mhurhangee/patent-ind-claim-en huggingface dataset:
A method of power management for a processor system , the processor system including a processor coupled to a memory wherein the memory comprises a plurality of memory banks (110_1, 110_2, 110_3, 110_4), the memory further comprising a region configurable as a heap region , wherein the processor is operable to execute instructions comprising one or more cryptographic operations; and wherein the method comprises: allocating at least one memory bank to the heap region dependent on a predetermined memory size required for execution of at least one cryptographic operation; allocating at least one further memory bank to the heap region; and switching from a first operating mode to a second operating mode by: setting the at least one memory bank to an active state; setting the at least one further memory bank to an active state; and switching from the second operating mode to the first operating mode by: setting the at least one memory bank to a retention state wherein a memory bank in a retention state cannot be read but data in the memory bank are retained; setting the at least one further memory bank to a power-down state. allocating at least one memory bank to the heap region dependent on a predetermined memory size required for execution of at least one cryptographic operation; allocating at least one further memory bank to the heap region; and switching from a first operating mode to a second operating mode by: setting the at least one memory bank to an active state; setting the at least one further memory bank to an active state; and setting the at least one memory bank to an active state; setting the at least one further memory bank to an active state; and switching from the second operating mode to the first operating mode by: setting the at least one memory bank to a retention state wherein a memory bank in a retention state cannot be read but data in the memory bank are retained; setting the at least one further memory bank to a power-down state. setting the at least one memory bank to a retention state wherein a memory bank in a retention state cannot be read but data in the memory bank are retained; setting the at least one further memory bank to a power-down state.
A method for assembling a semiconductor device on a receiving surface of a destination substrate , the method comprising: providing the semiconductor device formed on a native substrate ; contacting a top surface of the semiconductor device with a conformable transfer device having a contact surface, wherein contact between the contact surface and the top surface of the semiconductor device at least temporarily binds the semiconductor device to the conformable transfer device; separating the semiconductor device from the native substrate such that the contact surface of the conformable transfer device has the semiconductor device disposed thereon with the semiconductor device released from the native substrate; prior to contacting the semiconductor device with the receiving surface of the destination substrate , exposing a backside surface of the semiconductor device to a plasma following separation from the native substrate ; controlling at least one of a duty cycle, residence time, power of the plasma, and distance of the plasma to the semiconductor device to prevent shearing and delamination of the semiconductor devices from the contacting surface of the conformable transfer device ; contacting the semiconductor device disposed on the contact surface with the receiving surface of the destination substrate ; and separating the contact surface of the conformable transfer device from the semiconductor device , thereby assembling the semiconductor device on the receiving surface of the destination substrate . providing the semiconductor device formed on a native substrate ; contacting a top surface of the semiconductor device with a conformable transfer device having a contact surface, wherein contact between the contact surface and the top surface of the semiconductor device at least temporarily binds the semiconductor device to the conformable transfer device; separating the semiconductor device from the native substrate such that the contact surface of the conformable transfer device has the semiconductor device disposed thereon with the semiconductor device released from the native substrate; prior to contacting the semiconductor device with the receiving surface of the destination substrate , exposing a backside surface of the semiconductor device to a plasma following separation from the native substrate ; controlling at least one of a duty cycle, residence time, power of the plasma, and distance of the plasma to the semiconductor device to prevent shearing and delamination of the semiconductor devices from the contacting surface of the conformable transfer device ; contacting the semiconductor device disposed on the contact surface with the receiving surface of the destination substrate ; and separating the contact surface of the conformable transfer device from the semiconductor device , thereby assembling the semiconductor device on the receiving surface of the destination substrate .
A modular gripper assembly comprising: a one piece body having a trident section and cylindrical section , the trident section comprising a trident structure that includes, at one end, a pair of side walls along with a center wall , and the cylindrical section including a fluid driven powering assembly ; a pair of opposing jaw member pivotally secured to the trident section about separate pivot pins ; a cam assembly operatively connected to a piston rod of the fluid driven powering assembly , the cam assembly extending laterally outward with respect to a cylinder bore axis to receive a cam bush that engages with a through slot on each of the pair of opposing jaw members , the jaw members rotating with respect to one another in response to fluid power in the cylindrical section ; and a pair of side plate members respectively connected to the side walls , each side plate member having an elongated blind slot that receives an end of the cam assembly, the ends respectively travelling in the blind slots . a one piece body having a trident section and cylindrical section , the trident section comprising a trident structure that includes, at one end, a pair of side walls along with a center wall , and the cylindrical section including a fluid driven powering assembly ; a pair of opposing jaw member pivotally secured to the trident section about separate pivot pins ; a cam assembly operatively connected to a piston rod of the fluid driven powering assembly , the cam assembly extending laterally outward with respect to a cylinder bore axis to receive a cam bush that engages with a through slot on each of the pair of opposing jaw members , the jaw members rotating with respect to one another in response to fluid power in the cylindrical section ; and a pair of side plate members respectively connected to the side walls , each side plate member having an elongated blind slot that receives an end of the cam assembly, the ends respectively travelling in the blind slots .
