopic scope which irradiates illumination light from a tip of an insertion unit which is inserted in a subject and outputs a frame image signal which is captured by an image capturing unit mounted in the tip of the insertion unit and a processor device which is connected to the endoscopic scope and includes an image processing unit which performs image processing on the frame image signal, the device comprising: a light source unit configured to repeat for every frame period, an operation of emitting the illumination light during a front period obtained by dividing a frame period of the frame image signal by two and turning off the illumination light during a back period of the frame period; a buffer memory mounted in the endoscopic scope and configured to store image information of the frame image signal output from the image capturing unit; and an information transmitting unit configured to read out the image information of the frame image signal from the buffer memory and transmit the image information to the image processing unit, wherein the image capturing unit considers the front period of the frame period as an exposure period and reads out signals of the exposed accumulated charges within the back period to output the signal to the buffer memory as the image information of the frame image signal, and the information transmitting unit reads out the image information of the frame image signal from the buffer memory within the frame period, and wherein the buffer memory and the information transmitting unit are mounted in the tip of the insertion unit of the endoscopic scope. a light source unit configured to repeat for every frame period, an operation of emitting the illumination light during a front period obtained by dividing a frame period of the frame image signal by two and turning off the illumination light during a back period of the frame period; a buffer memory mounted in the endoscopic scope and configured to store image information of the frame image signal output from the image capturing unit; and an information transmitting unit configured to read out the image information of the frame image signal from the buffer memory and transmit the image information to the image processing unit, wherein the image capturing unit considers the front period of the frame period as an exposure period and reads out signals of the exposed accumulated charges within the back period to output the signal to the buffer memory as the image information of the frame image signal, and the information transmitting unit reads out the image information of the frame image signal from the buffer memory within the frame period, and wherein the buffer memory and the information transmitting unit are mounted in the tip of the insertion unit of the endoscopic scope.
Airborne device comprising a wind turbine (12, 212) having an axis of rotation (14, A212), an airborne structure (16, 216) configured to support the wind turbine (12, 212), a lifting system (18, 218) configured to keep aloft the airborne structure (16, 216), at least one belt (66, 236) to transmit a movement of rotation of the wind turbine (12, 212) to a ground station, said belt (66, 236) being guided by at least one return-to-ground pulley (28, 234, 242), each return-to-ground pulley (28, 234, 242) being secured to a pivoting shaft (44, A232, A240), positioned in a guiding plane perpendicular to the pivoting shaft (44, A232, A240) and configured to guide the belt (66, 236), said device being characterized in that the axis of rotation (14, A212) of the wind turbine (12, 212) and the guiding plane of each return-to-ground pulley (28, 234, 242) form an angle of less than 60°.
A fouling release coating composition comprising: a) a curable polysiloxane based binder comprising at least 50 wt% polysiloxane parts; b) an antifouling agent; and c) 10-30% by dry weight of a non-ionic hydrophilic-modified polysiloxane having i) a hydrophilic-lipophilic balance of 1-12 or a relative weight of hydrophilic moieties in the range 5-60 wt.%, and ii) an Mn of 500-18,000 g/mol or a Mw of 1,000-50,000 g/mol. a) a curable polysiloxane based binder comprising at least 50 wt% polysiloxane parts; b) an antifouling agent; and c) 10-30% by dry weight of a non-ionic hydrophilic-modified polysiloxane having i) a hydrophilic-lipophilic balance of 1-12 or a relative weight of hydrophilic moieties in the range 5-60 wt.%, and ii) an Mn of 500-18,000 g/mol or a Mw of 1,000-50,000 g/mol. i) a hydrophilic-lipophilic balance of 1-12 or a relative weight of hydrophilic moieties in the range 5-60 wt.%, and ii) an Mn of 500-18,000 g/mol or a Mw of 1,000-50,000 g/mol.
A method of authenticating an asset in a dynamic, proximity-based network of communication devices, where the communication devices comprise a first communication interface (112, 122, 232) for establishing the dynamic, proximity-based network by short-range wireless beacon broadcast messaging (113, 123), and a second communication interface (114, 124, 234) for communicating with a server (13, 16, 130) by broadband communication (115, 125), the method involving: a first communication device sending an authentication request (AUTH_REQ1) to a second communication device via the first communication interface (112, 122), said asset being associated with the second communication device; the second communication device receiving the authentication request (AUTH_REQ1) via the first communication interface (112, 122) and in response communicating with the server via the second communication interface (114, 124) to generate a digital signature (U2_Signed) by encrypting data which includes said asset with a private key (U2_PrK) for the second communication device; the second communication device sending a signing completed report message (SIGNING_REP2) about the generation of the digital signature (U2_Signed) to the first communication device via the first communication interface (112, 122); and the first communication device receiving the signing completed report message (SIGNING_REP2) via the first communication interface (112, 122) and in response communicating with the server via the second communication interface (114, 124) to retrieve an authentication result (AUTH_RESULT). a first communication device sending an authentication request (AUTH_REQ1) to a second communication device via the first communication interface (112, 122), said asset being associated with the second communication device; the second communication device receiving the authentication request (AUTH_REQ1) via the first communication interface (112, 122) and in response communicating with the server via the second communication interface (114, 124) to generate a digital signature (U2_Signed) by encrypting data which includes said asset with a private key (U2_PrK) for the second communication device; the second communication device sending a signing completed report message (SIGNING_REP2) about the generation of the digital signature (U2_Signed) to the first communication device via the first communication interface (112, 122); and the first communication device receiving the signing completed report message (SIGNING_REP2) via the first communication interface (112, 122) and in response communicating with the server via the second communication interface (114, 124) to retrieve an authentication result (AUTH_RESULT).
