mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus , comprising: an assembly surface comprising an array of electrodes arranged such that each of a plurality of chiplets can be positioned to cover at least one of the electrodes, each of the electrodes capable of being individually activated to apply a clamping force field to one of the chiplets, characterised in that a field generator that applies a rotation field that is orthogonal to the clamping force field applied by the electrodes, the field generator comprising an input that selects an angle of the rotation field; and a processor coupled to the electrodes and the field generator, the processor operable to: determine a desired orientation angle of a first subset of the chiplets; activate one or more of the electrodes so that a second subset of the chiplets different than the first subset is kept from rotating by the clamping force field applied by the one or more of the electrodes; and while the clamping force field is being applied, apply the rotation field at the selected angle to cause the first subset of the chiplets to be oriented at the desired orientation angle. an assembly surface comprising an array of electrodes arranged such that each of a plurality of chiplets can be positioned to cover at least one of the electrodes, each of the electrodes capable of being individually activated to apply a clamping force field to one of the chiplets, characterised in that a field generator that applies a rotation field that is orthogonal to the clamping force field applied by the electrodes, the field generator comprising an input that selects an angle of the rotation field; and a processor coupled to the electrodes and the field generator, the processor operable to: determine a desired orientation angle of a first subset of the chiplets; activate one or more of the electrodes so that a second subset of the chiplets different than the first subset is kept from rotating by the clamping force field applied by the one or more of the electrodes; and while the clamping force field is being applied, apply the rotation field at the selected angle to cause the first subset of the chiplets to be oriented at the desired orientation angle. determine a desired orientation angle of a first subset of the chiplets; activate one or more of the electrodes so that a second subset of the chiplets different than the first subset is kept from rotating by the clamping force field applied by the one or more of the electrodes; and while the clamping force field is being applied, apply the rotation field at the selected angle to cause the first subset of the chiplets to be oriented at the desired orientation angle.
An integrated circuit, IC, comprising: a network-on-chip, NoC , the NoC including NoC master units , NoC slave units , and a network connecting the NoC master units to the NoC slave units ; a master device coupled to a NoC master unit of the NoC ; a memory controller coupled to the NoC and configured to control a memory coupled to the IC, and wherein the NoC is configured to route memory transactions between the master device and the memory controller; and an inline error-correcting code, ECC, circuit coupled to the NoC and to the master device and the memory controller via the NoC, the ECC circuit configured to receive read and write transactions from the master device that target the memory via the NoC, compute ECC data based on the read and write transactions, and provide outgoing transactions to the memory controller via the NoC. a network-on-chip, NoC , the NoC including NoC master units , NoC slave units , and a network connecting the NoC master units to the NoC slave units ; a master device coupled to a NoC master unit of the NoC ; a memory controller coupled to the NoC and configured to control a memory coupled to the IC, and wherein the NoC is configured to route memory transactions between the master device and the memory controller; and an inline error-correcting code, ECC, circuit coupled to the NoC and to the master device and the memory controller via the NoC, the ECC circuit configured to receive read and write transactions from the master device that target the memory via the NoC, compute ECC data based on the read and write transactions, and provide outgoing transactions to the memory controller via the NoC.
An ion exchange membrane for alkali chloride electrolysis, comprising a layer (C) which comprises a fluorinated polymer having carboxylic acid functional groups, at least two layers (S) which comprise a fluorinated polymer having sulfonic acid functional groups, and a reinforcing material, wherein said layers (S) include a layer (Sa) and a layer (Sb), said layer (Sa) is a layer which is adjacent to the layer (C), said layer (Sb) is a layer which is not adjacent to the layer (C), said reinforcing material is disposed in said layer (Sb) substantially in parallel with the layer (Sb) in a state not in contact with said layer (Sa) at a position where the ratio of the thickness of the layer (Sb) located on the opposite side to the layer (C) via the reinforcing member in the layer (Sb), to the thickness of the layers (S), becomes to be from 0.05 to 0.6, and the ion exchange capacity of said layer (Sa) is lower than the ion exchange capacity of said layer (Sb), wherein the ratio of the thickness of the layer (Sa) to the thickness of the layer (Sb) is at most 0.4 and wherein the difference between the ion exchange capacity of the layer (C) and the ion exchange capacity of the layer (Sa) is at most 0.5 meq/g dry resin.
