mhurhangee/ep-ind-claims huggingface dataset:
A microprocessor capable of supporting multiple instruction set architectures, ISAs, the microprocessor comprising: first storage (504, 502), that stores state specific to a first ISA of the microprocessor, wherein the first ISA is one of the x86 ISA and the Advanced Risc Machines, ARM, ISA; and second storage (502, 504), that stores state specific to a second ISA of the microprocessor, wherein the second ISA is the other one of the x86 ISA and the ARM ISA; the microprocessor being characterized in that: it is configured to operate as both an x86 ISA microprocessor and as an ARM ISA microprocessor; it comprises a hardware instruction translator configured to translate x86 and ARM instructions into microinstructions of the microprocessor, wherein the microinstructions are from a microinstruction set that is distinct from the x86 ISA and the ARM ISA; and it is configured to respond to a hardware reset of the microprocessor by: initializing the first storage to default values specified by the first ISA; initializing the second storage to default values specified by the second ISA; initializing a third storage, that stores configuration state of the microprocessor that is not specified by either the first ISA or the second ISA, to predetermined values; and fetching firmware instructions of one of the first ISA and the second ISA; wherein the microprocessor is configured to respond to a reset instruction in the first ISA to reset an architectural environment of the microprocessor from the first ISA to the second ISA. first storage (504, 502), that stores state specific to a first ISA of the microprocessor, wherein the first ISA is one of the x86 ISA and the Advanced Risc Machines, ARM, ISA; and second storage (502, 504), that stores state specific to a second ISA of the microprocessor, wherein the second ISA is the other one of the x86 ISA and the ARM ISA; it is configured to operate as both an x86 ISA microprocessor and as an ARM ISA microprocessor; it comprises a hardware instruction translator configured to translate x86 and ARM instructions into microinstructions of the microprocessor, wherein the microinstructions are from a microinstruction set that is distinct from the x86 ISA and the ARM ISA; and it is configured to respond to a hardware reset of the microprocessor by: initializing the first storage to default values specified by the first ISA; initializing the second storage to default values specified by the second ISA; initializing a third storage, that stores configuration state of the microprocessor that is not specified by either the first ISA or the second ISA, to predetermined values; and fetching firmware instructions of one of the first ISA and the second ISA; initializing the first storage to default values specified by the first ISA; initializing the second storage to default values specified by the second ISA; initializing a third storage, that stores configuration state of the microprocessor that is not specified by either the first ISA or the second ISA, to predetermined values; and fetching firmware instructions of one of the first ISA and the second ISA;
A resin belt comprising: a plurality of teeth disposed at predetermined intervals along a longitudinal direction of the belt on a running surface of a belt body made of a thermoplastic resin; and a cloth covering the teeth, characterized in that: the cloth is a woven cloth obtained by weaving a thermoplastic synthetic resin fiber used as a warp yarn in the longitudinal direction of the belt and a fluorine resin fiber used as a weft yarn in a width direction of the belt; and characterized in that a percentage of the fluorine resin fiber exposed on a side of a cloth surface of the teeth is 50% or more per unit area, and a percentage of the fluorine resin fiber exposed on a side of a bonded surface with the belt body is 50% or less per unit area; the belt body is made of polyurethane; and the thermoplastic synthetic resin fiber is made of nylon and the fluorine resin fiber is made of tetrafluoroethylene-based resin. a plurality of teeth disposed at predetermined intervals along a longitudinal direction of the belt on a running surface of a belt body made of a thermoplastic resin; and a cloth covering the teeth, characterized in that: the cloth is a woven cloth obtained by weaving a thermoplastic synthetic resin fiber used as a warp yarn in the longitudinal direction of the belt and a fluorine resin fiber used as a weft yarn in a width direction of the belt; and characterized in that a percentage of the fluorine resin fiber exposed on a side of a cloth surface of the teeth is 50% or more per unit area, and a percentage of the fluorine resin fiber exposed on a side of a bonded surface with the belt body is 50% or less per unit area; the belt body is made of polyurethane; and the thermoplastic synthetic resin fiber is made of nylon and the fluorine resin fiber is made of tetrafluoroethylene-based resin. the cloth is a woven cloth obtained by weaving a thermoplastic synthetic resin fiber used as a warp yarn in the longitudinal direction of the belt and a fluorine resin fiber used as a weft yarn in a width direction of the belt; and characterized in that a percentage of the fluorine resin fiber exposed on a side of a cloth surface of the teeth is 50% or more per unit area, and a percentage of the fluorine resin fiber exposed on a side of a bonded surface with the belt body is 50% or less per unit area; the belt body is made of polyurethane; and the thermoplastic synthetic resin fiber is made of nylon and the fluorine resin fiber is made of tetrafluoroethylene-based resin.
