mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit capable of responding to power-up messages while in a low-power state, the IC comprising: a digital interface; a digital input connected to the digital interface; a configuration memory configured to store configuration information defining a configuration of the IC; primary operation circuitry (206, 208) connected to the digital interface and configured to perform one or more primary tasks, the primary operation circuitry (206, 208) configured for selectively having at least a portion of its power removed during a low power mode; and a first power manager connected to the primary operation circuitry (206, 208) and the digital input, the first power manager configured to receive a set of one or more predefined digital signals over the digital input during the low power mode, change the information stored in the configuration memory, and initiate a power up of the primary operation circuitry (206, 208) in response to the set of predefined digital signals; wherein the primary operation circuitry (206, 208) includes a second power manager configured to be powered down during the low power mode, and further configured to be powered up and perform power up operations on the primary operation circuitry (206, 208) in response to a signal from the first power manager. a digital interface; a digital input connected to the digital interface; a configuration memory configured to store configuration information defining a configuration of the IC; primary operation circuitry (206, 208) connected to the digital interface and configured to perform one or more primary tasks, the primary operation circuitry (206, 208) configured for selectively having at least a portion of its power removed during a low power mode; and a first power manager connected to the primary operation circuitry (206, 208) and the digital input, the first power manager configured to receive a set of one or more predefined digital signals over the digital input during the low power mode, change the information stored in the configuration memory, and initiate a power up of the primary operation circuitry (206, 208) in response to the set of predefined digital signals; wherein the primary operation circuitry (206, 208) includes a second power manager configured to be powered down during the low power mode, and further configured to be powered up and perform power up operations on the primary operation circuitry (206, 208) in response to a signal from the first power manager.
A strip casting apparatus comprising: a cylindrical roll core; and a roll shell having an outer diameter surface and a nitrided inner diameter surface. a cylindrical roll core; and a roll shell having an outer diameter surface and a nitrided inner diameter surface.
Device in a drill string component for percussive rock drilling including a thread for threading together with another drill string component being provided with a complementary thread, wherein the thread includes a thread groove formed by two thread flanks (10,11), whereof one in operation forms a pressure flank, and an intermediate thread bottom, and wherein the thread groove has an essentially equally shaped sectional form along its axial extension, characterized in - that said thread bottom exhibits at least three surface portions (Y1,Y2,YC) with part-circular shape, as seen in an axial section, and - that said surface portions (Y1,Y2,YC) with part-circular shape have increasing radiuses, as seen from each thread flank to an intermediate surface portion of the thread bottom. - that said thread bottom exhibits at least three surface portions (Y1,Y2,YC) with part-circular shape, as seen in an axial section, and - that said surface portions (Y1,Y2,YC) with part-circular shape have increasing radiuses, as seen from each thread flank to an intermediate surface portion of the thread bottom.
An alignment device (102, 402, 802), comprising: a motor comprising a rotor and a stator, the rotor configured to rotate relative to the stator about a rotation axis in response to a current applied to the motor; a first retainer (114, 404, 804) coupled to the stator, the first retainer comprising a plurality of stator magnets (120, 408, 408B, 410C-410F, 810); a first set of stator magnets (120A, 120B, 410C-410D, 410E-410F) of the plurality of stator magnets having north poles oriented in a first direction; a second retainer (116, 406, 806) spaced apart from the first retainer along the rotation axis and coupled to the rotor, the second retainer comprising a plurality of rotor magnets (118, 408, 408A, 410G-410J, 810); and a first set of rotor magnets (118A, 118B, 410G-410H, 4101-410J) of the plurality of rotor magnets having north poles oriented in a second direction that is opposite the first direction, wherein, in the absence of the current applied to the motor, the first set of stator magnets and the first set of rotor magnets magnetically bias the rotor into a predetermined orientation about the rotation axis with respect to the stator. a motor comprising a rotor and a stator, the rotor configured to rotate relative to the stator about a rotation axis in response to a current applied to the motor; a first retainer (114, 404, 804) coupled to the stator, the first retainer comprising a plurality of stator magnets (120, 408, 408B, 410C-410F, 810); a first set of stator magnets (120A, 120B, 410C-410D, 410E-410F) of the plurality of stator magnets having north poles oriented in a first direction; a second retainer (116, 406, 806) spaced apart from the first retainer along the rotation axis and coupled to the rotor, the second retainer comprising a plurality of rotor magnets (118, 408, 408A, 410G-410J, 810); and a first set of rotor magnets (118A, 118B, 410G-410H, 4101-410J) of the plurality of rotor magnets having north poles oriented in a second direction that is opposite the first direction, wherein, in the absence of the current applied to the motor, the first set of stator magnets and the first set of rotor magnets magnetically bias the rotor into a predetermined orientation about the rotation axis with respect to the stator.
