mhurhangee/patent-ind-claim-en huggingface dataset:
Arrangement comprising a terminal block , wherein the terminal block has at least one housing with a first insertion opening , a second insertion opening and a third insertion opening , and a clamping body , comprising a contact metal , a first spring and a second spring , is arranged inside the housing , characterized in that the clamping body has a third spring , wherein the first spring , the second spring and the third spring each have a fastening spring limb and each have a clamping spring limb , and in that the arrangement has a discharge resistor and a capacitor, wherein the capacitor has at least one capacitor wire and the capacitor wire is inserted through the second insertion opening of the housing and is clamped and electrically contact-connected to the contact metal by means of the second spring , wherein the discharge resistor has a plug contact and the plug contact is inserted through the first insertion opening of the housing , wherein the plug contact of the discharge resistor is clamped and electrically contact-connected to the contact metal by means of the first spring .
A method of preparing an irreversible additive included in a cathode material for a lithium secondary battery, the method comprising: mixing an excess lithium precursor in which Li 2+a Ni 1-b M b O 2+c , NiO, and Li 2 O are physically bonded to each other at a mole ratio of x:y:z with an additional NiO and heat-treating the mixture to prepare a lithium-excess transition metal oxide in which Li 2+a Ni 1-b M b O 2+c , NiO, and Li 2 O are physically bonded to each other at a mole ratio of x':y':z', wherein, -0.2≤a≤0.2, 0≤b<1, and 0≤c≤0.2, x is 0.8 or more, x' is 0.93 or more, x<x', y>y', and z>z', based on x+y=1 and x'+y'=1, z is more than 0 and 0.21 or less based on x+y=1, and z' is 0 to 0.09 based on x'+y'=1, and M is at least one element selected from the group consisting of Cu, Mg, Pt, Al, Co, P, and B. mixing an excess lithium precursor in which Li 2+a Ni 1-b M b O 2+c , NiO, and Li 2 O are physically bonded to each other at a mole ratio of x:y:z with an additional NiO and heat-treating the mixture to prepare a lithium-excess transition metal oxide in which Li 2+a Ni 1-b M b O 2+c , NiO, and Li 2 O are physically bonded to each other at a mole ratio of x':y':z', wherein, -0.2≤a≤0.2, 0≤b<1, and 0≤c≤0.2, x is 0.8 or more, x' is 0.93 or more, x<x', y>y', and z>z', based on x+y=1 and x'+y'=1, z is more than 0 and 0.21 or less based on x+y=1, and z' is 0 to 0.09 based on x'+y'=1, and M is at least one element selected from the group consisting of Cu, Mg, Pt, Al, Co, P, and B.
Axial-radial sliding bearing comprising - a first bearing ring and - a second bearing ring , wherein the bearing rings are arranged to be rotatable against each other about a bearing axis (A) and wherein the second bearing ring forms a substantially U-shaped cross section in order to receive the first bearing ring at least in sections, - sliding elements made of a polymer material, which are disposed between the first and the second bearing ring to decouple the bearing rings axially and radially from each other, wherein the sliding elements each have a substantially L-shaped cross section with an axial region comprising axial sliding surfaces and with a radial region comprising radial sliding surfaces, characterized in that at least one of the two bearing rings has a seat for a force-loaded and deflectable detent element received therein and the other one of the two bearing rings has at least one detent recess for accommodating the deflectable detent element at least in sections in order to provide a releasable locking action at a specified relative rotational position of the two bearing rings to each other, wherein i) the axial-radial sliding bearing is configured in such a way that a release torque for releasing the locking of the two bearing rings to each other can be generated by applying a predetermined torque to one of the two bearing rings while the other one of the two bearing rings is kept stationary, this predetermined torque representing a torque threshold from which the locking is releasable, and/or ii) the first bearing ring is received by the second bearing ring over its entire axial extent and over a section of its radial extent, the detent element and the detent recess being arranged on mutually facing boundary surfaces of the two bearing rings . - a first bearing ring and - a second bearing ring , wherein the bearing rings are arranged to be rotatable against each other about a bearing axis (A) and wherein the second bearing ring forms a substantially U-shaped cross section in order to receive the first bearing ring at least in sections, - sliding elements made of a polymer material, which are disposed between the first and the second bearing ring to decouple the bearing rings axially and radially from each other, wherein the sliding elements each have a substantially L-shaped cross section with an axial region comprising axial sliding surfaces and with a radial region comprising radial sliding surfaces, i) the axial-radial sliding bearing is configured in such a way that a release torque for releasing the locking of the two bearing rings to each other can be generated by applying a predetermined torque to one of the two bearing rings while the other one of the two bearing rings is kept stationary, this predetermined torque representing a torque threshold from which the locking is releasable, and/or ii) the first bearing ring is received by the second bearing ring over its entire axial extent and over a section of its radial extent, the detent element and the detent recess being arranged on mutually facing boundary surfaces of the two bearing rings .
