mhurhangee/patent-ind-claim-en huggingface dataset:
Electric wire harness established based on an electric wire layout of an electrical panel prepared for connecting electrical panel equipment of said electrical panel , the wire harness comprising: a plurality of electric wires of different dimensions having first and second wire ends , and a connector with locations for fastening and storage of a plurality of said first wire ends , where the locations of said first wire ends in said connector match the final locations of said first wire ends in the electrical panel , wherein the electric wire harness is characterized in that the connector is a dummy connector with terminals for temporary connection and storage of a plurality of said first wire ends , and in that the sequence of the wires in the connector is determined by the electric wire layout of the electric panel. a plurality of electric wires of different dimensions having first and second wire ends , and a connector with locations for fastening and storage of a plurality of said first wire ends , where the locations of said first wire ends in said connector match the final locations of said first wire ends in the electrical panel , wherein the electric wire harness is characterized in that the connector is a dummy connector with terminals for temporary connection and storage of a plurality of said first wire ends , and in that the sequence of the wires in the connector is determined by the electric wire layout of the electric panel.
A network slave device comprising: a transceiver for communicating over a communication bus in accordance with a point-to-point network protocol; an address to identify the network slave device; a communication circuit configured to process a series of commands received by the transceiver and respond to a command if a position of the command in the series of commands corresponds to the address of the network slave device; and a counter configured: to count the number of commands received by the transceiver ; respond to a reset command by resetting the counter; and reset the counter when a number of commands received meets or exceeds a number of slave devices coupled to the communication bus. a transceiver for communicating over a communication bus in accordance with a point-to-point network protocol; an address to identify the network slave device; a communication circuit configured to process a series of commands received by the transceiver and respond to a command if a position of the command in the series of commands corresponds to the address of the network slave device; and a counter configured: to count the number of commands received by the transceiver ; respond to a reset command by resetting the counter; and reset the counter when a number of commands received meets or exceeds a number of slave devices coupled to the communication bus. to count the number of commands received by the transceiver ; respond to a reset command by resetting the counter; and reset the counter when a number of commands received meets or exceeds a number of slave devices coupled to the communication bus.
An apparatus comprising: memory; and, processing circuitry coupled to the memory, the processing circuitry configured to: encode a preamble for an HE Physical Layer Convergence Protocol, PLCP, Protocol Data Unit, PPDU, the preamble comprising a legacy portion comprising one or more legacy signal, L-SIG, fields (206; 306), the one or more L-SIG fields (206; 306) comprising a length field , wherein a modulo 3 of a value of the length field equal to 1 or equal to 2 indicates the preamble comprises a high efficiency, HE, preamble portion (200; 300), and wherein the one or more L-SIG fields indicate a first HE SIG A format or a second HE SIG A format ; and configure the HE PPDU, to include the preamble , for transmission by a wireless device. encode a preamble for an HE Physical Layer Convergence Protocol, PLCP, Protocol Data Unit, PPDU, the preamble comprising a legacy portion comprising one or more legacy signal, L-SIG, fields (206; 306), the one or more L-SIG fields (206; 306) comprising a length field , wherein a modulo 3 of a value of the length field equal to 1 or equal to 2 indicates the preamble comprises a high efficiency, HE, preamble portion (200; 300), and wherein the one or more L-SIG fields indicate a first HE SIG A format or a second HE SIG A format ; and configure the HE PPDU, to include the preamble , for transmission by a wireless device.
A computer-implemented method of detecting one or more branches of a blood vessel comprising storing one or more intravascular image datasets of the blood vessel, each intravascular dataset comprising a plurality of A-lines; detecting a lumen boundary in a first A-line image generated from a set of A-lines from the plurality of A-lines, wherein the first A-line image has an r dimension and an A-line dimension; specifying a predetermined search distance T; defining a search region, the search region bounded by the detected lumen boundary and a boundary offset therefrom by the predetermined distance T; detecting edges in the search region; and identifying a candidate branching region in response to the detected edges. storing one or more intravascular image datasets of the blood vessel, each intravascular dataset comprising a plurality of A-lines; detecting a lumen boundary in a first A-line image generated from a set of A-lines from the plurality of A-lines, wherein the first A-line image has an r dimension and an A-line dimension; specifying a predetermined search distance T; defining a search region, the search region bounded by the detected lumen boundary and a boundary offset therefrom by the predetermined distance T; detecting edges in the search region; and identifying a candidate branching region in response to the detected edges.