A cooling structure , comprising: a flow path configuration member made entirely of resin and forming a flow path through which a refrigerant flows; a heat diffuser having a plate shape and embedded in the flow path configuration member or joined to the flow path configuration member ; one or more cooling fins extending from the heat diffuser into the flow path ; and a bus bar configured to transfer heat to the heat diffuser , wherein: the flow path configuration member and the bus bar are not in contact with each other with a space interposed between an outer wall surface of the flow path configuration member and the bus bar , and the flow path formed by the flow path configuration member is surrounded by an upper inner wall corresponding to an inner wall of one of a pair of opposing inner walls, a lower inner wall corresponding to an inner wall of the other one of the pair of opposing inner walls, and a side inner wall and a side inner wall that connect the upper inner wall and the lower inner wall . a flow path configuration member made entirely of resin and forming a flow path through which a refrigerant flows; a heat diffuser having a plate shape and embedded in the flow path configuration member or joined to the flow path configuration member ; one or more cooling fins extending from the heat diffuser into the flow path ; and a bus bar configured to transfer heat to the heat diffuser , wherein: the flow path configuration member and the bus bar are not in contact with each other with a space interposed between an outer wall surface of the flow path configuration member and the bus bar , and the flow path formed by the flow path configuration member is surrounded by an upper inner wall corresponding to an inner wall of one of a pair of opposing inner walls, a lower inner wall corresponding to an inner wall of the other one of the pair of opposing inner walls, and a side inner wall and a side inner wall that connect the upper inner wall and the lower inner wall . the flow path configuration member and the bus bar are not in contact with each other with a space interposed between an outer wall surface of the flow path configuration member and the bus bar , and the flow path formed by the flow path configuration member is surrounded by an upper inner wall corresponding to an inner wall of one of a pair of opposing inner walls, a lower inner wall corresponding to an inner wall of the other one of the pair of opposing inner walls, and a side inner wall and a side inner wall that connect the upper inner wall and the lower inner wall .
A wooden threaded stepped dowel comprising: a cylindrical base section having the first circumference; at least one cylindrical middle section having a second circumference smaller than the first circumference; and a cylindrical tip section having a third circumference smaller than the second circumference; wherein the at least one cylindrical middle section comprises a thread spiraled around an outer surface of the at least one cylindrical middle section; characterised in that the at least one cylindrical middle section further comprises a plurality of cylindrical sections , with each successive section having a smaller circumference than the last; and each of the plurality of cylindrical sections each comprises a thread spiraled around an outer surface of each of the plurality of cylindrical sections. a cylindrical base section having the first circumference; at least one cylindrical middle section having a second circumference smaller than the first circumference; and a cylindrical tip section having a third circumference smaller than the second circumference; wherein the at least one cylindrical middle section comprises a thread spiraled around an outer surface of the at least one cylindrical middle section; characterised in that the at least one cylindrical middle section further comprises a plurality of cylindrical sections , with each successive section having a smaller circumference than the last; and each of the plurality of cylindrical sections each comprises a thread spiraled around an outer surface of each of the plurality of cylindrical sections.
A processing method of a seal mounting groove suitable of sufficiently compressing a gasket at the stack assembling time of a fuel battery, the method pressing the seal mounting groove by using a punch on a plane of a metal plate being a separator of the fuel battery, characterized in that a leading end portion of said punch is formed into an inclined surface shape which is inclined in a punch width direction, and the seal mounting groove which inclines in a groove width direction in its groove bottom portion and is formed into an inclined surface shape is formed by pressing while using said punch , wherein a cross sectional shape of the seal mounting groove is formed into a triangular cross sectional shape or an approximately triangular cross sectional shape which is provided with three sides constructed by an inclined surface shaped groove bottom portion , a groove side surface portion and a groove opening portion , and wherein the metal plastically deforming going with the formation of the seal mounting groove protrudes only in one shoulder portion close to the shallow groove side of the seal mounting groove being not located in the power generation area . wherein a cross sectional shape of the seal mounting groove is formed into a triangular cross sectional shape or an approximately triangular cross sectional shape which is provided with three sides constructed by an inclined surface shaped groove bottom portion , a groove side surface portion and a groove opening portion , and wherein the metal plastically deforming going with the formation of the seal mounting groove protrudes only in one shoulder portion close to the shallow groove side of the seal mounting groove being not located in the power generation area .
