mhurhangee/patent-ind-claim-en huggingface dataset:
An electric vehicle having a power-receiving coil for wireless supply of electric power from a power-supplying coil to the vehicle when the vehicle has entered and stopped in a stop area (S) and the power-receiving coil is aligned with the power-supplying coil , the electric vehicle comprising a receiver , a drive device , a controller , and a wheel , the receiver being configured to receive, from an external transmitter disposed in front of the stop area (S) or in the stop area (S), distance data showing the distance (L2) between the power-supplying coil and a wheel stopper provided in the stop area (S) in an approach direction of the electric vehicle , the drive device being configured to move the power-receiving coil of the electric vehicle relative to the wheel in a front-back direction of the electric vehicle , and the controller is configured to control the drive device to make the distance (L1) in the front-back direction between the power-receiving coil and the wheel that is to engage the wheel stopper equal to the distance (L2) shown by the distance data, based on the distance data received by the receiver .
A method of producing a microneedle array , the method comprising: using a base material and a mold , wherein the base material includes a foundation with a plurality of frustum-shaped protrusions or columnar protrusions , provided on a first main surface of the foundation ; an injection step of injecting a predetermined amount of a raw material liquid into each cone-shaped recess of a mold having a plurality of cone-shaped recesses , the predetermined amount being less than a volume of the cone-shaped recess ; a tip forming step of overlaying, by assembly of the base material and the mold , the foundation that is insoluble or sparingly soluble in the raw material liquid on the mold , mating the plurality of frustum-shaped protrusions or columnar protrusions , provided on the first main surface of the foundation , with the plurality of cone-shaped recesses , drying the raw material liquid in the plurality of cone-shaped recesses thereby fixing a plurality of cone-shaped tips that are dissolvable in an inner part of skin to a tip surface of each of the plurality of frustum-shaped protrusions or columnar protrusions ; and a mold release step of removing the foundation from the mold , and pulling out a microneedle array in which the cone-shaped tips are fixed to each of the frustum-shaped protrusions or the columnar protrusions of the foundation and the cone-shaped tips are formed at a position a predetermined height away from the first main surface of the foundation . using a base material and a mold , wherein the base material includes a foundation with a plurality of frustum-shaped protrusions or columnar protrusions , provided on a first main surface of the foundation ; an injection step of injecting a predetermined amount of a raw material liquid into each cone-shaped recess of a mold having a plurality of cone-shaped recesses , the predetermined amount being less than a volume of the cone-shaped recess ; a tip forming step of overlaying, by assembly of the base material and the mold , the foundation that is insoluble or sparingly soluble in the raw material liquid on the mold , mating the plurality of frustum-shaped protrusions or columnar protrusions , provided on the first main surface of the foundation , with the plurality of cone-shaped recesses , drying the raw material liquid in the plurality of cone-shaped recesses thereby fixing a plurality of cone-shaped tips that are dissolvable in an inner part of skin to a tip surface of each of the plurality of frustum-shaped protrusions or columnar protrusions ; and a mold release step of removing the foundation from the mold , and pulling out a microneedle array in which the cone-shaped tips are fixed to each of the frustum-shaped protrusions or the columnar protrusions of the foundation and the cone-shaped tips are formed at a position a predetermined height away from the first main surface of the foundation .
An electrode material comprising: a carbonaceous-coated electrode active material having primary particles of an electrode active material and secondary particles that are aggregates of the primary particles; and a carbonaceous film that coats the primary particles of the electrode active material and the secondary particles that are the aggregates of the primary particles, wherein the electrode active material is an electrode active material represented by General Formula , Li a A x M y PO 4 in the formula, A represents at least one element selected from the group consisting of Mn, Fe, Co, and Ni, M represents at least one element selected from the group consisting of Na, K, Mg, Ca, Al, Ga, Ti, V, Cr, Cu, Zn, Y, Zr, Nb, Mo, and rare earth elements, 0≤a<4, 0<x<1.5 and 0≤y<1, wherein a proportion of a volume of micropores having a micropore diameter of 50 nm or less in a volume of micropores having a micropore diameter of 300 nm or less, which is obtained using a nitrogen adsorption method, is 40% or more, and wherein a proportion of nitrogen included in the carbonaceous film is 0.1% or more and 20% or less. a carbonaceous-coated electrode active material having primary particles of an electrode active material and secondary particles that are aggregates of the primary particles; and a carbonaceous film that coats the primary particles of the electrode active material and the secondary particles that are the aggregates of the primary particles, primary particles of an electrode active material and secondary particles that are aggregates of the primary particles; and a carbonaceous film that coats the primary particles of the electrode active material and the secondary particles that are the aggregates of the primary particles, wherein the electrode active material is an electrode active material represented by General Formula , Li a A x M y PO 4 in the formula, A represents at least one element selected from the group consisting of Mn, Fe, Co, and Ni, M represents at least one element selected from the group consisting of Na, K, Mg, Ca, Al, Ga, Ti, V, Cr, Cu, Zn, Y, Zr, Nb, Mo, and rare earth elements, 0≤a<4, 0<x<1.5 and 0≤y<1, wherein a proportion of a volume of micropores having a micropore diameter of 50 nm or less in a volume of micropores having a micropore diameter of 300 nm or less, which is obtained using a nitrogen adsorption method, is 40% or more, and wherein a proportion of nitrogen included in the carbonaceous film is 0.1% or more and 20% or less.
