mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a chassis including an array plate, the array plate having a plurality of first openings formed thereon; a plurality of floating inserts, each of the floating inserts being disposed in a different one of the first openings, each of the floating inserts including a first floating insert member and a second floating insert member that is inserted in the first floating insert member and arranged to move laterally with respect to the first floating insert member; a main board having a plurality of second openings formed thereon, the main board being coupled to the array plate via a plurality of alignment pins, each of the alignment pins having a first portion and a second portion , the first portion of each of the alignment pins extending through a respective one of the plurality of second openings and into the second floating insert member of a respective one of the plurality of floating inserts; and an electronic module assembly coupled to the main board, the electronic module assembly having a first connector and an alignment socket that are formed on a first side of the electronic module assembly, the first connector being mated with a second connector that is disposed on the main board, and the alignment socket being mated with the second portion of a given one of the plurality of alignment pins; and wherein the electronic module assembly and the main board are disposed on opposite sides of the array plate, and the second connector is exposed by a third opening in the array plate. a chassis including an array plate, the array plate having a plurality of first openings formed thereon; a plurality of floating inserts, each of the floating inserts being disposed in a different one of the first openings, each of the floating inserts including a first floating insert member and a second floating insert member that is inserted in the first floating insert member and arranged to move laterally with respect to the first floating insert member; a main board having a plurality of second openings formed thereon, the main board being coupled to the array plate via a plurality of alignment pins, each of the alignment pins having a first portion and a second portion , the first portion of each of the alignment pins extending through a respective one of the plurality of second openings and into the second floating insert member of a respective one of the plurality of floating inserts; and an electronic module assembly coupled to the main board, the electronic module assembly having a first connector and an alignment socket that are formed on a first side of the electronic module assembly, the first connector being mated with a second connector that is disposed on the main board, and the alignment socket being mated with the second portion of a given one of the plurality of alignment pins; and wherein the electronic module assembly and the main board are disposed on opposite sides of the array plate, and the second connector is exposed by a third opening in the array plate.
A sewing machine comprising: a crank shaft , a first drive shaft , a second drive shaft , a needle assembly , a presser foot , and an upper walking foot , a crank arm connecting said crank shaft to said first drive shaft , a linkage assembly connecting said drive shafts to said needle assembly , said presser foot , and said upper walking foot , said linkage assembly configured to cause out-of-phase reciprocatory movement of said presser foot and said upper walking foot , and an adjustment mechanism selectably adjustable by an operator that varies a center line to center line distance between a pin of said linkage assembly and the second drive shaft to yield at least first and second different stepping heights of said upper walking foot , wherein first and second links of said linkage assembly are translationally and pivotally connected at respective ends to provide the variable center line to center line distance between the pin of said linkage assembly and the second drive shaft , wherein one of said first and second links includes the pin and the other of said first and second links includes an elongated slot , said pin riding in said slot , and a position of said pin along a length of said slot is selectably adjustable by an operator, characterized by a pneumatic cylinder , or a hydraulic cylinder, or an electric motor, or an electric solenoid, actuatable by an operator and configured to translate said pin along the length of said slot providing a low stepping height of said walking foot and a high stepping height of said walking foot . a crank shaft , a first drive shaft , a second drive shaft , a needle assembly , a presser foot , and an upper walking foot , a crank arm connecting said crank shaft to said first drive shaft , a linkage assembly connecting said drive shafts to said needle assembly , said presser foot , and said upper walking foot , said linkage assembly configured to cause out-of-phase reciprocatory movement of said presser foot and said upper walking foot , and an adjustment mechanism selectably adjustable by an operator that varies a center line to center line distance between a pin of said linkage assembly and the second drive shaft to yield at least first and second different stepping heights of said upper walking foot , wherein first and second links of said linkage assembly are translationally and pivotally connected at respective ends to provide the variable center line to center line distance between the pin of said linkage assembly and the second drive shaft , wherein one of said first and second links includes the pin and the other of said first and second links includes an elongated slot , said pin riding in said slot , and a position of said pin along a length of said slot is selectably adjustable by an operator, characterized by a pneumatic cylinder , or a hydraulic cylinder, or an electric motor, or an electric solenoid, actuatable by an operator and configured to translate said pin along the length of said slot providing a low stepping height of said walking foot and a high stepping height of said walking foot .
Optical article having an organic glass substrate made of an optical material comprising a polymer matrix, wherein the substrate comprises an external layer in which particles are embedded into the polymer matrix, the Bayer value of said substrate determined in accordance with the ASTM F735-81 standard being at least 30 % greater than the Bayer value of the same substrate with no embedded particles, the particles are functionalized with a silane coupling agent, and the refractive index of the particles R p is lower than the refractive index of the polymer matrix R s , such that R p + 0.1 < R s .
