mhurhangee/ep-ind-claims huggingface dataset:
A personal hygiene device comprising a resonant motor comprising a motor coil and at least one movable motor armature carrying at least one permanent magnet assembly having at least one permanent magnet fixedly connected with the motor armature, which motor armature is held in a rest position by at least one spring element; a motor control unit for applying a periodic voltage signal with a driving frequency at the motor coil of the resonant motor for driving the motor armature of the resonant motor into an oscillating motion with an oscillating frequency equal to the driving frequency, where the periodic voltage signal has a period that is divided into two equally long half cycles; wherein the motor control unit comprises a synthesizer circuit for digitally synthesizing the periodic voltage signal from voltage pulses of variable length provided with a pulse frequency higher than the driving frequency such that at least two voltage pulses are applied in at least one of the two half cycles of each period of the periodic voltage signal.
Member for electrical insulation between an electrical device, comprising an electrical circuit adapted to be connected directly to an overhead line, and a member for cooling the electric device, characterised in that the member comprises: - an electrically-conductive section, whereby the conductive section extends vertically along a longitudinal axis (A-A') and is adapted to be applied at least locally against the electrical device, - at least one electrically insulating section (32, 34), applied on the conductive section, and - a layer of insulating material applied at least locally on the conductive section, the conductive section comprising at least one flange (66A, 66B) on one of its walls (64A, 64B), whereby the or each flange (66A, 66B) projecting longitudinally from a lateral section of the conductive section to delimit an area of gradual longitudinal penetration of the insulating section (32, 34) in contact with the conductive section and the layer of insulating material, the said gradual penetration area delimiting at least one junction interface between the insulating section (32, 34), the conductive section and the layer of insulating material, the said gradual penetration area being configured to allow a relaxation of the dielectric stress at the junction interface. - an electrically-conductive section, whereby the conductive section extends vertically along a longitudinal axis (A-A') and is adapted to be applied at least locally against the electrical device, - at least one electrically insulating section (32, 34), applied on the conductive section, and - a layer of insulating material applied at least locally on the conductive section,
An accessory device used for a plurality of first devices, wherein the accessory device and the first devices are disposed separately in space, and the accessory device comprises: a transceiver unit, configured to: communicate with the first devices, and obtain device information of the first devices; and a control unit, configured to: write the device information of the first devices obtained by the transceiver unit into a near field communication, NFC, storage medium; and when an NFC connection is established between the accessory device and a second device, control the transceiver unit to send the device information of any one of the first devices to the second device, wherein the control unit is further configured to: establish a one-to-one correspondence between device information of the plurality of first devices and shortcut keys (511, 512, 513) of the accessory device, and control, based on shortcut key (511, 512, 513) selection made by a user, the transceiver unit to send device information of any one of the first devices corresponding to the shortcut key (511, 512, 513) selected by the user to the second device; and wherein the device information of the first devices is used to establish communication between the first devices and the second device. a transceiver unit, configured to: communicate with the first devices, and obtain device information of the first devices; and a control unit, configured to: write the device information of the first devices obtained by the transceiver unit into a near field communication, NFC, storage medium; and when an NFC connection is established between the accessory device and a second device, control the transceiver unit to send the device information of any one of the first devices to the second device, wherein the control unit is further configured to: establish a one-to-one correspondence between device information of the plurality of first devices and shortcut keys (511, 512, 513) of the accessory device, and control, based on shortcut key (511, 512, 513) selection made by a user, the transceiver unit to send device information of any one of the first devices corresponding to the shortcut key (511, 512, 513) selected by the user to the second device; and wherein the device information of the first devices is used to establish communication between the first devices and the second device.