An electric resistance welded pipe welding device for manufacturing an electric resistance welded pipe that melts both end face portions , of an open pipe having an opening portion extending in a running direction (R), both the end face portions that face the opening portion each other from both sides and are made of a pipe material, by induced currents generated by an induction heating means and brings the end face portions into contact with each other at a squeeze roll unit while gradually narrowing a gap of the opening portion and welds the end face portions together, the electric resistance welded pipe welding device comprising: as the induction heating means, an induction coil (100; 300; 500), the electric resistance welded pipe welding device being characterised in that the induction coil (100; 300; 500) is composed of a pair of opening-vicinity conductor parts (110; 310; 510) that are extended in the running direction along the end face portions at both sides of the opening portion and are arranged in pairs close to both the end face portions of the open pipe respectively and apart from an outer peripheral surface of the open pipe at positions not overlapping the opening portion in a plan view; and a first-portion circulating conductor part (120; 320; 520) that is integrally provided at at least end portions, of the opening-vicinity conductor parts (110; 310; 510), on the side close to the squeeze roll unit in a longitudinal direction and is arranged apart from the outer peripheral surface of the open pipe so as to circulate around a portion, of the outer peripheral surface of the open pipe , excluding the opening portion , wherein the paired opening-vicinity conductor parts (110; 310; 510) are configured to generate induced currents to flow along the end face portions at both sides of the opening portion . as the induction heating means, an induction coil (100; 300; 500), the electric resistance welded pipe welding device being characterised in that the induction coil (100; 300; 500) is composed of a pair of opening-vicinity conductor parts (110; 310; 510) that are extended in the running direction along the end face portions at both sides of the opening portion and are arranged in pairs close to both the end face portions of the open pipe respectively and apart from an outer peripheral surface of the open pipe at positions not overlapping the opening portion in a plan view; and a first-portion circulating conductor part (120; 320; 520) that is integrally provided at at least end portions, of the opening-vicinity conductor parts (110; 310; 510), on the side close to the squeeze roll unit in a longitudinal direction and is arranged apart from the outer peripheral surface of the open pipe so as to circulate around a portion, of the outer peripheral surface of the open pipe , excluding the opening portion , wherein the paired opening-vicinity conductor parts (110; 310; 510) are configured to generate induced currents to flow along the end face portions at both sides of the opening portion .
Image processing apparatus for applying a mask (171, 172, 175-178, 195) to an object (124-128), comprising: - an input for obtaining an image ; - a processor for (i) detecting the object in the image, and (ii) applying the mask to the object in the image for obtaining an output image (160-163); and - an output for providing the output image to a display ; - the processor being arranged for said applying of said mask to the object by (j) establishing an object contour of the object, characterized by (jj) generating, based on the object contour, a mask being smaller than the object, and (jjj) positioning the mask over the object for masking in the output image a body of the object while leaving clear a border area of the object. - an input for obtaining an image ; - a processor for (i) detecting the object in the image, and (ii) applying the mask to the object in the image for obtaining an output image (160-163); and - an output for providing the output image to a display ; - the processor being arranged for said applying of said mask to the object by (j) establishing an object contour of the object, characterized by (jj) generating, based on the object contour, a mask being smaller than the object, and (jjj) positioning the mask over the object for masking in the output image a body of the object while leaving clear a border area of the object.