A base station for a wireless communication system, the base station comprising a processor configured for: transmitting a primary synchronization signal, PSS, the PSS comprising a primary synchronization code PSC; transmitting a first secondary synchronization signal, SSS, the first SSS comprising a first secondary synchronization code, SSC, and a second SSC; and transmitting a second SSS, the second SSS comprising the first SSC and the second SSC, wherein the first SSC of the first SSS is scrambled by using a first scrambling code, the second SSC of the first SSS is scrambled by using a second scrambling code, the first SSC of the second SSS is scrambled by using the second scrambling code, and the second SSC of the second SSS is scrambled by using the first scrambling code, and wherein the first scrambling code and the second scrambling code are associated with the PSC. transmitting a primary synchronization signal, PSS, the PSS comprising a primary synchronization code PSC; transmitting a first secondary synchronization signal, SSS, the first SSS comprising a first secondary synchronization code, SSC, and a second SSC; and transmitting a second SSS, the second SSS comprising the first SSC and the second SSC, wherein the first SSC of the first SSS is scrambled by using a first scrambling code, the second SSC of the first SSS is scrambled by using a second scrambling code, the first SSC of the second SSS is scrambled by using the second scrambling code, and the second SSC of the second SSS is scrambled by using the first scrambling code, and wherein the first scrambling code and the second scrambling code are associated with the PSC.
A photo voltaic cell , comprising: an anode located at one extremity; a cathode located at another extremity; a pre-patterned insulating polymeric layer placed in abutting relationship with the cathode ; and an active layer disposed between the anode and the pre-patterned insulating polymeric layer , the said active layer generating charge carrier upon excitation by light; the cathode comprising a plurality of interconnected cathode structures on a side abutting the pre-patterned insulating polymeric layer and an interconnecting region on an opposing side thereof, the interconnecting region further interconnecting the plurality of interconnected cathode structures. an anode located at one extremity; a cathode located at another extremity; a pre-patterned insulating polymeric layer placed in abutting relationship with the cathode ; and an active layer disposed between the anode and the pre-patterned insulating polymeric layer , the said active layer generating charge carrier upon excitation by light; the cathode comprising a plurality of interconnected cathode structures on a side abutting the pre-patterned insulating polymeric layer and an interconnecting region on an opposing side thereof, the interconnecting region further interconnecting the plurality of interconnected cathode structures.
A video decoding method comprising: at a first block, refining a first non-refined motion vector and a second non-refined motion vector to generate a first refined motion vector and a second refined motion vector, wherein refining of the first non-refined motion vector and the second non-refined motion vector is performed using decoder-side motion vector refinement (DMVR); using one or both of the first non-refined motion vector and the second non-refined motion vector, predicting motion information of a second block, the second block being a spatial neighbor of the first block; predicting the first block with bi-prediction using the first refined motion vector and the second refined motion vector; determining a deblocking filter strength for the first block based at least in part on the first non-refined motion vector and the second non-refined motion vector; and predicting motion information of a third block using at least one of the first refined motion vector and the second refined motion vector, wherein the third block and the first block are collocated blocks in different pictures. at a first block, refining a first non-refined motion vector and a second non-refined motion vector to generate a first refined motion vector and a second refined motion vector, wherein refining of the first non-refined motion vector and the second non-refined motion vector is performed using decoder-side motion vector refinement (DMVR); using one or both of the first non-refined motion vector and the second non-refined motion vector, predicting motion information of a second block, the second block being a spatial neighbor of the first block; predicting the first block with bi-prediction using the first refined motion vector and the second refined motion vector; determining a deblocking filter strength for the first block based at least in part on the first non-refined motion vector and the second non-refined motion vector; and predicting motion information of a third block using at least one of the first refined motion vector and the second refined motion vector, wherein the third block and the first block are collocated blocks in different pictures.