An apparatus , comprising: means for receiving, from a network node, configuration of opportunities for a periodic signal transmission based on sweeping uplink resources; means for determining, based on the received configuration, at least one sweeping resource to be used for uplink transmission; and means for transmitting, when the apparatus determines that a current serving beam of the network node is no longer preferred or has quality that is lower than a predetermined quality threshold, an uplink signal on sweeping uplink resources associated with one or more preferred beams of the network node other than the current serving beam; and means for receiving a control message, from the network node, confirming a serving beam change. means for receiving, from a network node, configuration of opportunities for a periodic signal transmission based on sweeping uplink resources; means for determining, based on the received configuration, at least one sweeping resource to be used for uplink transmission; and means for transmitting, when the apparatus determines that a current serving beam of the network node is no longer preferred or has quality that is lower than a predetermined quality threshold, an uplink signal on sweeping uplink resources associated with one or more preferred beams of the network node other than the current serving beam; and means for receiving a control message, from the network node, confirming a serving beam change.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a low-end master information block, L-MIB, for supporting a sub-band within an entire system band, wherein the L-MIB includes information associated with a search space of a low-end physical downlink control channel, L-PDCCH in a downlink sub-band through a physical broadcast channel, and the information indicates a frequency resource for the search space of the L-PDCCH; detecting downlink control information including scheduling information based on the frequency resource for the search space of the L-PDCCH; and receiving, from the base station, system information through a first physical downlink shared channel, PDSCH, based on the scheduling information, wherein the system information includes information associated with a random access channel, RACH, configuration, information associated with a bandwidth of the downlink sub-band and a location of the downlink sub-band, and information associated with a bandwidth of an uplink sub-band and a location of the uplink sub-band. receiving, from a base station, a low-end master information block, L-MIB, for supporting a sub-band within an entire system band, wherein the L-MIB includes information associated with a search space of a low-end physical downlink control channel, L-PDCCH in a downlink sub-band through a physical broadcast channel, and the information indicates a frequency resource for the search space of the L-PDCCH; detecting downlink control information including scheduling information based on the frequency resource for the search space of the L-PDCCH; and receiving, from the base station, system information through a first physical downlink shared channel, PDSCH, based on the scheduling information, wherein the system information includes information associated with a random access channel, RACH, configuration, information associated with a bandwidth of the downlink sub-band and a location of the downlink sub-band, and information associated with a bandwidth of an uplink sub-band and a location of the uplink sub-band.
A titanium alloy melt consisting of: 7.0 to 9.0 percent by weight vanadium; 3.0 to 4.5 percent by weight aluminum; 0.8 to 1.5 percent by weight iron; at most 0.15 percent by weight oxygen; optionally, at least one of: 0.8 to 2.4 percent by weight or 1.8 to 2.4 percent by weight chromium; 1.2 to 2.0 percent by weight or 1.6 to 2.0 percent by weight cobalt; 0 to 0.7 percent by weight or 0.08 to 0.5 percent by weight boron; 0 to 1.3 percent by weight or 0.4 to 1.0 percent by weight carbon; and balance titanium; and optionally one or more of the following impurities: Impurity Maximum (wt%) Nitrogen 0.05 Chlorine 0.05 Hydrogen 0.015 Silicon 0.05 Yttrium 0.005 Sodium 0.01 Magnesium 0.10 Other Elements, Each 0.10 Other Elements, Total 0.30 7.0 to 9.0 percent by weight vanadium; 3.0 to 4.5 percent by weight aluminum; 0.8 to 1.5 percent by weight iron; at most 0.15 percent by weight oxygen; optionally, at least one of: 0.8 to 2.4 percent by weight or 1.8 to 2.4 percent by weight chromium; 1.2 to 2.0 percent by weight or 1.6 to 2.0 percent by weight cobalt; 0 to 0.7 percent by weight or 0.08 to 0.5 percent by weight boron; 0 to 1.3 percent by weight or 0.4 to 1.0 percent by weight carbon; and balance titanium; and 0.8 to 2.4 percent by weight or 1.8 to 2.4 percent by weight chromium; 1.2 to 2.0 percent by weight or 1.6 to 2.0 percent by weight cobalt; 0 to 0.7 percent by weight or 0.08 to 0.5 percent by weight boron; 0 to 1.3 percent by weight or 0.4 to 1.0 percent by weight carbon; and balance titanium; and optionally one or more of the following impurities: Impurity Maximum (wt%) Nitrogen 0.05 Chlorine 0.05 Hydrogen 0.015 Silicon 0.05 Yttrium 0.005 Sodium 0.01 Magnesium 0.10 Other Elements, Each 0.10 Other Elements, Total 0.30
A pressure sensor , comprising: - a first layer of electrically insulating material, - a second layer of electrically insulating material superposed on the first layer, and - at least one electrical switch, wherein said electrical switch comprises: - at least one electrical contact associated with the first layer , and - at least one electrical conductor associated with a flexible portion of the second layer , which is separate from the first layer and is directly superposed to said electrical contact , characterized in that the switch comprises a support layer having greater rigidity than the flexible portion of the second layer , which is applied on the first layer at the opposite side from said flexible portion and aligned with it. - a first layer of electrically insulating material, - a second layer of electrically insulating material superposed on the first layer, and - at least one electrical switch, - at least one electrical contact associated with the first layer , and - at least one electrical conductor associated with a flexible portion of the second layer , which is separate from the first layer and is directly superposed to said electrical contact , characterized in that the switch comprises a support layer having greater rigidity than the flexible portion of the second layer , which is applied on the first layer at the opposite side from said flexible portion and aligned with it.