A TLB, Translation Lookaside Buffer, device supporting multiple data streams, comprising: a control unit configured to set k TLB modules (TLBO, TLB1, ..., TLBk-1), corresponding to k data streams of a streaming application to be processed, each TLB module (TLBO, TLB1, ..., TLBk-1) having a plurality of page numbers and a plurality of page frame numbers that respectively correspond to the plurality of page numbers, and to complete a conversion from a logical address transmitted from a data processing device to the control unit to a physical address by a mapping relationship between each of the plurality of page numbers and each of the plurality of page frame numbers; wherein k is a natural number; wherein a stream ID is configured for mapping the k data streams and the k TLB modules; characterized in that the logical address includes the stream ID in addition to the page number and an offset; and in that the control unit is provided with four TLB modules respectively corresponding to four data streams including weights, inputs, outputs, and partial sums of an artificial neural network, respectively. a control unit configured to set k TLB modules (TLBO, TLB1, ..., TLBk-1), corresponding to k data streams of a streaming application to be processed, each TLB module (TLBO, TLB1, ..., TLBk-1) having a plurality of page numbers and a plurality of page frame numbers that respectively correspond to the plurality of page numbers, and to complete a conversion from a logical address transmitted from a data processing device to the control unit to a physical address by a mapping relationship between each of the plurality of page numbers and each of the plurality of page frame numbers; wherein k is a natural number; wherein a stream ID is configured for mapping the k data streams and the k TLB modules; characterized in that the logical address includes the stream ID in addition to the page number and an offset; and in that the control unit is provided with four TLB modules respectively corresponding to four data streams including weights, inputs, outputs, and partial sums of an artificial neural network, respectively.
A method for fabricating a solar module having a plurality of solar cells, the method comprising: Forming a laminate (L) having a first carrier layer , a first electrode layer , a photoactive layer , a second electrode layer, and a transparent second carrier layer , the photoactive layer being disposed between the first and second electrode layers, the first electrode layer being superimposed by the first carrier layer , and the second electrode layer being superimposed by the second carrier layer so that the first and the second carrier layers form outside surfaces of the laminate (L), and manufacturing, after the step of forming the laminate (L), a first pattern (P1) of electrically isolating paths within the second electrode layer by means of a laser. Forming a laminate (L) having a first carrier layer , a first electrode layer , a photoactive layer , a second electrode layer, and a transparent second carrier layer , the photoactive layer being disposed between the first and second electrode layers, the first electrode layer being superimposed by the first carrier layer , and the second electrode layer being superimposed by the second carrier layer so that the first and the second carrier layers form outside surfaces of the laminate (L), and manufacturing, after the step of forming the laminate (L), a first pattern (P1) of electrically isolating paths within the second electrode layer by means of a laser.
Device for expanding a fluid, wherein the device is provided with an expander element for expanding the fluid, a generator and a transmission between the two, wherein the generator is a liquid-cooled generator and the expansion element is heated using a liquid, the device further being provided with a common liquid circuit for the generator and the expander element , wherein the liquid circuit includes a liquid pump which can pump up liquid from a liquid reservoir , wherein the liquid circuit also comprises a liquid line which runs from the liquid reservoir and which incorporates the liquid pump , the generator , the expander element , characterized in that the liquid has lubricating properties, and in that the transmission is incorporated in the liquid line.
A direct alcohol fuel cell, DAFC, comprising a housing containing a proton exchange membrane, PEM, separating an anode section from a cathode section, which anode section and which cathode section are contained in the housing, the cathode section comprising a cathode collection element having one or more ventilation holes, which cathode collection element is electrically connected to a cathode catalyst, which cathode catalyst is in diffusive communication with a gaseous oxidant, and the anode section comprising an anode collection element electrically connected to an anode catalyst, the DAFC comprising an oleophobic filter covering the ventilation hole(s), wherein the oleophobic filter comprises an opening aligned with one of the ventilation holes. the cathode section comprising a cathode collection element having one or more ventilation holes, which cathode collection element is electrically connected to a cathode catalyst, which cathode catalyst is in diffusive communication with a gaseous oxidant, and the anode section comprising an anode collection element electrically connected to an anode catalyst, the DAFC comprising an oleophobic filter covering the ventilation hole(s), wherein the oleophobic filter comprises an opening aligned with one of the ventilation holes.