A method for producing a component formed at least from a structural component and an organometallic sheet, wherein - in a first step, a fabric hose is arranged in a contour of a mold (1.1) and then the mold (1.1) is closed, - in a second step, a plastic, in particular a melt, is injected into the fabric hose arranged in the closed mold (1.1) and, - in a third step, a fluid and/or a supporting element is introduced into the fabric hose to form a cavity in the fabric hose and, after the plastic, in particular the melt, has cooled down, it forms a hollow structural component together with embedded fibers of the fabric hose, and - an organic sheet shaped and backmolded with a plastic is connected to the structural component in a material-bonded manner to form the component. - in a first step, a fabric hose is arranged in a contour of a mold (1.1) and then the mold (1.1) is closed, - in a second step, a plastic, in particular a melt, is injected into the fabric hose arranged in the closed mold (1.1) and, - in a third step, a fluid and/or a supporting element is introduced into the fabric hose to form a cavity in the fabric hose and, after the plastic, in particular the melt, has cooled down, it forms a hollow structural component together with embedded fibers of the fabric hose, and - an organic sheet shaped and backmolded with a plastic is connected to the structural component in a material-bonded manner to form the component.
A controller of a multi-phase electric motor comprising: drive means, Including a pair of an upper arm switching element (Q1 to Q3) and a lower arm switching element (Q4 to Q6), for driving the multi-phase electric motor; single current detection means provided on a direct current power supply side of the drive means, for detecting a current value of the multi-phase electric motor; PWM signal generation means for generating a plurality of PWM signals of each motor phase within one control period based on the current value detected by the current detection means and a carrier signal; current detectability determination means for determining whether or not the current value is detectable in the current detection means based on the PWM signals of each motor phase generated by the PWM signal generation means; and phase movement means for moving a phase of the PWM signals of a predetermined motor phase generated by the PWM signal generation means by a predetermined amount when the current detectability determination means determines that current is not detectable, characterized in that the phase movement means moves the phase of the plurality of PWM signals by a predetermined amount for all the plurality of PWM signals of the predetermined motor phase within one control period. drive means, Including a pair of an upper arm switching element (Q1 to Q3) and a lower arm switching element (Q4 to Q6), for driving the multi-phase electric motor; single current detection means provided on a direct current power supply side of the drive means, for detecting a current value of the multi-phase electric motor; PWM signal generation means for generating a plurality of PWM signals of each motor phase within one control period based on the current value detected by the current detection means and a carrier signal; current detectability determination means for determining whether or not the current value is detectable in the current detection means based on the PWM signals of each motor phase generated by the PWM signal generation means; and phase movement means for moving a phase of the PWM signals of a predetermined motor phase generated by the PWM signal generation means by a predetermined amount when the current detectability determination means determines that current is not detectable, characterized in that the phase movement means moves the phase of the plurality of PWM signals by a predetermined amount for all the plurality of PWM signals of the predetermined motor phase within one control period.
A depilatory device comprising: a galvanic micro-current unit operative to apply galvanic current energy to skin at an area of a hair follicle; a pulsed optical energy source operative to apply pulsed optical energy to the skin at the area of the hair follicle at an energy level and duration so as to cause thermal destruction of a hair papilla; and a skin interface element that comprises a pulsed optical energy skin interface portion, through which the pulsed optical energy from the pulsed optical energy source is applicable, and a conductive surface, for providing galvanic micro-current connection from said galvanic micro-current unit to the skin. a galvanic micro-current unit operative to apply galvanic current energy to skin at an area of a hair follicle; a pulsed optical energy source operative to apply pulsed optical energy to the skin at the area of the hair follicle at an energy level and duration so as to cause thermal destruction of a hair papilla; and a skin interface element that comprises a pulsed optical energy skin interface portion, through which the pulsed optical energy from the pulsed optical energy source is applicable, and a conductive surface, for providing galvanic micro-current connection from said galvanic micro-current unit to the skin.