A method for responding to an incoming call, wherein the method is performed by a first terminal, the first terminal has a first subscriber identity module SIM number, and the method comprises: receiving, from a network, an incoming call that is for the first SIM number and that is from a third SIM number; and in response to an incoming call rejection instruction that is entered by a user for the incoming call, sending, to the network, a message used to reject the incoming call; receiving first information from a second terminal, wherein the first information comprises an identity of a cell to which the second terminal belongs; when the first terminal and the second terminal have a same cell identity, if a distance between the first terminal and the second terminal is less than a preset threshold, sending indication information to the second terminal, wherein the indication information is used to indicate the second terminal to send, to the network, a message used to reject the incoming call, and the indication information comprises one or more of the third SIM number, the first SIM number, location information of the first terminal; wherein the second terminal has a second SIM number, the second SIM number is the same as the first SIM number, the second terminal and the first terminal simultaneously receive, from the network, the incoming call that is for the first SIM number and the second SIM number and that is from the third SIM number. receiving, from a network, an incoming call that is for the first SIM number and that is from a third SIM number; and in response to an incoming call rejection instruction that is entered by a user for the incoming call, sending, to the network, a message used to reject the incoming call; receiving first information from a second terminal, wherein the first information comprises an identity of a cell to which the second terminal belongs; when the first terminal and the second terminal have a same cell identity, if a distance between the first terminal and the second terminal is less than a preset threshold, sending indication information to the second terminal, wherein the indication information is used to indicate the second terminal to send, to the network, a message used to reject the incoming call, and the indication information comprises one or more of the third SIM number, the first SIM number, location information of the first terminal; wherein the second terminal has a second SIM number, the second SIM number is the same as the first SIM number, the second terminal and the first terminal simultaneously receive, from the network, the incoming call that is for the first SIM number and the second SIM number and that is from the third SIM number.
A method for manufacturing fabric that passes colonnaded light, comprising: weaving a first yarn and a second yarn to create a woven fabric (300A, 300B, 300C); weaving a light emitting yarn through the woven fabric, wherein the light emitting yarn creates a plurality of loops of light emitting yarn on either side of the woven fabric; and finishing the woven fabric (300A, 300B) to create columns of light emitting yarn throughout the fabric by removing the plurality of loops, the finished woven fabric having a first side and a second side and the columns of the light emitting yarn extending to and between the first side and the second side of the woven fabric exposing an optical core of the light emitting yarn at the first side and the second side of the woven fabric. weaving a first yarn and a second yarn to create a woven fabric (300A, 300B, 300C); weaving a light emitting yarn through the woven fabric, wherein the light emitting yarn creates a plurality of loops of light emitting yarn on either side of the woven fabric; and finishing the woven fabric (300A, 300B) to create columns of light emitting yarn throughout the fabric by removing the plurality of loops, the finished woven fabric having a first side and a second side and the columns of the light emitting yarn extending to and between the first side and the second side of the woven fabric exposing an optical core of the light emitting yarn at the first side and the second side of the woven fabric.
A method of communicating between a terminal and a secure element comprising, at the secure element: determining a challenge; sending the challenge to the terminal; receiving a response (124, 126) from the terminal comprising the challenge and personal identification number, PIN, data, the response encrypted with a public key; decrypting the response (124, 126) using a private key of the secure element corresponding to the public key; determining if the challenge received in the response matches the challenge sent to the terminal; and if the challenge received in the response does not match the challenge sent to the terminal, further comprising: performing a computation using the received challenge and the sent challenge to detect the presence of additional data in the response; and recovering, as an output of the computation, an operation code, wherein the operation code is indicative of an action to be performed by the secure element. determining a challenge; sending the challenge to the terminal; receiving a response (124, 126) from the terminal comprising the challenge and personal identification number, PIN, data, the response encrypted with a public key; decrypting the response (124, 126) using a private key of the secure element corresponding to the public key; determining if the challenge received in the response matches the challenge sent to the terminal; and if the challenge received in the response does not match the challenge sent to the terminal, further comprising: performing a computation using the received challenge and the sent challenge to detect the presence of additional data in the response; and recovering, as an output of the computation, an operation code, wherein the operation code is indicative of an action to be performed by the secure element. performing a computation using the received challenge and the sent challenge to detect the presence of additional data in the response; and recovering, as an output of the computation, an operation code, wherein the operation code is indicative of an action to be performed by the secure element.
