mhurhangee/ep-ind-claims huggingface dataset:
A device for supplying components for a placement machine, wherein the components are provided in the form of a continuous material, the device having a chassis; and a cutting device which is configured to cut off a section at a leading end of the continuous material, wherein the cut-off section represents a supplied component; characterised in that the device comprises a transport device attached to the chassis for transporting the continuous material along a transport track towards a pick-up position; and wherein the transport device and/or the cutting device is configured in such a way that in a first operating state, a cut-off component has a first predetermined length, and in a second operating state, the cut-off component has a second predetermined length, wherein the second predetermined length is different to the first predetermined length; the cutting device is attached to the chassis in a stationary manner and the pick-up position can be changed spatially along the transport track in relation to the chassis, wherein each operating state is assigned its own pick-up position; the transport device has a pushing means configured to transport the continuous material a predetermined distance along the transport track; and the pushing means has a clamping device configured to engage the continuous material and which is displaceable relative to the chassis along the transport track. a chassis; and a cutting device which is configured to cut off a section at a leading end of the continuous material, wherein the cut-off section represents a supplied component; characterised in that the device comprises a transport device attached to the chassis for transporting the continuous material along a transport track towards a pick-up position; and wherein the transport device and/or the cutting device is configured in such a way that in a first operating state, a cut-off component has a first predetermined length, and in a second operating state, the cut-off component has a second predetermined length, wherein the second predetermined length is different to the first predetermined length; the cutting device is attached to the chassis in a stationary manner and the pick-up position can be changed spatially along the transport track in relation to the chassis, wherein each operating state is assigned its own pick-up position; the transport device has a pushing means configured to transport the continuous material a predetermined distance along the transport track; and the pushing means has a clamping device configured to engage the continuous material and which is displaceable relative to the chassis along the transport track.
A wireless multipath transmission method, comprising: a data transmitting end encoding original data packets into N data packets, wherein K data packets are original data packets and (N-K) data packets are redundant data packets, K and N are positive integers greater than 1, and N>K; the data transmitting end transmitting the encoded data packets to a data receiving terminal via different transmission links, whereby more original data packets are assigned to links whose link status is better or more stable, while more redundant data packets are assigned to links whose link status is bad or unstable; the data receiving end receiving data packets from different transmission links, and decoding the received data packets to obtain the original data packets, and wherein, the original data packets are packet data convergence protocol, PDCP, service data units, SDUs, or protocol data units, PDUs; the step of a data transmitting end encoding original data packets comprises: the data transmitting end encoding the original data packets in a PDCP layer; or, the data transmitting end encoding the original data packets in a radio link control, RLC, layer. a data transmitting end encoding original data packets into N data packets, wherein K data packets are original data packets and (N-K) data packets are redundant data packets, K and N are positive integers greater than 1, and N>K; the data transmitting end transmitting the encoded data packets to a data receiving terminal via different transmission links, whereby more original data packets are assigned to links whose link status is better or more stable, while more redundant data packets are assigned to links whose link status is bad or unstable; the data receiving end receiving data packets from different transmission links, and decoding the received data packets to obtain the original data packets, and wherein, the original data packets are packet data convergence protocol, PDCP, service data units, SDUs, or protocol data units, PDUs; the step of a data transmitting end encoding original data packets comprises: the data transmitting end encoding the original data packets in a PDCP layer; or, the data transmitting end encoding the original data packets in a radio link control, RLC, layer. the data transmitting end encoding the original data packets in a PDCP layer; or, the data transmitting end encoding the original data packets in a radio link control, RLC, layer.
A polycarbonate composition comprising: 20 to 85 weight percent of a bisphenol A homopolycarbonate; 10 to 55 weight percent of a first polycarbonate-siloxane copolymer having a siloxane content of 4 to 10 weight percent, based on the total weight of the first polycarbonate-siloxane copolymer; and 10 to 25 weight percent of a second polycarbonate-siloxane copolymer having a siloxane content of greater than 30 to 70 weight percent, based on the total weight of the second polycarbonate-siloxane copolymer; wherein when the composition has a total siloxane content of 2 to 7.5%, the first polycarbonate-siloxane copolymer and the second polycarbonate-siloxane copolymer are present in a weight ratio of less than 2; and when the composition has a total siloxane content of greater than 7.5 to 15%, the first polycarbonate-siloxane copolymer and the second polycarbonate-siloxane copolymer are present in a weight ratio of 2 to 5. 20 to 85 weight percent of a bisphenol A homopolycarbonate; 10 to 55 weight percent of a first polycarbonate-siloxane copolymer having a siloxane content of 4 to 10 weight percent, based on the total weight of the first polycarbonate-siloxane copolymer; and 10 to 25 weight percent of a second polycarbonate-siloxane copolymer having a siloxane content of greater than 30 to 70 weight percent, based on the total weight of the second polycarbonate-siloxane copolymer; wherein when the composition has a total siloxane content of 2 to 7.5%, the first polycarbonate-siloxane copolymer and the second polycarbonate-siloxane copolymer are present in a weight ratio of less than 2; and when the composition has a total siloxane content of greater than 7.5 to 15%, the first polycarbonate-siloxane copolymer and the second polycarbonate-siloxane copolymer are present in a weight ratio of 2 to 5.