A watering schedule control system for the watering of plants comprising: a power source ; a power status sensor to generate a signal indicative of remaining power with the power source ; a water reservoir and a reservoir level sensor configured to generate a water level signal indicative of water level within the water reservoir ; a controller communicably coupled to the power source , and the power status sensor ,; whereby the controller is configured to: receive the signal from the power status sensor ; and the water level signal from the reservoir level sensor ; the controller having access to a watering schedule that involves specific run-times and days, and whereby the controller is further configured to modify the watering schedule based on the received water level signal characterized in that: the controller when receiving the signal from the power status sensor is further configured to modify the watering schedule based on that received signal. a power source ; a power status sensor to generate a signal indicative of remaining power with the power source ; a water reservoir and a reservoir level sensor configured to generate a water level signal indicative of water level within the water reservoir ; a controller communicably coupled to the power source , and the power status sensor ,; whereby the controller is configured to: receive the signal from the power status sensor ; and the water level signal from the reservoir level sensor ; receive the signal from the power status sensor ; and the water level signal from the reservoir level sensor ; the controller having access to a watering schedule that involves specific run-times and days, and whereby the controller is further configured to modify the watering schedule based on the received water level signal characterized in that: the controller when receiving the signal from the power status sensor is further configured to modify the watering schedule based on that received signal.
A method for creating an electronic identity document , said method including the following steps: - obtaining (S30) the file (FO) from an original digital image , - obtaining (S32) at least one data block (BO) from said file (FO), called original block (BO), - for each original block (BO): - creating (S34) at least two modified blocks (BM), - recording (S36) each modified block (BM) in a data structure (SD) of said document , each modified block (BM) being indexed in said data structure (SD) by a different entry (E1-En) and by the location (@1-@n) of said original block (BO) in the file (FD) of a digital image intended to be marked (ID) by using at least one modified block (BM) indexed in the data structure (SD), the entry and the location of said modified block (BM) being obtained from a marker (MQ) obtained from a received information (IN) coming from a reading terminal of said document, wherein said file (FD) of a digital image intended to be marked (ID) is identical to an original file (FO) or created by removing the original data blocks (BO) from the original file (FO). - obtaining (S30) the file (FO) from an original digital image , - obtaining (S32) at least one data block (BO) from said file (FO), called original block (BO), - for each original block (BO): - creating (S34) at least two modified blocks (BM), - recording (S36) each modified block (BM) in a data structure (SD) of said document , each modified block (BM) being indexed in said data structure (SD) by a different entry (E1-En) and by the location (@1-@n) of said original block (BO) in the file (FD) of a digital image intended to be marked (ID) by using at least one modified block (BM) indexed in the data structure (SD), the entry and the location of said modified block (BM) being obtained from a marker (MQ) obtained from a received information (IN) coming from a reading terminal of said document, wherein said file (FD) of a digital image intended to be marked (ID) is identical to an original file (FO) or created by removing the original data blocks (BO) from the original file (FO). - creating (S34) at least two modified blocks (BM), - recording (S36) each modified block (BM) in a data structure (SD) of said document , each modified block (BM) being indexed in said data structure (SD) by a different entry (E1-En) and by the location (@1-@n) of said original block (BO) in the file (FD) of a digital image intended to be marked (ID) by using at least one modified block (BM) indexed in the data structure (SD), the entry and the location of said modified block (BM) being obtained from a marker (MQ) obtained from a received information (IN) coming from a reading terminal of said document,
A computer-implemented method for assigning a sequence read to a genomic location, comprising: a) accessing a file comprising a sequence read, wherein the sequence read is obtained from a nucleic acid sample that comprises amplified copies of fragmented genomic nucleic acids that have been enriched by hybridization to a plurality of capture sequences that target multiple genomic locations of interest, wherein the fragmented genomic nucleic acids are fragmented by enzymatically cleaving genomic nucleic acids at predetermined sites; and b) assigning the sequence read to a genomic location by: i) identifying a capture sequence as being a match with the sequence read if the sequence read comprises one or more subsequences of the capture sequence; ii) calculating, using a computer, a score indicating the degree of sequence similarity between each of the matched capture sequences and the sequence read; and iii) assigning the sequence read to the genomic location if the calculated score for a matched capture sequence is above a threshold. a) accessing a file comprising a sequence read, wherein the sequence read is obtained from a nucleic acid sample that comprises amplified copies of fragmented genomic nucleic acids that have been enriched by hybridization to a plurality of capture sequences that target multiple genomic locations of interest, wherein the fragmented genomic nucleic acids are fragmented by enzymatically cleaving genomic nucleic acids at predetermined sites; and b) assigning the sequence read to a genomic location by: i) identifying a capture sequence as being a match with the sequence read if the sequence read comprises one or more subsequences of the capture sequence; ii) calculating, using a computer, a score indicating the degree of sequence similarity between each of the matched capture sequences and the sequence read; and iii) assigning the sequence read to the genomic location if the calculated score for a matched capture sequence is above a threshold. i) identifying a capture sequence as being a match with the sequence read if the sequence read comprises one or more subsequences of the capture sequence; ii) calculating, using a computer, a score indicating the degree of sequence similarity between each of the matched capture sequences and the sequence read; and iii) assigning the sequence read to the genomic location if the calculated score for a matched capture sequence is above a threshold.