A gas heat pump system comprising: a refrigerant pipeline ; a compressor for compressing refrigerant, a gas engine for driving the compressor; a cooling water pipeline provided to cool down the gas engine , a chiller including a refrigerant heat exchanger for heat exchange between the refrigerant from the compressor and a fluid, and a high temperature heat exchanger for heat exchange between the fluid having heat exchanged in the refrigerant heat exchanger and the cooling water, and a supplementary evaporator for heat exchange between the refrigerant being introduced to the compressor and the cooling water pipeline , characterized in that the cooling water pipeline is provided with a three way valve downstream of the high temperature heat exchanger and a heat dissipating unit for cooling the cooling water; and wherein the three way valve is configured to selectively direct the cooling water either to the heat dissipating unit or to the supplementary evaporator . a refrigerant pipeline ; a compressor for compressing refrigerant, a gas engine for driving the compressor; a cooling water pipeline provided to cool down the gas engine , a chiller including a refrigerant heat exchanger for heat exchange between the refrigerant from the compressor and a fluid, and a high temperature heat exchanger for heat exchange between the fluid having heat exchanged in the refrigerant heat exchanger and the cooling water, and a supplementary evaporator for heat exchange between the refrigerant being introduced to the compressor and the cooling water pipeline , characterized in that the cooling water pipeline is provided with a three way valve downstream of the high temperature heat exchanger and a heat dissipating unit for cooling the cooling water; and wherein the three way valve is configured to selectively direct the cooling water either to the heat dissipating unit or to the supplementary evaporator .
A system comprising a firearm and a conversion kit, the firearm comprising a removable slide, the conversion kit comprising: a conversion barrel ; a chamber piece of the conversion barrel having a coupling end; a muzzle piece of the conversion barrel having a coupling end configured to be secured to the coupling end of the chamber piece and an engagement end ; characterized in that the engagement end is configured to mate with the removable slide such that manipulation of the removable slide causes the coupling end of the muzzle piece of the conversion barrel to be secured to the coupling end of the chamber piece . the firearm comprising a removable slide, the conversion kit comprising: a conversion barrel ; a chamber piece of the conversion barrel having a coupling end; a muzzle piece of the conversion barrel having a coupling end configured to be secured to the coupling end of the chamber piece and an engagement end ; characterized in that a conversion barrel ; a chamber piece of the conversion barrel having a coupling end; a muzzle piece of the conversion barrel having a coupling end configured to be secured to the coupling end of the chamber piece and an engagement end ; characterized in that the engagement end is configured to mate with the removable slide such that manipulation of the removable slide causes the coupling end of the muzzle piece of the conversion barrel to be secured to the coupling end of the chamber piece .
Method for teaching at least one section of a delimiting border of a land area for a green area maintenance system , wherein the green area maintenance system comprises: - an autonomous mobile green area maintenance robot , and - a robot position determining system , wherein the robot position determining system is designed to detect robot position coordinates (x1, y1) of the green area maintenance robot , wherein the robot position coordinates (x1, y1) are based on a first position determining technology (PBT1), characterised in that the method comprises the steps: (a) defining a sequence of teach-in position coordinates (x2, y2) of the section , the teach-in position coordinates (x2, y2) being based on a second position determining technology (PBT2) different from the first position determining technology (PBT1), and (b) transforming the defined sequence of teach-in position coordinates (x2, y2) into a sequence of transformation robot position coordinates (x3, y3), the transformation robot position coordinates (x3, y3) being based on the first position determining technology (PBT1). - an autonomous mobile green area maintenance robot , and - a robot position determining system , wherein the robot position determining system is designed to detect robot position coordinates (x1, y1) of the green area maintenance robot , wherein the robot position coordinates (x1, y1) are based on a first position determining technology (PBT1), characterised in that the method comprises the steps: (a) defining a sequence of teach-in position coordinates (x2, y2) of the section , the teach-in position coordinates (x2, y2) being based on a second position determining technology (PBT2) different from the first position determining technology (PBT1), and (b) transforming the defined sequence of teach-in position coordinates (x2, y2) into a sequence of transformation robot position coordinates (x3, y3), the transformation robot position coordinates (x3, y3) being based on the first position determining technology (PBT1). (a) defining a sequence of teach-in position coordinates (x2, y2) of the section , the teach-in position coordinates (x2, y2) being based on a second position determining technology (PBT2) different from the first position determining technology (PBT1), and (b) transforming the defined sequence of teach-in position coordinates (x2, y2) into a sequence of transformation robot position coordinates (x3, y3), the transformation robot position coordinates (x3, y3) being based on the first position determining technology (PBT1).