A method for operating a passive radar, which passive radar comprises a receiving unit for receiving a signal reflected from a radar target , and comprises a processing unit , the receiving unit being used for processing the reflected signal , taking into account a reference signal for detecting a target, which reference signal is correlated with the reflected signal , - the receiving unit of the passive radar being spatially positioned in relation to a non-cooperative transmitter that is used for illuminating a target, such that the signal of the non-cooperative transmitter received directly by the receiving unit is only very weak, specifically in the range of the thermal noise limit or not present at all, - the reference signal being derived by means of alternative transmission paths as opposed to by means of transmission , directly from the non-cooperative transmitter to the passive radar, and being made available to the processing unit , characterized in that the signal of the non-cooperative transmitter used for illuminating the target is the transmitted signal emitted by a radio transmitter, and the reference signal is derived by the passive radar receiving a signal by means of a further receiving unit , which signal has been picked up, before transmission, by the radio transmitter at the signal source associated with the radio transmitter, and has been transferred to the further receiving unit of the passive radar via one of the following further transmission channels : - signal transmission via the Internet ; - signal transmission via satellite ; - signal transmission via a cable . - the receiving unit of the passive radar being spatially positioned in relation to a non-cooperative transmitter that is used for illuminating a target, such that the signal of the non-cooperative transmitter received directly by the receiving unit is only very weak, specifically in the range of the thermal noise limit or not present at all, - the reference signal being derived by means of alternative transmission paths as opposed to by means of transmission , directly from the non-cooperative transmitter to the passive radar, and being made available to the processing unit , - signal transmission via the Internet ; - signal transmission via satellite ; - signal transmission via a cable .
A method for allowing an authorized user to recover encrypted data from a target secure storage device , the target secure storage device having a user interface for entering a user code to access the encrypted data, the authorized user not having access to the user code to unlock the target secure storage device , the method comprising the following steps: coupling the target portable secure storage device to a recovery module ; and coupling a plurality of authorized secure storage devices to the recovery module ; wherein the method further comprises the following steps performed by the recovery module : receiving a recovery request to recover the encrypted data; sending a transfer command to the target secure storage device ; receiving an authorization request from the target secure storage device in response to the transfer command; responding to the authorization request; receiving the encrypted data from the target secure storage device ; retrieving a plurality of encryption keys from the plurality of authorized secure storage devices ; decrypting a decryption key with the plurality of encryption keys; and decrypting the encrypted data with the decryption key. coupling the target portable secure storage device to a recovery module ; and coupling a plurality of authorized secure storage devices to the recovery module ; wherein the method further comprises the following steps performed by the recovery module : receiving a recovery request to recover the encrypted data; sending a transfer command to the target secure storage device ; receiving an authorization request from the target secure storage device in response to the transfer command; responding to the authorization request; receiving the encrypted data from the target secure storage device ; retrieving a plurality of encryption keys from the plurality of authorized secure storage devices ; decrypting a decryption key with the plurality of encryption keys; and decrypting the encrypted data with the decryption key. receiving a recovery request to recover the encrypted data; sending a transfer command to the target secure storage device ; receiving an authorization request from the target secure storage device in response to the transfer command; responding to the authorization request; receiving the encrypted data from the target secure storage device ; retrieving a plurality of encryption keys from the plurality of authorized secure storage devices ; decrypting a decryption key with the plurality of encryption keys; and decrypting the encrypted data with the decryption key.
A composition for a UV-crosslinked hot-melt pressure-sensitive adhesive used for a PVC insulation adhesive tape, comprising the following major components: polymers containing vinyl monomers, functional monomers, soft monomers, and photoinitiators, a polymerization initiator, and an antioxidant, wherein the vinyl monomer is selected from a group consisting of one or more n-butyl acrylate, 2-ethylhexyl acrylate, n-octyl acrylate, isobornyl acrylate, n-dodecyl acrylate, methyl n-butyl acrylate, methyl 2-ethylhexyl acrylate, and methyl n-octyl acrylate, and the amount of the vinyl monomer is 40-65% of the total amount, wherein the functional monomer is N-vinylpyrrolidone, and the amount thereof is 2-10% of the total amount, wherein the soft monomer is C17 acrylate or methyl acrylate, and the amount thereof is 5-15% of the total amount, wherein the photoinitiator is methacryloyloxy or acryloyloxy containing acetophenone or benzophenone derivative, and the amount thereof is 2-10% of the total amount, and wherein the polymerization initiator comprises azo compounds, acyl peroxides, and alkyl peroxides, the azo compound being 2,2-azobisisobutyronitrile, and the acyl peroxides being benzoyl peroxide, didecanoyl peroxide or isononanoyl peroxide, or the polymerization initiator is benzotriazole-1-yl-oxy-tris(dimethylamino) phosphonium hexafluorophosphate, and the amount of the polymerization initiator is 1-10% of the total amount.