A sunshade assembly comprising: a flexible sunscreen having opposed longitudinal edges and opposed transversal edges; two opposed longitudinal guides (6, 7) for receiving therein and guiding corresponding ones of the opposed longitudinal edges of the sunscreen; a rotatable winding shaft configured for winding and unwinding the sunscreen at a first one of its transversal edges; an operating beam connected to the second one of the transversal edges of the sunscreen; two drive cables (9, 10) connected to opposite ends of the operating beam and guided in the opposed longitudinal guides in order to wind and unwind the flexible sunscreen; two positioning members movable together with the operating beam, wherein each positioning member extends into a corresponding one of said opposed longitudinal guides (6, 7), and wherein each of the opposed longitudinal edges of the sunscreen at least near the second one of the transversal edges is provided with a wing engaged by the respective positioning member, characterized in that each wing is folded inwards in a direction away from the respective positioning member, so that the wing and the positioning members are on opposite sides of the sunscreen; wherein each wing is made accessible to the respective positioning member from the opposite side of the flexible sunscreen in order to engage it. a flexible sunscreen having opposed longitudinal edges and opposed transversal edges; two opposed longitudinal guides (6, 7) for receiving therein and guiding corresponding ones of the opposed longitudinal edges of the sunscreen; a rotatable winding shaft configured for winding and unwinding the sunscreen at a first one of its transversal edges; an operating beam connected to the second one of the transversal edges of the sunscreen; two drive cables (9, 10) connected to opposite ends of the operating beam and guided in the opposed longitudinal guides in order to wind and unwind the flexible sunscreen; two positioning members movable together with the operating beam, wherein each positioning member extends into a corresponding one of said opposed longitudinal guides (6, 7), and wherein each of the opposed longitudinal edges of the sunscreen at least near the second one of the transversal edges is provided with a wing engaged by the respective positioning member, characterized in that each wing is folded inwards in a direction away from the respective positioning member, so that the wing and the positioning members are on opposite sides of the sunscreen; wherein each wing is made accessible to the respective positioning member from the opposite side of the flexible sunscreen in order to engage it.
A cell expansion system, the system comprising: a bioreactor comprising a hollow fiber membrane and a first fluid flow path having at least opposing ends, wherein a first opposing end of the first fluid flow path is fluidly associated with a first port and a second opposing end of the first fluid flow path is fluidly associated with a second port, wherein the first fluid flow path comprises an intracapillary portion of the hollow fiber membrane; a fluid inlet path fluidly associated with the first fluid flow path, wherein a plurality of cells are introduced into the first fluid flow path through the fluid inlet path; a first pump for circulating fluid in the first fluid flow path; and a controller for controlling operation of the first pump, wherein the controller is configured to control the first pump to: circulate a fluid at a first rate within the first fluid flow path; and stop the circulation of the fluid within the first fluid flow path after the plurality of the cells are loaded into the bioreactor and when a waste bag in the cell expansion system is replaced with a media bag. a bioreactor comprising a hollow fiber membrane and a first fluid flow path having at least opposing ends, wherein a first opposing end of the first fluid flow path is fluidly associated with a first port and a second opposing end of the first fluid flow path is fluidly associated with a second port, wherein the first fluid flow path comprises an intracapillary portion of the hollow fiber membrane; a fluid inlet path fluidly associated with the first fluid flow path, wherein a plurality of cells are introduced into the first fluid flow path through the fluid inlet path; a first pump for circulating fluid in the first fluid flow path; and a controller for controlling operation of the first pump, wherein the controller is configured to control the first pump to: circulate a fluid at a first rate within the first fluid flow path; and stop the circulation of the fluid within the first fluid flow path after the plurality of the cells are loaded into the bioreactor and when a waste bag in the cell expansion system is replaced with a media bag. circulate a fluid at a first rate within the first fluid flow path; and stop the circulation of the fluid within the first fluid flow path after the plurality of the cells are loaded into the bioreactor and when a waste bag in the cell expansion system is replaced with a media bag.
A semiconductor device, comprising: a substrate having an opening extending at least partially through the substrate; an outer conductive material partially filling the opening; and a negative thermal expansion material further filling the opening, wherein the conductive material is disposed between the substrate and the NTE material. a substrate having an opening extending at least partially through the substrate; an outer conductive material partially filling the opening; and a negative thermal expansion material further filling the opening, wherein the conductive material is disposed between the substrate and the NTE material.