A storage battery management device , wherein the storage battery management device determines an upper limit of power discharged from a storage battery or an upper limit of an amount of power discharged from the storage battery for each of discharging time periods divided for each unit time, on the basis of remaining discharge capacity information indicating an amount of power that can be supplied to a load from the storage battery, wherein the upper limit is determined on the basis of information regarding power to be supplied to the storage battery and the remaining discharge capacity information, wherein the information regarding power is power purchasing price information indicating a power purchasing price for each time period, wherein a plurality of the discharging time periods are divided into a first group in which discharging time periods having a relatively high power purchasing price are collected and a second group in which discharging time periods having a relatively low power purchasing price are collected, wherein a maximum amount of power that can be discharged in each discharging time period is specified on the basis of the upper limit of the power or the upper limit of the amount of power, and wherein a discharging schedule is generated so that a sum of a first total which is a total of maximum amounts of power in the respective discharging time periods included in the first group and a second total which is a total of maximum amounts of power in the respective discharging time periods, included in the second group, which are temporally prior to at least one discharging time period included in the first group, does not exceed a predetermined amount of power which is determined on the basis of the remaining discharge capacity information, and wherein the discharging schedule is generated so that a sum of a third total which is a total of maximum amounts of power in the respective discharging time periods, included in the second group, which are temporally after all of the discharging time periods included in the first group, the first total, and the second total is set to be equal to or larger than the predetermined amount of power which is determined on the basis of the remaining discharge capacity information.
An apparatus comprising: protocol logic to support a plurality of interconnect protocols; and a physical interface to couple to another component over a data channel, the physical interface comprising: a first set of pins to couple to a set of data signal wires (DATA[0-49]) of the data channel, wherein data is to be sent on the set of data signal wires (DATA[0-49]) characterized in that the physical interface further comprising; a second set of pins to couple to a set of valid wires (VALID0, VALID 1) of the data channel, wherein a valid signal is to be sent on the set of valid wires (VALID0, VALID1) to indicate that data is sent on the set of data signal wires; and a third set of pins to couple to a set of protocol identifier wires (STREAM) of the data channel, wherein a protocol identifier value is to be sent on the set of protocol identifier wires (STREAM) to identify that the data is according to a particular one of the plurality of interconnect protocols, wherein the valid signal is to be sent on the valid wires in alignment with the data sent on the set of data signal wires, and a beginning of the valid signal is to be sent a time period prior to a beginning of the data. protocol logic to support a plurality of interconnect protocols; and a physical interface to couple to another component over a data channel, the physical interface comprising: a first set of pins to couple to a set of data signal wires (DATA[0-49]) of the data channel, wherein data is to be sent on the set of data signal wires (DATA[0-49]) characterized in that the physical interface further comprising; a second set of pins to couple to a set of valid wires (VALID0, VALID 1) of the data channel, wherein a valid signal is to be sent on the set of valid wires (VALID0, VALID1) to indicate that data is sent on the set of data signal wires; and a third set of pins to couple to a set of protocol identifier wires (STREAM) of the data channel, wherein a protocol identifier value is to be sent on the set of protocol identifier wires (STREAM) to identify that the data is according to a particular one of the plurality of interconnect protocols, a first set of pins to couple to a set of data signal wires (DATA[0-49]) of the data channel, wherein data is to be sent on the set of data signal wires (DATA[0-49]) characterized in that the physical interface further comprising; a second set of pins to couple to a set of valid wires (VALID0, VALID 1) of the data channel, wherein a valid signal is to be sent on the set of valid wires (VALID0, VALID1) to indicate that data is sent on the set of data signal wires; and a third set of pins to couple to a set of protocol identifier wires (STREAM) of the data channel, wherein a protocol identifier value is to be sent on the set of protocol identifier wires (STREAM) to identify that the data is according to a particular one of the plurality of interconnect protocols, wherein the valid signal is to be sent on the valid wires in alignment with the data sent on the set of data signal wires, and a beginning of the valid signal is to be sent a time period prior to a beginning of the data.