A film assembly comprising: a film ; a plurality of elongated members provided on one surface of the film and mutually spaced apart in a longitudinal direction of the film ; and a tab , wherein the elongated members each comprises: an elongated tearing guide piece ; and a belt-shaped base provided on a surface of the tearing guide piece opposite a surface of the tearing guide piece facing the film , the belt-shaped base extending along a longitudinal direction of the tearing guide piece , the tab comprises an outer edge defined by a cutting line penetrating through the belt-shaped base and the film , the tab allowing the tearing guide piece to be pinched, and a length (L1) of the film in a width direction is more than twice as large as a length (L2) of each of the elongated members in a longitudinal direction, a protector covering the tab is provided on a surface of the film provided with the belt-shaped base , characterized in that the protector is further provided on a surface of the belt-shaped base opposite to the tearing guide piece . a film ; a plurality of elongated members provided on one surface of the film and mutually spaced apart in a longitudinal direction of the film ; and a tab , wherein the elongated members each comprises: an elongated tearing guide piece ; and a belt-shaped base provided on a surface of the tearing guide piece opposite a surface of the tearing guide piece facing the film , the belt-shaped base extending along a longitudinal direction of the tearing guide piece , the tab comprises an outer edge defined by a cutting line penetrating through the belt-shaped base and the film , the tab allowing the tearing guide piece to be pinched, and a length (L1) of the film in a width direction is more than twice as large as a length (L2) of each of the elongated members in a longitudinal direction, a protector covering the tab is provided on a surface of the film provided with the belt-shaped base , characterized in that the protector is further provided on a surface of the belt-shaped base opposite to the tearing guide piece .
A near-field UHF identification system comprising: i) an object that is or contains electrically conductive material; and ii) an ultra-high radio-frequency microstrip transponder comprising a microstrip line and an identification microchip connected to the microstrip line ; and wherein: the microstrip transponder being on the object at a location where the object has an electrically conductive region, the line following at least one edge of the object ; and the system being configured in such a manner that, when the identification system is being interrogated by an interrogator from below of the system, an identification signal from the identification microchip is transmittable from the microstrip line via magnetic near field induced by electric current on the edge of the object to below the object in such a manner that the identification microchip is identifiable. i) an object that is or contains electrically conductive material; and ii) an ultra-high radio-frequency microstrip transponder comprising a microstrip line and an identification microchip connected to the microstrip line ; the microstrip transponder being on the object at a location where the object has an electrically conductive region, the line following at least one edge of the object ; and the system being configured in such a manner that, when the identification system is being interrogated by an interrogator from below of the system, an identification signal from the identification microchip is transmittable from the microstrip line via magnetic near field induced by electric current on the edge of the object to below the object in such a manner that the identification microchip is identifiable.
A computer-implemented method for controlling an unmanned aerial vehicle (UAV), comprising: detecting a target marker based on a plurality of images captured by an imaging device carried by the UAV ; determining a spatial relationship between the UAV and the target marker based at least in part on the plurality of images; controlling the UAV to approach the target marker based at least in part on the spatial relationship while controlling the imaging device to track the target marker such that the target marker remains within a field of view of the imaging device ; controlling the UAV to align its landing orientation according to a heading marker prior to landing the UAV ; and wherein the method is characterized in that the target marker includes a landing marker indicating a location to land the UAV and the heading marker indicating a landing orientation of the UAV, wherein a location of the heading marker relative to a center of the landing marker indicates a direction of the landing orientation of the UAV . detecting a target marker based on a plurality of images captured by an imaging device carried by the UAV ; determining a spatial relationship between the UAV and the target marker based at least in part on the plurality of images; controlling the UAV to approach the target marker based at least in part on the spatial relationship while controlling the imaging device to track the target marker such that the target marker remains within a field of view of the imaging device ; controlling the UAV to align its landing orientation according to a heading marker prior to landing the UAV ; and wherein the method is characterized in that the target marker includes a landing marker indicating a location to land the UAV and the heading marker indicating a landing orientation of the UAV, wherein a location of the heading marker relative to a center of the landing marker indicates a direction of the landing orientation of the UAV .