A thermoplastic resin composition comprising: 100 parts by weight of a thermoplastic resin comprising 20 wt% to 50 wt% of a rubber-modified vinyl graft copolymer and 50 wt% to 80 wt% of an aromatic vinyl copolymer; a heat stabilizer comprising 0.05 to 2 parts by weight of a phenol-based heat stabilizer and 0.05 to 2 parts by weight of a phosphorus-based heat stabilizer; and 0.3 to 10 parts by weight of zinc oxide having an average particle size of 0.5 μm to 3 μm, as measured using a particle size analyzer, and a BET specific surface area of 1 m 2 /g to 10 m 2 /g, as measured by a nitrogen gas adsorption method using a BET analyzer. 100 parts by weight of a thermoplastic resin comprising 20 wt% to 50 wt% of a rubber-modified vinyl graft copolymer and 50 wt% to 80 wt% of an aromatic vinyl copolymer; a heat stabilizer comprising 0.05 to 2 parts by weight of a phenol-based heat stabilizer and 0.05 to 2 parts by weight of a phosphorus-based heat stabilizer; and 0.3 to 10 parts by weight of zinc oxide having an average particle size of 0.5 μm to 3 μm, as measured using a particle size analyzer, and a BET specific surface area of 1 m 2 /g to 10 m 2 /g, as measured by a nitrogen gas adsorption method using a BET analyzer.
A compensating balance spring for a thermally compensated sprung balance resonator comprising a core made of several non-metallic materials comprising quartz, characterised in that the core is partially coated with at least one layer which is resistant and impermeable to moisture and comprises chromium or tantalum so as to render the compensating balance spring less sensitive to climatic variations, said at least one layer which is resistant and impermeable to moisture is at least partially formed on an oxidized coating comprised between the core and said at least one layer .
A medical device comprising: a sheath portion which is elongated and has flexibility; a pair of operation wires which extend in the sheath portion and in which a distal end thereof is fixed to a distal portion (DE) of the sheath portion ; and a turning operation portion which is provided on a proximal end side of the sheath portion , the turning operation portion being suitable to pull one of the operation wires through a turning operation, and to send out the other operation wire through the turning operation to bend the sheath portion in a direction corresponding to the pulled one operation wire , wherein the turning operation portion has a winding portion around which the operation wires are wound on a side peripheral surface thereof, a guard portion which is provided further radially outwards than the side peripheral surface and at a position facing the side peripheral surface , so as to be integrated with the winding portion , wherein the winding portion includes the side peripheral surface , a pair of flange portions formed on the side peripheral surface , and an opening portion provided in at least one of the flange portions , and wherein the guard portion is a projection portion which penetrates the opening portion . a sheath portion which is elongated and has flexibility; a pair of operation wires which extend in the sheath portion and in which a distal end thereof is fixed to a distal portion (DE) of the sheath portion ; and a turning operation portion which is provided on a proximal end side of the sheath portion , the turning operation portion being suitable to pull one of the operation wires through a turning operation, and to send out the other operation wire through the turning operation to bend the sheath portion in a direction corresponding to the pulled one operation wire , wherein the turning operation portion has a winding portion around which the operation wires are wound on a side peripheral surface thereof, a guard portion which is provided further radially outwards than the side peripheral surface and at a position facing the side peripheral surface , so as to be integrated with the winding portion , wherein the winding portion includes the side peripheral surface , a pair of flange portions formed on the side peripheral surface , and an opening portion provided in at least one of the flange portions , and wherein the guard portion is a projection portion which penetrates the opening portion .
Suction device for a hood , comprising an impeller , an electric motor that drives said impeller , a volute that houses inside said electric motor and said impeller , a capacitor , and a connector electrically connected to said capacitor for supplying power to said electric motor , wherein said volute comprises a first semi-shell and a second semi-shell joined with each other so as to constitute the structure of said volute surrounding said impeller , said capacitor being housed in a first compartment formed in said first semi-shell and said connector being housed in a second compartment formed in said second semi-shell , said first compartment and said second compartment being adjacent to each other in said volute , characterized in said connector is configured to connect electrically by engaging directly with said capacitor , when both are inserted in said second compartment and in said first compartment , respectively, and the two semi-shells are joined with each other.
A eutectic thermal sensing element , comprises: an electrically conductive core extending along a first axis to define a length; and an insulating fiber layer disposed on an external surface of the electrically conductive core , the insulating fiber layer including a strand that extends along the length of the electrically conductive core ; wherein the electrically conductive core is coated with a eutectic material formulated to provide thermal response characteristics; wherein the strand includes a plurality of fiber segments that define a plurality of gaps between each fiber segment; wherein a gap length of each gap controls a delay of the eutectic sensing element . an electrically conductive core extending along a first axis to define a length; and an insulating fiber layer disposed on an external surface of the electrically conductive core , the insulating fiber layer including a strand that extends along the length of the electrically conductive core ; wherein the electrically conductive core is coated with a eutectic material formulated to provide thermal response characteristics; wherein the strand includes a plurality of fiber segments that define a plurality of gaps between each fiber segment; wherein a gap length of each gap controls a delay of the eutectic sensing element .