A terminal configured to: • receive (step 301) physical broadcast channel, PBCH, information, containing basic physical layer configuration information of a cell and first specific content, on a PBCH channel from a base station, wherein the basic physical layer configuration information comprises a system frame number, SFN, wherein the first specific content comprises first control information, the first control information including information indicating a time-frequency resource used by the terminal to receive second specific content from the base station, • parse out (step 302) the first specific content from the PBCH information, • parse out (step 303) the first control information from the first specific content, • receive the second specific content from the base station on the time-frequency resource as indicated by the first control information (step 304, step 306), ∘ wherein the second specific content comprises information indicating a time-frequency resource, a coding scheme and a redundancy version used by the terminal to receive third specific content from the base station, • receive the third specific content on the time-frequency resource, with the coding scheme, and with the redundancy version as indidated by the second specific content (step 309), wherein the third specific content includes narrowband configuration information, and the narrowband configuration information comprises information about a narrowband location. • receive (step 301) physical broadcast channel, PBCH, information, containing basic physical layer configuration information of a cell and first specific content, on a PBCH channel from a base station, wherein the basic physical layer configuration information comprises a system frame number, SFN, wherein the first specific content comprises first control information, the first control information including information indicating a time-frequency resource used by the terminal to receive second specific content from the base station, • parse out (step 302) the first specific content from the PBCH information, • parse out (step 303) the first control information from the first specific content, • receive the second specific content from the base station on the time-frequency resource as indicated by the first control information (step 304, step 306), ∘ wherein the second specific content comprises information indicating a time-frequency resource, a coding scheme and a redundancy version used by the terminal to receive third specific content from the base station, ∘ wherein the second specific content comprises information indicating a time-frequency resource, a coding scheme and a redundancy version used by the terminal to receive third specific content from the base station, • receive the third specific content on the time-frequency resource, with the coding scheme, and with the redundancy version as indidated by the second specific content (step 309), wherein the third specific content includes narrowband configuration information, and the narrowband configuration information comprises information about a narrowband location.
An electrode for a rechargeable lithium battery, the electrode comprising: an active material; and a binder composition, the binder composition comprising: an interpenetrating polymer network structure comprising a cyclic polymer and a polyacrylamide, the cyclic polymer comprising a structural unit represented by Chemical Formula 1 or a structural unit represented by Chemical Formula 2, wherein, R 1, R 2, R 11, R 12, R 14 and R 15 are the same or different and are independently selected from hydrogen, a substituted or unsubstituted C 1 to C 5 alkyl group, or -(CH 2)p-COOX 1; R 3, R 13 and R 16 are the same or different and are independently -OR 4, -NHR 5 or - COOX 2; X 2 is an alkali metal; R 4 is hydrogen, a substituted or unsubstituted C 1 to C 5 alkyl group, or -(CH 2) p -COOX 1; p is an integer of 1 to 5; X 1 is an alkali metal; R 5 is hydrogen or -COCH 3; and n and m are independently integers of 5 to 20,000. an active material; and a binder composition, the binder composition comprising: an interpenetrating polymer network structure comprising a cyclic polymer and a polyacrylamide, the cyclic polymer comprising a structural unit represented by Chemical Formula 1 or a structural unit represented by Chemical Formula 2, wherein, R 1, R 2, R 11, R 12, R 14 and R 15 are the same or different and are independently selected from hydrogen, a substituted or unsubstituted C 1 to C 5 alkyl group, or -(CH 2)p-COOX 1; R 3, R 13 and R 16 are the same or different and are independently -OR 4, -NHR 5 or - COOX 2; X 2 is an alkali metal; R 4 is hydrogen, a substituted or unsubstituted C 1 to C 5 alkyl group, or -(CH 2) p -COOX 1; p is an integer of 1 to 5; X 1 is an alkali metal; R 5 is hydrogen or -COCH 3; and n and m are independently integers of 5 to 20,000. an interpenetrating polymer network structure comprising a cyclic polymer and a polyacrylamide, the cyclic polymer comprising a structural unit represented by Chemical Formula 1 or a structural unit represented by Chemical Formula 2, wherein, R 1, R 2, R 11, R 12, R 14 and R 15 are the same or different and are independently selected from hydrogen, a substituted or unsubstituted C 1 to C 5 alkyl group, or -(CH 2)p-COOX 1; R 3, R 13 and R 16 are the same or different and are independently -OR 4, -NHR 5 or - COOX 2; X 2 is an alkali metal; R 4 is hydrogen, a substituted or unsubstituted C 1 to C 5 alkyl group, or -(CH 2) p -COOX 1; p is an integer of 1 to 5; X 1 is an alkali metal; R 5 is hydrogen or -COCH 3; and n and m are independently integers of 5 to 20,000. R 1, R 2, R 11, R 12, R 14 and R 15 are the same or different and are independently selected from hydrogen, a substituted or unsubstituted C 1 to C 5 alkyl group, or -(CH 2)p-COOX 1; R 3, R 13 and R 16 are the same or different and are independently -OR 4, -NHR 5 or - COOX 2; X 2 is an alkali metal; R 4 is hydrogen, a substituted or unsubstituted C 1 to C 5 alkyl group, or -(CH 2) p -COOX 1; p is an integer of 1 to 5; X 1 is an alkali metal; R 5 is hydrogen or -COCH 3; and n and m are independently integers of 5 to 20,000.