A method performed by a user equipment for transmitting hybrid automatic repeat request feedback information, the method comprising: determining a reception window of data on which hybrid automatic repeat request bundling is to be performed; detecting data in the reception window; and bundling and transmitting hybrid automatic repeat request feedback information for the data detected in the reception window by performing a logical operation on the hybrid automatic repeat request feedback information, wherein the data detected in the reception window comprises a plurality of physical downlink shared channels, wherein the method further comprises: determining a length and a starting position of the reception window, characterized in that the length of the reception window is determined based on the number of repetitions of each physical downlink shared channel and each physical downlink control channel associated with each physical downlink shared channel, and wherein a subframe included in a frame satisfying a predefined condition is determined as the starting position of the reception window, the predefined condition is related to the number of the frame, the number of the subframe, and the length of the reception window. determining a reception window of data on which hybrid automatic repeat request bundling is to be performed; detecting data in the reception window; and bundling and transmitting hybrid automatic repeat request feedback information for the data detected in the reception window by performing a logical operation on the hybrid automatic repeat request feedback information, wherein the data detected in the reception window comprises a plurality of physical downlink shared channels, wherein the method further comprises: determining a length and a starting position of the reception window, characterized in that the length of the reception window is determined based on the number of repetitions of each physical downlink shared channel and each physical downlink control channel associated with each physical downlink shared channel, and wherein a subframe included in a frame satisfying a predefined condition is determined as the starting position of the reception window, the predefined condition is related to the number of the frame, the number of the subframe, and the length of the reception window.
An electrical connector assembly for an airbag ignition device, comprising a connector with a connector body having a first housing part and a second housing part with a connecting portion, wherein the housing parts (40, 50) are movable relative to each other along a housing axis, wherein an elastic member holds the housing parts (40, 50) together, wherein the second housing part has on its surface a projection with a first sliding surface extending diagonally to the housing axis, the electrical connector assembly further comprising a counter connector with a connector receiving portion formed to receive and electrically and mechanically connect the connecting portion of the connector, having a collar which partially confines the connector receiving portion, wherein the collar has a second sliding surface arranged complementary to the first sliding surface, when the connectors (10, 100) are aligned with a plugging axis, while the connectors are being connected to each other, the sliding surfaces (52, 152) cooperate with each other, whereby a plugging force (Fs) is applied to the connector in the plugging direction and thereby the first sliding surface slides on the second sliding surface, wherein the second housing part is moved away from the first housing part against a restoring force (Fr) of the elastic element along the housing axis, the second sliding surface terminates at a recess in the collar, in fully assembled condition the projection is located in an end plane with the recess so that the elastic element pulls the projection into the recess and locks the connector body with the counter connector.
A multilayer film comprising: a. a first layer comprising a halogen-free, substantially chemically inert polymer; b. a second layer comprising high density polyethylene (HDPE), a nucleating agent, and a hydrocarbon resin; c. a third layer comprising a halogen-free, substantially chemically inert polymer; d. a tie layer between the first and second layers; and e. a tie layer between the second and third layers; wherein the second layer is between the first and third layers, wherein the halogen-free, substantially chemically inert polymer has a melt viscosity from 2879,5 Pa.s (28795 Poise) to 4807.7 Pa.s (48077 Poise) at 1 radian/second shear rate at a temperature of 220°C. a. a first layer comprising a halogen-free, substantially chemically inert polymer; b. a second layer comprising high density polyethylene (HDPE), a nucleating agent, and a hydrocarbon resin; c. a third layer comprising a halogen-free, substantially chemically inert polymer; d. a tie layer between the first and second layers; and e. a tie layer between the second and third layers;
A fire retardant for a cigarette paper, characterizing in that: the fire retardant comprises 10%-30% film-forming material by weight, 10%-30% filling material by weight and 40%-80% solvent by weight, and the film-forming material is selected from the group consisting of the following materials: cationic starch, anionic starch, oxidized starch, arabic gum, methylcellulose, carboxymethylcellulose, vinyl alcohol, alginate, or a mixture of any above materials, the filling material is selected from the group consisting of the following materials: calcium carbonate, magnesium oxide, magnesium hydroxide, aluminum hydroxide, talcum powder, or a mixture of any above materials; wherein the filling material comprises at least 10% magnesium hydroxide by weight, and the solvent comprises at least 24% ethanol by weight and the remaining part of the solvent is water. the fire retardant comprises 10%-30% film-forming material by weight, 10%-30% filling material by weight and 40%-80% solvent by weight, and the film-forming material is selected from the group consisting of the following materials: cationic starch, anionic starch, oxidized starch, arabic gum, methylcellulose, carboxymethylcellulose, vinyl alcohol, alginate, or a mixture of any above materials, the filling material is selected from the group consisting of the following materials: calcium carbonate, magnesium oxide, magnesium hydroxide, aluminum hydroxide, talcum powder, or a mixture of any above materials; wherein the filling material comprises at least 10% magnesium hydroxide by weight, and the solvent comprises at least 24% ethanol by weight and the remaining part of the solvent is water.