A lamp, comprising:a strip-shaped LED lamp, wherein the strip-shaped LED lamp comprises a first strip-shaped conducting wire and at least one LED luminous body disposed on the strip-shaped conducting wire, and each of the LED luminous bodies comprises a first chip and a second chip connected to the first chip via a second conducting wire, wherein the first chip in each of the LED luminous bodies is an LED chip; and the second chip is used for controlling the power supply for the LED chip; characterized in that the lamp further comprises an injection molding body which is manufactured by an injection molding process, wherein the first strip-shaped conducting wire penetrates into the injection molding body; the injection molding body is further formed, in an injection molding manner, with a fixing portion for fixing the lamp in a hole to be penetrated, the fixing portion is buckles formed by injection molding, and the buckles comprise a first buckle and a second buckle between which a buckle gap is disposed, and the LED lamp passes through the buckle gap; and printed circuit boards and resistors are omitted in the LED luminous bodies. characterized in that the lamp further comprises an injection molding body which is manufactured by an injection molding process, wherein the first strip-shaped conducting wire penetrates into the injection molding body; the injection molding body is further formed, in an injection molding manner, with a fixing portion for fixing the lamp in a hole to be penetrated, the fixing portion is buckles formed by injection molding, and the buckles comprise a first buckle and a second buckle between which a buckle gap is disposed, and the LED lamp passes through the buckle gap; and printed circuit boards and resistors are omitted in the LED luminous bodies.
A binding molecule that binds to human complement factor C2 comprising an immunoglobulin heavy chain variable region and an immunoglobulin light chain variable region, wherein the heavy chain variable region comprises: (a) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO:4; (b) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO:5; and (c) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO:6; and wherein the light chain variable region comprises: (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO:7; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO:8; and (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO:9, wherein the binding molecule binds to the C2b domain of human complement factor C2. (a) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO:4; (b) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO:5; and (c) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO:6; and (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO:7; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO:8; and (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO:9,
Method for producing a pot for a pot-type volute casing for a compressor, wherein the pot is produced from a blank by way of a cutting manufacturing process, characterized in that the blank has a substantially droplet-shaped external contour as viewed in cross section.
A wireless communication device for providing at least one Near Field Communication service to a user, the wireless communication device comprising: a Near Field Communication unit for storing a plurality of application elements for use in providing a plurality of Near Field Communication services, and for storing a database element for storing summary information for the plurality of application elements, wherein the summary information includes at least one parameter of or information about one or more of the Near Field Communication services and the plurality of application elements; a user interface element for managing the plurality of application elements stored in the Near Field Communication unit to provide the Near Field Communication services and for providing information relating to the Near Field Communication services to the user; a receiving element for receiving update information for a Near Field Communication service and for transferring the received update information to the Near Field Communication unit to update the Near Field Communication unit; and a user interface update element for updating the information provided to the user by the user interface element according to the received update information transferred to the Near Field Communication unit. a Near Field Communication unit for storing a plurality of application elements for use in providing a plurality of Near Field Communication services, and for storing a database element for storing summary information for the plurality of application elements, wherein the summary information includes at least one parameter of or information about one or more of the Near Field Communication services and the plurality of application elements; a user interface element for managing the plurality of application elements stored in the Near Field Communication unit to provide the Near Field Communication services and for providing information relating to the Near Field Communication services to the user; a receiving element for receiving update information for a Near Field Communication service and for transferring the received update information to the Near Field Communication unit to update the Near Field Communication unit; and a user interface update element for updating the information provided to the user by the user interface element according to the received update information transferred to the Near Field Communication unit.
Electrical connection for connecting the phase conductor and the ground cable of a thermocouple to the magnet assembly of a gas supply safety cock, of the type comprising a thermocouple connection head that can be coupled to a complementary contact portion of the magnet assembly, in which said connection thermocouple head comprises a first terminal for said phase conductor, or for said ground cable, and a second terminal for said ground cable, or for said phase conductor, and in which said contact portion of the magnet assembly comprises a complementary jack for said first terminal and a coupling collar for said second terminal, characterized in that said second terminal comprises at least one thin elastic plate (5a, 5b, 5c, 5d) insertable inside said collar, said thermocouple connection head and said contact portion of the magnet assembly being shaped to deform said at least one thin elastic plate (5a, 5b, 5c, 5d), when inserted inside said collar, in contact with the latter, and wherein said at least one elastic plate (5a, 5b, 5c, 5d) comprises a free end and has, in its rest position, an outwardly arched portion that becomes substantially flat when it is coupled with said collar and remains in contact with the inner walls of said collar due to the elastic return force of each thin plate (5a, 5b, 5c, 5d) towards its arched rest position which pushes each thin plate (5a, 5b, 5c, 5d) against the inner walls of said collar, wherein said collar surrounds said complementary jack and is separated from the latter, and in that said at least one thin elastic plate (5a, 5b, 5c, 5d) outwardly extends to said first terminal and is separated from the latter by an electrically insulating sheath.