A method performed by an access terminal for radio link monitoring on a shared communication medium, the method comprising: detecting a missed Discovery reference signaling, DRS, event associated with a radio link established on the shared communication medium between the access terminal and an access point, wherein detecting the missed DRS event comprises determining that the access terminal did not detect a Cell-specific Reference Signal, CRS, for measuring a quality of the radio link transmitted during a DRS Measurement Timing Configuration, DMTC, window; assigning a Block Error Rate, BLER, weight to the missed DRS event based on reference signal monitoring capabilities of the access terminal, wherein assigning the BLER weight comprises: assigning a first value to the BLER weight based on the access terminal being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission; or assigning a second value to the BLER weight based on the access terminal not being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission, wherein the first value is greater than the second value; and triggering a radio link failure based on the assigned BLER weight detecting a missed Discovery reference signaling, DRS, event associated with a radio link established on the shared communication medium between the access terminal and an access point, wherein detecting the missed DRS event comprises determining that the access terminal did not detect a Cell-specific Reference Signal, CRS, for measuring a quality of the radio link transmitted during a DRS Measurement Timing Configuration, DMTC, window; assigning a Block Error Rate, BLER, weight to the missed DRS event based on reference signal monitoring capabilities of the access terminal, wherein assigning the BLER weight comprises: assigning a first value to the BLER weight based on the access terminal being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission; or assigning a second value to the BLER weight based on the access terminal not being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission, wherein the first value is greater than the second value; and assigning a first value to the BLER weight based on the access terminal being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission; or assigning a second value to the BLER weight based on the access terminal not being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission, wherein the first value is greater than the second value; and triggering a radio link failure based on the assigned BLER weight
An ABS-based resin composition comprising: 100 parts by weight of a base resin comprising 20 to 40 % by weight of a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer and 60 to 80 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer; and 1.5 to 2.5 parts by weight of a polyether-modified polysiloxane. 100 parts by weight of a base resin comprising 20 to 40 % by weight of a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer and 60 to 80 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer; and 1.5 to 2.5 parts by weight of a polyether-modified polysiloxane.
A system for generating high-energy ultra-short light pulses, comprising a generator adapted to generate at least one short, time-stretched, source pulse, a non-linear amplification and non-linear compression optical amplifier comprising an amplifying optical fibre having a negative group velocity dispersion β 2 in a use wavelength range, said non-linear amplification and non-linear compression optical amplifier being adapted to non-linearly amplify and compress said short, time-stretched, source pulse and to form an amplified pulse (12, 120), wherein the system includes a spectral shaping module arranged downstream from said amplifying optical fibre, the spectral shaping module comprising an optical component comprising an optical fibre or a solid crystal or a solid non-crystalline material or a disk, the optical component having a positive group velocity dispersion β 2 and a non-linear coefficient y, the length of the optical component of the spectral shaping module being chosen as a function of a second peak power at the input of the spectral shaping module, of the group velocity dispersion β 2 and of the non-linear coefficient γ of the optical component of the spectral shaping module, said spectral shaping module being adapted to receive and spectrally broaden said amplified pulse (12, 120), et characterized in that the system comprises a compressor (4, 41) having a negative group velocity dispersion, and the compressor (4, 41) being arranged downstream from the non-linear amplification and non-linear compression optical amplifier.