A foam vehicular seat element comprising a molded foam substrate and a molded seating surface element, at least a portion of the seating surface element comprising a plurality of peak portions and a plurality of valley portions , wherein the foam substrate and the seating element are comprised in a unitary foam portion, wherein the unitary foam portion comprises a skin present on the surface of the seating element, so that the foam has a greater density at the surface as compared to the central or core region, wherein the seating surface element comprises a plurality of sections, each section comprising a plurality of peak portions and a plurality of valley portions, wherein the plurality of peak portions in each section are different, wherein each peak portion in the plurality of peak portions is substantially elongate, wherein the plurality of peak portions is comprised in a plurality of substantially upstanding projections, and wherein a cross-section of each projection comprises a rectangle.
An arm (B) provided with a main body which defines a longitudinal direction (L), an arm end and interlocking and attachment means between the main body and the arm end , wherein the main body is a hollow profile so as to define a channel therein, and the arm end comprises, on the one hand, an interlocking end for slotting into the channel of the hollow profile and, on the other hand, a joint , the interlocking and attachment means between the main body and the arm end consist of: - at least one inner projection arranged in the recess of the profile and provided with at least one screw hole which has the longitudinal direction (L); and - arranged at the arm end , at least one bearing surface provided with at least one hole ; and - at least one screw ; so that the main body and the arm end can be coupled and attached to one another reversibly by inserting the interlocking end into the hollow profile , by inserting the screw into the hole , by pressing its head onto the bearing surface and by screwing its thread into the screw hole of the inner projection , characterized by , arranged at the end of the arm, at least one interlocking channel for accommodating the inner projection , at least said one bearing surface provided with at least said hole and arranged adjacent to the interlocking channel for accommodating the inner projection ; so that the inner projection is accommodated in the interlocking channel for accommodating the inner projection . - at least one inner projection arranged in the recess of the profile and provided with at least one screw hole which has the longitudinal direction (L); and - arranged at the arm end , at least one bearing surface provided with at least one hole ; and - at least one screw ;
A computer-implemented method comprising: receiving media captured by an unmanned aerial vehicle, UAV ; incorporating the media captured by the UAV into a UAV message; broadcasting the UAV message to client devices associated with accounts of a messaging platform; receiving , from the client devices, interactions with the UAV message, the received interactions with the UAV message comprising a number of different commands for the UAV; determining a command for the UAV based on the interactions with the UAV message, wherein determining the command for the UAV comprises: determining a number of responses for each of the different commands; and selecting one of the different commands according to a ranking of the different commands by the determined numbers of responses; and transmitting the command to the UAV, the UAV configured to respond to the command. receiving media captured by an unmanned aerial vehicle, UAV ; incorporating the media captured by the UAV into a UAV message; broadcasting the UAV message to client devices associated with accounts of a messaging platform; receiving , from the client devices, interactions with the UAV message, the received interactions with the UAV message comprising a number of different commands for the UAV; determining a command for the UAV based on the interactions with the UAV message, wherein determining the command for the UAV comprises: determining a number of responses for each of the different commands; and selecting one of the different commands according to a ranking of the different commands by the determined numbers of responses; and determining a number of responses for each of the different commands; and selecting one of the different commands according to a ranking of the different commands by the determined numbers of responses; and transmitting the command to the UAV, the UAV configured to respond to the command.
A method of forming a crosslinked cellulose product, comprising: mixing a crosslinking agent with an aqueous mixture of unbonded cellulose fibers having a solids content and containing little to no excess water, the crosslinking agent being added at a solids content of 10-50% and in an amount suitable to achieve a desired level of crosslinking of the unbonded cellulose fibers based on the solids content; drying the resulting mixture to 85-100% solids; and curing the dried mixture under conditions effective to crosslink the unbonded cellulose fibers. drying the resulting mixture to 85-100% solids; and curing the dried mixture under conditions effective to crosslink the unbonded cellulose fibers.