An apparatus comprising: a digital phase-locked loop, DPLL, , comprising a phase-to-digital converter and a loop filter operating in a loop, a first processing unit for a lowpass modulation path and operative to receive an input modulating signal and provide a first modulating signal to a first point inside the loop after the phase-to-digital converter and prior to the loop filter , and a second processing unit for a highpass modulation path and operative to receive the input modulating signal and provide a second modulating signal to a second point inside the loop after the loop filter , wherein the second processing unit comprises an adaptive scaling unit operative to scale the input modulating signal with a variable gain based on a phase error signal provided to the loop filter to match a gain of the lowpass modulation path, and an adaptive delay unit operative to delay the input modulating signal by a variable delay based on the phase error signal provided to the loop filter to match a delay of the lowpass modulation path. a digital phase-locked loop, DPLL, , comprising a phase-to-digital converter and a loop filter operating in a loop, a first processing unit for a lowpass modulation path and operative to receive an input modulating signal and provide a first modulating signal to a first point inside the loop after the phase-to-digital converter and prior to the loop filter , and a second processing unit for a highpass modulation path and operative to receive the input modulating signal and provide a second modulating signal to a second point inside the loop after the loop filter , wherein the second processing unit comprises an adaptive scaling unit operative to scale the input modulating signal with a variable gain based on a phase error signal provided to the loop filter to match a gain of the lowpass modulation path, and an adaptive delay unit operative to delay the input modulating signal by a variable delay based on the phase error signal provided to the loop filter to match a delay of the lowpass modulation path.
A flexible mechanism comprising: a flexible backbone that may be introduced into a medical operation part in a human body and deflected along a path in the human body; and at least two wires configured to deliver an operation force provided through a handler provided at one end of the flexible backbone to an end effector provided on an opposite side of the flexible backbone, wherein the at least two wires extend from one end to an opposite end of the flexible backbone, and are wound on the outer circumferential surface of the flexible backbone by a multiple of 360 degrees, wherein at least two wire protection parts are wound on the outer circumferential surface of the flexible backbone from one end to an opposite end of the flexible backbone in a multiple of 360 degrees and provided with at least two movement paths for the wire. characterized in that at least two grooves wound on the outer circumferential surface of the flexible backbone from one end to an opposite end of the flexible backbone in a multiple of 360 degrees are formed on the outer circumferential surface of the flexible backbone, and wherein the wire protection parts are seated in the grooves. a flexible backbone that may be introduced into a medical operation part in a human body and deflected along a path in the human body; and at least two wires configured to deliver an operation force provided through a handler provided at one end of the flexible backbone to an end effector provided on an opposite side of the flexible backbone, wherein the at least two wires extend from one end to an opposite end of the flexible backbone, and are wound on the outer circumferential surface of the flexible backbone by a multiple of 360 degrees, wherein at least two wire protection parts are wound on the outer circumferential surface of the flexible backbone from one end to an opposite end of the flexible backbone in a multiple of 360 degrees and provided with at least two movement paths for the wire. characterized in that at least two grooves wound on the outer circumferential surface of the flexible backbone from one end to an opposite end of the flexible backbone in a multiple of 360 degrees are formed on the outer circumferential surface of the flexible backbone, and wherein the wire protection parts are seated in the grooves.
A dishwashing apparatus comprising: a housing containing a series of zones, each zone adapted for performing a step of a dishwashing cycle; a loading/unloading area atop the housing; a plurality of shuttles for receiving and conveying soiled items, the shuttles arranged in rows, each row containing shuttles of a different type to the other rows, the rows comprising: a row of plateware shuttles , each plateware shuttle configured to receive and carry an individual item of plateware, a row of cutlery shuttles , each cutlery shuttle configured to receive and carry an individual place-setting of cutlery and/or utensils, a row of cupware shuttles , each cupware shuttle configured to receive and carry an individual item of cupware; and a drive means for transporting a shuttle loaded with a soiled item in a loop from the loading/unloading area into the housing, through each of the wash-step zones and out of the housing back to the loading/unloading area, wherein the drive means is operable to transport a shuttle from one row of shuttles independently of shuttles from each other set of shuttles. a housing containing a series of zones, each zone adapted for performing a step of a dishwashing cycle; a loading/unloading area atop the housing; a plurality of shuttles for receiving and conveying soiled items, the shuttles arranged in rows, each row containing shuttles of a different type to the other rows, the rows comprising: a row of plateware shuttles , each plateware shuttle configured to receive and carry an individual item of plateware, a row of cutlery shuttles , each cutlery shuttle configured to receive and carry an individual place-setting of cutlery and/or utensils, a row of cupware shuttles , each cupware shuttle configured to receive and carry an individual item of cupware; and a row of plateware shuttles , each plateware shuttle configured to receive and carry an individual item of plateware, a row of cutlery shuttles , each cutlery shuttle configured to receive and carry an individual place-setting of cutlery and/or utensils, a row of cupware shuttles , each cupware shuttle configured to receive and carry an individual item of cupware; and a drive means for transporting a shuttle loaded with a soiled item in a loop from the loading/unloading area into the housing, through each of the wash-step zones and out of the housing back to the loading/unloading area, wherein the drive means is operable to transport a shuttle from one row of shuttles independently of shuttles from each other set of shuttles.