A radar device comprising: a plurality of transmission radars (1-1 to 1-N TX , 1'-1 to 1'-N Tx ) for each transmitting transmission radio-frequency signals by performing phase modulation on pulse signals having a same transmission frequency throughout the pulse signals of each transmission radar and using respective amounts of phase modulation, the transmission radio-frequency signals being the phase-modulated pulse signals, and the amounts of phase modulation varying between hit numbers; a reception radar (4-1, 4'-1 to 4'-N Rx ) for receiving, as a reception radio-frequency signal, each of the transmission radio-frequency signals having been transmitted from each of the plurality of transmission radars, and then reflected by a target; and a signal processor for detecting a candidate for the target on a basis of the reception radio-frequency signal received by the reception radar, characterized in that the respective amounts of the phase modulation satisfy the formula Δφ n Tx h = 2 π p n Tx H h p n Tx ∈ 0,1 , ⋯ , floor H N Tx where Δφ(n TX ,h) is amounts of the phase modulation; H is a number of hits; H = floor T obs T pri ; T obs is an observation time of the radar device; T pri is a pulse repetition interval; the number of hits -being -the number of pulses radiated by the plurality of transmission radars into the air; h denotes the hit number; h=0,1,...,H-1; N TX is a number of transmission radars; n TX denotes the respective transmission radar (1-1 to 1-N TX , 1'-1 to 1' -N Tx ); and n TX =1,2,...,N TX . a plurality of transmission radars (1-1 to 1-N TX , 1'-1 to 1'-N Tx ) for each transmitting transmission radio-frequency signals by performing phase modulation on pulse signals having a same transmission frequency throughout the pulse signals of each transmission radar and using respective amounts of phase modulation, the transmission radio-frequency signals being the phase-modulated pulse signals, and the amounts of phase modulation varying between hit numbers; a reception radar (4-1, 4'-1 to 4'-N Rx ) for receiving, as a reception radio-frequency signal, each of the transmission radio-frequency signals having been transmitted from each of the plurality of transmission radars, and then reflected by a target; and a signal processor for detecting a candidate for the target on a basis of the reception radio-frequency signal received by the reception radar, characterized in that the respective amounts of the phase modulation satisfy the formula Δφ n Tx h = 2 π p n Tx H h p n Tx ∈ 0,1 , ⋯ , floor H N Tx where Δφ(n TX ,h) is amounts of the phase modulation; H is a number of hits; H = floor T obs T pri ; T obs is an observation time of the radar device; T pri is a pulse repetition interval; the number of hits -being -the number of pulses radiated by the plurality of transmission radars into the air; h denotes the hit number; h=0,1,...,H-1; N TX is a number of transmission radars; n TX denotes the respective transmission radar (1-1 to 1-N TX , 1'-1 to 1' -N Tx ); and n TX =1,2,...,N TX .
A vacuum adiabatic body , comprising: a first plate having a first thickness; a second plate spaced apart from the first plate in an opposite manner, and having a second thickness, and the first thickness being greater than the second thickness; and sealing members arranged between the first plate and the second plate and configured to seal and fix the first plate and the second plate , a vacuum cavity being defined among the first plate , the second plate , and the sealing members , characterized in that the first plate is made of a stainless steel plate; the second plate is made of a stainless steel plate; and the sealing members are made of quartz glass, wherein the first thickness is 1.1 to 1.5 times the second thickness. a first plate having a first thickness; a second plate spaced apart from the first plate in an opposite manner, and having a second thickness, and the first thickness being greater than the second thickness; and sealing members arranged between the first plate and the second plate and configured to seal and fix the first plate and the second plate , a vacuum cavity being defined among the first plate , the second plate , and the sealing members , characterized in that the first plate is made of a stainless steel plate; the second plate is made of a stainless steel plate; and the sealing members are made of quartz glass, wherein the first thickness is 1.1 to 1.5 times the second thickness.