A method, comprising: obtaining a location of a wireless device; identifying multiple sensing devices; obtaining signal information sensed by the multiple sensing devices in relation to a radio white space channel; analyzing the signal information from the multiple sensing devices to determine whether the radio white space channel is available for use by the wireless device at the location; when the analyzing determines that the radio white space channel is available for use, causing the wireless device to communicate data over the radio white space channel rather than a cellular channel; characterised in that in an instance when the analyzing determines that the radio white space channel is available for use by the wireless device at the location, causing the multiple sensing devices to re-sense the radio white space channel more frequently than another instance where the analyzing determines that the radio white space channel is not available for use by the wireless device at the location. obtaining a location of a wireless device; identifying multiple sensing devices; obtaining signal information sensed by the multiple sensing devices in relation to a radio white space channel; analyzing the signal information from the multiple sensing devices to determine whether the radio white space channel is available for use by the wireless device at the location; when the analyzing determines that the radio white space channel is available for use, causing the wireless device to communicate data over the radio white space channel rather than a cellular channel; characterised in that in an instance when the analyzing determines that the radio white space channel is available for use by the wireless device at the location, causing the multiple sensing devices to re-sense the radio white space channel more frequently than another instance where the analyzing determines that the radio white space channel is not available for use by the wireless device at the location.
Automated laser cutting station for the production of semi-finished components for prosthetic surgery instruments comprising - at least one first automated operator configured to pick up hollow untreated components from a storage space and supply them to - a laser cutting apparatus comprising: a cutting chamber in which there is allocated a second automated operator , provided with a laser cutting head to make both holes able to define a cutting part of said prosthetic surgery instrument, and also optional auxiliary apertures on each of said untreated components , and a rotating mandrel , configured to retain each of said untreated components , which is mounted on movement means able to dispose it on each occasion inside said cutting chamber , - a control unit configured at least to move said second automated operator in order to orient said laser cutting head along a cutting path for cutting each hole to be made, with respect to the external surface of the untreated component . - at least one first automated operator configured to pick up hollow untreated components from a storage space and supply them to - a laser cutting apparatus comprising: a cutting chamber in which there is allocated a second automated operator , provided with a laser cutting head to make both holes able to define a cutting part of said prosthetic surgery instrument, and also optional auxiliary apertures on each of said untreated components , and a rotating mandrel , configured to retain each of said untreated components , which is mounted on movement means able to dispose it on each occasion inside said cutting chamber , a cutting chamber in which there is allocated a second automated operator , provided with a laser cutting head to make both holes able to define a cutting part of said prosthetic surgery instrument, and also optional auxiliary apertures on each of said untreated components , and a rotating mandrel , configured to retain each of said untreated components , which is mounted on movement means able to dispose it on each occasion inside said cutting chamber , - a control unit configured at least to move said second automated operator in order to orient said laser cutting head along a cutting path for cutting each hole to be made, with respect to the external surface of the untreated component .
Curable composition for production of coatings with an antimicrobial property, comprising - at least one film-forming polymer, - at least one up-conversion phosphor, - optionally at least one additive, - optionally at least one curing agent, wherein the phosphor is selected from the idealized general formula (I) Lu 3-a-b-n Ln b (Mg 1-z Ca z ) a Li n (Al 1-u-v Ga u Sc v ) 5-a-2n (Si 1-d-e Zr d Hf e ) a+2n O 12 I where a = 0 - 1, 1 ≥ b > 0, d = 0 - 1, e = 0 - 1, n = 0 - 1, z = 0 - 1, u = 0 - 1, v = 0 - 1, with u+v ≤ 1 and d+e ≤ 1; Ln = praseodymium (Pr), gadolinium (Gd), erbium (Er), neodymium (Nd), yttrium (Y), Lu = lutetium, Li = lithium. - at least one film-forming polymer, - at least one up-conversion phosphor, - optionally at least one additive, - optionally at least one curing agent, wherein the phosphor is selected from the idealized general formula (I) Lu 3-a-b-n Ln b (Mg 1-z Ca z ) a Li n (Al 1-u-v Ga u Sc v ) 5-a-2n (Si 1-d-e Zr d Hf e ) a+2n O 12 I where a = 0 - 1, 1 ≥ b > 0, d = 0 - 1, e = 0 - 1, n = 0 - 1, z = 0 - 1, u = 0 - 1, v = 0 - 1, with u+v ≤ 1 and d+e ≤ 1; Ln = praseodymium (Pr), gadolinium (Gd), erbium (Er), neodymium (Nd), yttrium (Y), Lu = lutetium, Li = lithium.