A railway vehicle car, comprising: - at least one body extending in a longitudinal direction (X-X') of travel of the railway vehicle, the body defining at least one internal compartment for receiving passengers (19A, 19B), - at least one glazed opening extending between the compartment and the exterior of the car, and - a device for obscuring the opening, capable of at least partially blocking the passage of light through at least part of the opening, in a manner that can be controlled by one of the passengers (19A, 19B), characterised in that the obscuring device comprises a plurality of panels movable substantially in the longitudinal direction (X-X') between at least one position in which at least one of the panels is at least partially facing the opening and a position in which the panels are located away from the opening, wherein each of the panels of the obscuring device is movable independently of the other panels. - at least one body extending in a longitudinal direction (X-X') of travel of the railway vehicle, the body defining at least one internal compartment for receiving passengers (19A, 19B), - at least one glazed opening extending between the compartment and the exterior of the car, and - a device for obscuring the opening, capable of at least partially blocking the passage of light through at least part of the opening, in a manner that can be controlled by one of the passengers (19A, 19B), characterised in that the obscuring device comprises a plurality of panels movable substantially in the longitudinal direction (X-X') between at least one position in which at least one of the panels is at least partially facing the opening and a position in which the panels are located away from the opening, wherein each of the panels of the obscuring device is movable independently of the other panels. characterised in that the obscuring device comprises a plurality of panels movable substantially in the longitudinal direction (X-X') between at least one position in which at least one of the panels is at least partially facing the opening and a position in which the panels are located away from the opening, wherein each of the panels of the obscuring device is movable independently of the other panels.
A device for active steering of a vehicle with a power steering arrangement, comprising a valve body arranged to be switched in opposite directions by a steering wheel movement for distribution of a pressurised fluid to a fluid-driven actuator in the power steering arrangement, characterised by the valve body being divided into a pair of parts which are movable in mutually opposite directions (50, 60), the parts being a part which provides the valve function and a part which is firmly connected to the steering wheel; and by positioning means which operate between the parts (50, 60) in order to switch the valve body independently of the steering wheel movement.
A system for exerting forces on a body (106, 214, 310, 502) of a mammal, the system comprising: a) a frame (140, 240, 410, 665, 667, 916, 1087, 1089), the frame being adapted to surround the body and to support a body weight of the body, wherein the frame further has an inner surface (127, 202, 450, 903) and defines an interior space, b) a plurality of surface contacting units associated with said interior space, wherein said surface contacting units are configured to exert a force upon the body retained in said interior space, characterized in that said surface contacting units are weight-bearing elements (104, 142, 143, 146, 205, 304, 306 to 313, 406, 412 to 416, 654, 904) which are supported by the frame, wherein the weight-bearing elements are arranged to occupy a space between the inner surface of the frame and the body, wherein the weight-bearing elements are free to move independently of each other while exerting the force onto the body, wherein the weight-bearing elements have free ends to contact the body, and wherein said weight-bearing elements are configured to minimize shear and/or frictional forces on surfaces of said body. a) a frame (140, 240, 410, 665, 667, 916, 1087, 1089), the frame being adapted to surround the body and to support a body weight of the body, wherein the frame further has an inner surface (127, 202, 450, 903) and defines an interior space, b) a plurality of surface contacting units associated with said interior space, wherein said surface contacting units are configured to exert a force upon the body retained in said interior space, characterized in that
A synchronization method for transmitting a synchronization signal by controlling a transmission direction of a transmitting beam for the synchronization signal by means of beamforming using a plurality of antenna elements provided in a mobile station apparatus, the synchronization method comprising: a connection request step of transmitting, from the mobile station apparatus, a connection request signal for requesting a communication apparatus (MeNB) that manages control information, including whether or not there is a base station apparatus (MMeNB) located around the mobile station apparatus, to connect with the base station apparatus (MMeNB); a control information receiving step of receiving the control information from the communication apparatus (MeNB) in the mobile station apparatus, wherein, in a synchronization signal processing step, when information to indicate the presence of the base station apparatus (MMeNB) is included in the control information received from the communication apparatus (MeNB), the synchronization signal is generated, and the beamforming weight for the synchronization signal is changed at predetermined time intervals; the synchronization signal processing step of generating the synchronization signal including identification information of the mobile station apparatus, and changing a beamforming weight for the synchronization signal at predetermined time intervals; and a transmitting step of transmitting the synchronization signals generated in accordance with each beamforming weight on uplink to the base station apparatus (MMeNB). a connection request step of transmitting, from the mobile station apparatus, a connection request signal for requesting a communication apparatus (MeNB) that manages control information, including whether or not there is a base station apparatus (MMeNB) located around the mobile station apparatus, to connect with the base station apparatus (MMeNB); a control information receiving step of receiving the control information from the communication apparatus (MeNB) in the mobile station apparatus, wherein, in a synchronization signal processing step, when information to indicate the presence of the base station apparatus (MMeNB) is included in the control information received from the communication apparatus (MeNB), the synchronization signal is generated, and the beamforming weight for the synchronization signal is changed at predetermined time intervals; the synchronization signal processing step of generating the synchronization signal including identification information of the mobile station apparatus, and changing a beamforming weight for the synchronization signal at predetermined time intervals; and a transmitting step of transmitting the synchronization signals generated in accordance with each beamforming weight on uplink to the base station apparatus (MMeNB).