A fluoropolymer composition [composition], said composition comprising: - at least one vinylidene fluoride homopolymer [PVDF] in an amount of from 55 to 85 % wt, said PVDF possessing a first molecular weight (M PVDF); - at least one VDF semi-crystalline copolymer comprising recurring units derived from VDF and recurring units derived from HFP [VDF copolymer] in an amount of from 15 to 45 % wt, said VDF copolymer possessing a second molecular weight (M VDF copolymer) such that M VDF copolymer is higher than M PVDF; the % wt being referred to the sum of weights of PVDF and VDF copolymer, and - at least one high density ethylene polymer [polymer], comprising more than 70 % weight of recurring units derived from ethylene, and possibly comprising recurring units derived from at least one alpha-olefin different from ethylene, said polymer possessing a density of from 930 to 970 kg/m 3, said polymer being comprised in an amount of at least 0.05 weight parts and at most 5 weight parts, per 100 weight parts of combined amount of PVDF and VDF copolymer. - at least one vinylidene fluoride homopolymer [PVDF] in an amount of from 55 to 85 % wt, said PVDF possessing a first molecular weight (M PVDF); - at least one VDF semi-crystalline copolymer comprising recurring units derived from VDF and recurring units derived from HFP [VDF copolymer] in an amount of from 15 to 45 % wt, said VDF copolymer possessing a second molecular weight (M VDF copolymer) such that M VDF copolymer is higher than M PVDF; the % wt being referred to the sum of weights of PVDF and VDF copolymer, and - at least one high density ethylene polymer [polymer], comprising more than 70 % weight of recurring units derived from ethylene, and possibly comprising recurring units derived from at least one alpha-olefin different from ethylene, said polymer possessing a density of from 930 to 970 kg/m 3, said polymer being comprised in an amount of at least 0.05 weight parts and at most 5 weight parts, per 100 weight parts of combined amount of PVDF and VDF copolymer.
A router operable to communicate with a controller over a control network and one or more devices on a device network, comprising: a processor, and a non-transient computer readable medium including instructions that upon execution cause the router to: (i) poll for a device over the device network at a predetermined address; (ii) receive a valid response to the poll from an unconfigured device; (iii) upon receiving a valid response to the poll, broadcast an identification request to each device on the device network having a device object ID within a predetermined set of device object IDs; (iv) receive responses to the identification requests from each device on the device network having a device object ID within a predetermined set of device object IDs, the responses including the MAC address of the devices; (v) store the MAC addresses received in the responses to the identification requests; (vi) select a proposed MAC address based upon the stored MAC addresses; (vii) select a proposed device object ID; (viii) poll the control network for a device having the proposed device object ID and determine whether a device has the proposed device object ID; (ix) transmit instructions to the unconfigured device to write the proposed object ID to non-transient computer readable medium of the unconfigured device; and, (x) transmit instructions to the unconfigured device to write the proposed MAC address to the non-transient computer readable medium of the unconfigured device, and wherein the router is a BACnet router, the device network is a MS/TP network, and the devices are BACnet devices in communication with the BACnet router over the MS/TP network. (i) poll for a device over the device network at a predetermined address; (ii) receive a valid response to the poll from an unconfigured device; (iii) upon receiving a valid response to the poll, broadcast an identification request to each device on the device network having a device object ID within a predetermined set of device object IDs; (iv) receive responses to the identification requests from each device on the device network having a device object ID within a predetermined set of device object IDs, the responses including the MAC address of the devices; (v) store the MAC addresses received in the responses to the identification requests; (vi) select a proposed MAC address based upon the stored MAC addresses; (vii) select a proposed device object ID; (viii) poll the control network for a device having the proposed device object ID and determine whether a device has the proposed device object ID; (ix) transmit instructions to the unconfigured device to write the proposed object ID to non-transient computer readable medium of the unconfigured device; and, (x) transmit instructions to the unconfigured device to write the proposed MAC address to the non-transient computer readable medium of the unconfigured device, and