Device (DEV) for controlling wireless multimedia devices (SPK 1 , SPK 2 , SPK N ), comprising: - a wireless communication circuit (BC), arranged to receive a wireless multimedia device identifier from each wireless multimedia device; - a separation circuit (SEC) for separating a main multimedia stream into as many separated multimedia streams as the wireless communication circuit has received identifiers of wireless multimedia devices; - an allocation circuit (AC) for allocating each separated multimedia stream to a respective wireless multimedia device; and - a synchronization circuit (SYC) for synchronizing the separated multimedia streams characterized in that the device further comprises: - an access circuit (DBC) for accessing a database (DB) of wireless multimedia devices, arranged to obtain from said database latency of each wireless multimedia device for which the wireless communication circuit has received an identifier; and and in that the synchronizing of the separated multimedia streams is based on the latency of the wireless multimedia devices obtained from the database (DB) to temporally shift the transmission of a separated multimedia stream intended for a wireless multimedia device . - a wireless communication circuit (BC), arranged to receive a wireless multimedia device identifier from each wireless multimedia device; - a separation circuit (SEC) for separating a main multimedia stream into as many separated multimedia streams as the wireless communication circuit has received identifiers of wireless multimedia devices; - an allocation circuit (AC) for allocating each separated multimedia stream to a respective wireless multimedia device; and - a synchronization circuit (SYC) for synchronizing the separated multimedia streams - an access circuit (DBC) for accessing a database (DB) of wireless multimedia devices, arranged to obtain from said database latency of each wireless multimedia device for which the wireless communication circuit has received an identifier; and and in that the synchronizing of the separated multimedia streams is based on the latency of the wireless multimedia devices obtained from the database (DB) to temporally shift the transmission of a separated multimedia stream intended for a wireless multimedia device .
Guide vane system for a turbomachine, having at least one guide vane which is mounted for rotation about an adjustment axis and is arranged so as to have a radially inner end region in a corresponding recess in an inner ring , the arrangement of the guide vane being interlockingly secured on the inner ring by means of a securing element , the securing element being designed as an elongate element which is arranged at least in a recess , extending in the circumferential direction of the turbomachine, and/or in a through-opening , extending in the circumferential direction of the turbomachine, in the radially inner end region of the guide vane and is arranged at least in a recess, extending in the circumferential direction of the turbomachine, and/or in a through-opening , extending in the circumferential direction of the turbomachine, in the inner ring , characterized in that at least two guide vanes of the guide vane system are secured by means of a common securing element .
A portable fitness monitoring system comprising: a portable fitness monitoring device ; a sensor in wireless communication with said portable fitness monitoring device for sensing performance parameters during a physical activity conducted by the user and communicating performance parameter data to said portable fitness monitoring device; an input port adapted to directly couple a portable music device to said portable fitness monitoring device; and an output port adapted to directly couple an audio output device to said portable fitness monitoring device, wherein music is transmitted from said input port to said output port through said portable fitness monitoring device; wherein said portable fitness monitoring device provides control prompts through said audio output device; and wherein said control prompts are prompting the user to use user input controls in response to said control prompts. a portable fitness monitoring device ; a sensor in wireless communication with said portable fitness monitoring device for sensing performance parameters during a physical activity conducted by the user and communicating performance parameter data to said portable fitness monitoring device; an input port adapted to directly couple a portable music device to said portable fitness monitoring device; and an output port adapted to directly couple an audio output device to said portable fitness monitoring device, wherein music is transmitted from said input port to said output port through said portable fitness monitoring device; wherein said portable fitness monitoring device provides control prompts through said audio output device; and wherein said control prompts are prompting the user to use user input controls in response to said control prompts.