A method of execution including a step of protecting an electronic device by affine masking, said device executing operations on secret variables x, said variables x being binary vectors of a given size N other than zero, said method being characterised in that said variables x are replaced, with the aid of a so-called affine masking operation, by the following affine function: m(x) = R.x + r, where R is a random invertible binary matrix with N rows and N columns and r is a random binary vector of size N, the operator + designating the "exclusive or" operator.
A method for manufacturing an electrically-conductive paste, the method comprising: bringing carbon nanotubes (hereinafter, referred to as "CNT") and a solvent into contact with each other so that a wetting rate represented by a formula below is 25 to 125%; kneading, by using a planetary stirring machine, a mixture containing the CNT and the solvent, to obtain a kneaded product in a paste state, the mixture being obtained by impregnating the CNT with the solvent; and performing dispersion processing on a dilution obtained by mixing a solvent into the kneaded product obtained, wherein the wetting rate % = A/B × 100 where A is a concentration of the CNT, when the solvent has penetrated to a maximum extent, and is calculated by a formula below, A (%) = 1g of the CNT/(1g of the CNT + a maximum penetration weight [g] of the solvent per 1g of the CNT) × 100, and B is a concentration of the CNT in the mixture, and is calculated by a formula below, B % = a weight of the CNT g /a weight of the mixture g × 100. bringing carbon nanotubes (hereinafter, referred to as "CNT") and a solvent into contact with each other so that a wetting rate represented by a formula below is 25 to 125%; kneading, by using a planetary stirring machine, a mixture containing the CNT and the solvent, to obtain a kneaded product in a paste state, the mixture being obtained by impregnating the CNT with the solvent; and performing dispersion processing on a dilution obtained by mixing a solvent into the kneaded product obtained, wherein the wetting rate % = A/B × 100 where A is a concentration of the CNT, when the solvent has penetrated to a maximum extent, and is calculated by a formula below, A (%) = 1g of the CNT/(1g of the CNT + a maximum penetration weight [g] of the solvent per 1g of the CNT) × 100, and B is a concentration of the CNT in the mixture, and is calculated by a formula below, B % = a weight of the CNT g /a weight of the mixture g × 100.
A liquid laundry detergent composition comprising:- (a) from 5 to 40 wt.% of surfactant; (b) from 0.05 to 5 wt.% of fabric softening anionic silicone; and (c) from 0.05 to 2.5 wt.% of cationic polymer, wherein the anionic group(s) on the fabric softening anionic silicone are located at least 5 Si atoms from a terminal position on the longest linear silicone chain; and, wherein the liquid detergent composition has a pH of from 6 to 10. (a) from 5 to 40 wt.% of surfactant; (b) from 0.05 to 5 wt.% of fabric softening anionic silicone; and (c) from 0.05 to 2.5 wt.% of cationic polymer,
An apparatus comprising a surface heater, the surface heater comprising: a heating substrate (10, 110) comprising an electrically insulating surface; a heating element (30, 130) attached to the electrically insulating surface, the heating element (30, 130) comprising lanthanide oxide and a metal material; and a power supply unit (50, 150) to supply electricity to the heating element (30, 130), characterized in that the electrically insulating surface comprises a glass material, and in that the heating element (30, 130) is attached to the electrically insulating surface by sintering a predetermined powder comprising a lanthanide oxide powder, a metal powder, and a glass powder, and the lanthanide oxide is lanthanum cobalt oxide. a heating substrate (10, 110) comprising an electrically insulating surface; a heating element (30, 130) attached to the electrically insulating surface, the heating element (30, 130) comprising lanthanide oxide and a metal material; and a power supply unit (50, 150) to supply electricity to the heating element (30, 130), characterized in that the electrically insulating surface comprises a glass material, and in that the heating element (30, 130) is attached to the electrically insulating surface by sintering a predetermined powder comprising a lanthanide oxide powder, a metal powder, and a glass powder, and the lanthanide oxide is lanthanum cobalt oxide.