A method performed by a Base Station, BS, for handling repetitions of transmissions in a wireless communication system, the method comprising: transmitting a Radio Resource Control, RRC, configuration comprising a first parameter configured with a first value and a second parameter configured with at least one second value, each of the first value and the at least one second value indicating a number of Physical Uplink Shared Channel, PUSCH, repetitions; transmitting Downlink Control Information, DCI, on a Physical Downlink Control Channel, PDCCH, scheduling a PUSCH transmission; and receiving the PUSCH transmission for a number of times based on a number of PUSCH repetitions for the PUSCH transmission, wherein: the DCI enables the UE to select one of the first parameter and the second parameter to determine the number of PUSCH repetitions for the PUSCH transmission, characterised in that: when the DCI has a DCI format associated with the second parameter and comprises an index indicating one of the at least one second value, the DCI enables the UE to select the second parameter and to determine the number of PUSCH repetitions for the PUSCH transmission as the one of the at least one second value indicated by the DCI, and the DCI enables the UE to determine the number of PUSCH repetitions for the PUSCH transmission as the first value when the first parameter is selected. transmitting a Radio Resource Control, RRC, configuration comprising a first parameter configured with a first value and a second parameter configured with at least one second value, each of the first value and the at least one second value indicating a number of Physical Uplink Shared Channel, PUSCH, repetitions; transmitting Downlink Control Information, DCI, on a Physical Downlink Control Channel, PDCCH, scheduling a PUSCH transmission; and receiving the PUSCH transmission for a number of times based on a number of PUSCH repetitions for the PUSCH transmission, wherein: the DCI enables the UE to select one of the first parameter and the second parameter to determine the number of PUSCH repetitions for the PUSCH transmission, characterised in that: when the DCI has a DCI format associated with the second parameter and comprises an index indicating one of the at least one second value, the DCI enables the UE to select the second parameter and to determine the number of PUSCH repetitions for the PUSCH transmission as the one of the at least one second value indicated by the DCI, and the DCI enables the UE to determine the number of PUSCH repetitions for the PUSCH transmission as the first value when the first parameter is selected. when the DCI has a DCI format associated with the second parameter and comprises an index indicating one of the at least one second value, the DCI enables the UE to select the second parameter and to determine the number of PUSCH repetitions for the PUSCH transmission as the one of the at least one second value indicated by the DCI, and the DCI enables the UE to determine the number of PUSCH repetitions for the PUSCH transmission as the first value when the first parameter is selected.
A method of wireless communications by a base station, comprising: mapping a portion of at least one of a physical broadcast channel -PBCH- or a beamformed reference signal -BRS- to tones of a symbol of a subframe, via a same set of tones independent of system bandwidth; and transmitting the at least one of the PBCH or BRS in the symbol according to the mapping, wherein the mapping comprises: mapping coded bits of one period of PBCH transmission to a plurality of segments; and for each segment, coded bits of that segment are mapped to a fixed starting offset regardless of available resource for the transmission. mapping a portion of at least one of a physical broadcast channel -PBCH- or a beamformed reference signal -BRS- to tones of a symbol of a subframe, via a same set of tones independent of system bandwidth; and transmitting the at least one of the PBCH or BRS in the symbol according to the mapping, wherein the mapping comprises: mapping coded bits of one period of PBCH transmission to a plurality of segments; and for each segment, coded bits of that segment are mapped to a fixed starting offset regardless of available resource for the transmission. mapping coded bits of one period of PBCH transmission to a plurality of segments; and for each segment, coded bits of that segment are mapped to a fixed starting offset regardless of available resource for the transmission.