A method for adding an application icon to a folder, comprising: dragging the folder in a touch interface of a terminal (step 11); during dragging of the folder, when an event of tapping a capture area of the folder is detected, determining whether the capture area of the folder comprises an application icon, wherein the event is an event used to trigger moving of the application icon from the outside of the folder to the folder, wherein the application icon remains static during dragging of the folder until being moved to the folder in response to said event, and the capture area of the folder is an area that is determined according to a location of the folder in the touch interface and whose size is within a preset range or the capture area of the folder is an area marked by a user in the touch interface (step 12); and when an application icon exists in coverage of the capture area of the folder, moving the application icon in the capture area of the folder from the outside of the folder to the folder (step 13). dragging the folder in a touch interface of a terminal (step 11); during dragging of the folder, when an event of tapping a capture area of the folder is detected, determining whether the capture area of the folder comprises an application icon, wherein the event is an event used to trigger moving of the application icon from the outside of the folder to the folder, wherein the application icon remains static during dragging of the folder until being moved to the folder in response to said event, and the capture area of the folder is an area that is determined according to a location of the folder in the touch interface and whose size is within a preset range or the capture area of the folder is an area marked by a user in the touch interface (step 12); and when an application icon exists in coverage of the capture area of the folder, moving the application icon in the capture area of the folder from the outside of the folder to the folder (step 13).
A warewash machine for washing wares , comprising: - a chamber for receiving wares , the chamber having at least one wash zone ; - a waste heat recovery unit arranged to transfer heat from exhaust air of the machine to incoming water traveling along a water flow path through the waste heat recovery unit to a booster heater of the machine ; - a refrigerant medium circuit including at least a first condenser arranged to deliver refrigerant medium heat to the incoming water; characterized by a control arrangement for monitoring subcooled refrigerant medium condition and for responsively modifying operation of one or more of: (i) speed of a compressor of the refrigerant medium circuit , (ii) speed of an exhaust fan that causes air flow across the waste heat recovery unit or (iii) speed of a pump that controls incoming water flow along the water flow path. - a chamber for receiving wares , the chamber having at least one wash zone ; - a waste heat recovery unit arranged to transfer heat from exhaust air of the machine to incoming water traveling along a water flow path through the waste heat recovery unit to a booster heater of the machine ; - a refrigerant medium circuit including at least a first condenser arranged to deliver refrigerant medium heat to the incoming water; (i) speed of a compressor of the refrigerant medium circuit , (ii) speed of an exhaust fan that causes air flow across the waste heat recovery unit or (iii) speed of a pump that controls incoming water flow along the water flow path.
A pellet press for pressing pellets starting from a press material , having a rotating ring die comprising substantially radial through holes and forming a press space in the interior thereof into which the press material can be fed, pressing means for pressing the press material through the through holes for forming the pellet , and at least one cutting device having a contact area for a pellet protruding past the ring die in the radial direction thereof, said cutting device being mounted on a stationary part of the housing of the pellet press such that the contact area is disposed in the radially outer region of the rotationally supported ring die at a radial distance from the same, the contact area extending in the circumferential direction of the ring die from a front azimuth angle to a greater rear azimuth angle relative to an intended direction of rotation of the ring die , the distance to the ring die being variable as a function of the azimuth angle , characterized in that the cutting device is a cutting plate , wherein the distance of the cutting plate is at a minimum for a given minimum azimuth angle and decreases monotonically in a range from the front azimuth angle to the minimum azimuth angle , so that the pellets are compressed due to the shaping of the cutting plate and the mounting thereof relative to the ring die in the segment from the front azimuth angle to the minimum azimuth angle , until said pellets break off at the point of the minimum azimuth angle at the breaking edge in the region of the ring die .
A two-dimensional driving apparatus comprising: a common movable body ; a first vibrator including an electro-mechanical energy conversion device , the first vibrator being configured to move the common movable body in a first direction; a second vibrator including an electro-mechanical energy conversion device , the second vibrator being configured to move the common movable body in a second direction intersecting the first direction; a first driven body between the first vibrator and the common movable body and driven with the common movable body in the first direction by the first vibrator; and a second driven body between the second vibrator and the common movable body and driven with the common movable body in the second direction by the second vibrator, wherein the common movable body is slidable in the second direction and the common movable body is also slidable in the first direction, and wherein the first vibrator and the second vibrator maintain a same positional relation to each other. a common movable body ; a first vibrator including an electro-mechanical energy conversion device , the first vibrator being configured to move the common movable body in a first direction; a second vibrator including an electro-mechanical energy conversion device , the second vibrator being configured to move the common movable body in a second direction intersecting the first direction; a first driven body between the first vibrator and the common movable body and driven with the common movable body in the first direction by the first vibrator; and a second driven body between the second vibrator and the common movable body and driven with the common movable body in the second direction by the second vibrator, wherein the common movable body is slidable in the second direction and the common movable body is also slidable in the first direction, and wherein the first vibrator and the second vibrator maintain a same positional relation to each other.