A method of processing a process in a container, wherein the method is used in a physical machine, multiple containers are deployed in an application space in the physical machine, a watchdog drive is deployed in a kernel space in the physical machine, wherein the physical machine further comprises a device file in the application space, wherein the device file is a directory file that stores hardware device information and each container is able to access the kernel space using the device file, the method comprises: receiving , by the watchdog drive, a first operation instruction of a first container by using the device file, wherein the first operation instruction comprises a first process identification, PID, and the first PID represents that the first operation instruction is delivered by a first process in the first container; determining , according to the first PID, a first namespace corresponding to the first container; and deleting all processes in the first container according to the first namespace; wherein before the deleting all processes in the first container according to the first namespace, the method further comprises: establishing, according to the first namespace, a first watchdog instance corresponding to the first container in a one-to-one correspondence manner such that upon receiving an initial operation instruction from any individual container after the individual container is started or restarted a corresponding watchdog instance comprising its own timer is established for monitoring said individual container, wherein the first watchdog instance is used to delete all the processes in the first container, and the first watchdog instance comprises a first timer. receiving , by the watchdog drive, a first operation instruction of a first container by using the device file, wherein the first operation instruction comprises a first process identification, PID, and the first PID represents that the first operation instruction is delivered by a first process in the first container; determining , according to the first PID, a first namespace corresponding to the first container; and deleting all processes in the first container according to the first namespace; wherein before the deleting all processes in the first container according to the first namespace, the method further comprises: establishing, according to the first namespace, a first watchdog instance corresponding to the first container in a one-to-one correspondence manner such that upon receiving an initial operation instruction from any individual container after the individual container is started or restarted a corresponding watchdog instance comprising its own timer is established for monitoring said individual container, wherein the first watchdog instance is used to delete all the processes in the first container, and the first watchdog instance comprises a first timer.
A lighting device for vehicle comprising: a socket having a heat radiating fin ; a light emitting unit which is provided at one end portion of the socket , and includes a light emitting element ; an insulating portion which includes a resin, and is provided inside a hole provided in the socket ; a power feeding terminal which has conductivity, extends inside the insulating portion , and of which one end portion protrudes from the insulating portion , and is electrically connected to the light emitting unit ; and characterized by : a melting portion which is connected to an inner wall face of the hole , and connected to at least one of an end face on the light emitting unit side, and an end face on the heat radiating fin side of the insulating portion . a socket having a heat radiating fin ; a light emitting unit which is provided at one end portion of the socket , and includes a light emitting element ; an insulating portion which includes a resin, and is provided inside a hole provided in the socket ; a power feeding terminal which has conductivity, extends inside the insulating portion , and of which one end portion protrudes from the insulating portion , and is electrically connected to the light emitting unit ; and characterized by : a melting portion which is connected to an inner wall face of the hole , and connected to at least one of an end face on the light emitting unit side, and an end face on the heat radiating fin side of the insulating portion .
A composite for use in a flexible pipe body for transporting production fluids, said composite comprising: a first polymer layer, a second polymer layer that is bonded to the first polymer layer, and filler particles that extend from the first polymer layer into the second polymer layer, whereby the particles are partially embedded in both the first and second polymer layers, wherein the filler particles are in the form of fibres, wherein the first polymer layer comprises a thermoplastic material and the second polymer layer comprises a thermosetting material, or wherein the first polymer layer comprises a thermosetting material and the second polymer layer comprises a thermoplastic material. a first polymer layer, a second polymer layer that is bonded to the first polymer layer, and filler particles that extend from the first polymer layer into the second polymer layer, whereby the particles are partially embedded in both the first and second polymer layers, wherein the filler particles are in the form of fibres, wherein the first polymer layer comprises a thermoplastic material and the second polymer layer comprises a thermosetting material, or wherein the first polymer layer comprises a thermosetting material and the second polymer layer comprises a thermoplastic material.