Flupirtine acid addition salts having the following formula, wherein R represents a substituted or unsubstituted C 1 -C 12 -alkyl or a substituted or unsubstituted C 6 -C 10 -aryl group,, wherein the salt is crystalline.
A gear device, comprising: a carrier having: a first member; and a second member opposed to the first member in a direction of a rotation axis; a crankshaft configured to cause relative rotation between an outer cylinder and the carrier about the rotation axis; an insertion pin inserted into the first member and the second member; and a restriction member configured to restrict movement of the insertion pin, wherein the insertion pin is housed in such a manner as to extend from a first hole over to a second hole, the first hole formed in the first member so as to extend through the first member, the second hole formed in the second member so as to correspond to the first hole, at least one of the first hole and the second hole has such a shape as to restrict movement of the insertion pin toward the second hole in the rotation axis direction, and the restriction member is mounted in the first member so as to restrict movement of the insertion pin toward the first hole in the rotation axis direction, characterized in that an inner peripheral surface of the first hole has a female screw portion, and the restriction member has a male screw portion engaged with the female screw portion so as to fix said restriction member to the first member. a carrier having: a first member; and a second member opposed to the first member in a direction of a rotation axis; a first member; and a second member opposed to the first member in a direction of a rotation axis; a crankshaft configured to cause relative rotation between an outer cylinder and the carrier about the rotation axis; an insertion pin inserted into the first member and the second member; and a restriction member configured to restrict movement of the insertion pin, wherein the insertion pin is housed in such a manner as to extend from a first hole over to a second hole, the first hole formed in the first member so as to extend through the first member, the second hole formed in the second member so as to correspond to the first hole, at least one of the first hole and the second hole has such a shape as to restrict movement of the insertion pin toward the second hole in the rotation axis direction, and the restriction member is mounted in the first member so as to restrict movement of the insertion pin toward the first hole in the rotation axis direction, characterized in that an inner peripheral surface of the first hole has a female screw portion, and the restriction member has a male screw portion engaged with the female screw portion so as to fix said restriction member to the first member.
A pharmaceutical-grade composition comprising: a peptide consisting of an amino acid sequence that is selected from the group consisting of SEQ ID NO:1 - SEQ ID NO:36; fused or linked to a fragment crystallizable (Fc) region of an antibody.
Heat exchange circuit for a geothermal plant comprising: - a well excavated in the rock, - a casing arranged inside the well, integral with it and comprising at least a first perforated section extending along a first portion of the well and at least a second perforated section extending along a second portion of the well, said perforated sections allowing the exit and the entry of a flow of geothermal fluid contained in an aquifer, - an internal duct, located inside the casing in which a heat transfer fluid flows, - said well, casing and internal duct being arranged as a substantially closed ring, except for at least one surface interruption, - at least one heat-exchange section at the bottom of the well between the first portion and the second portion of the well within which the geothermal fluid transfers heat to the heat transfer fluid and said at least one heat-exchange section comprises at least a first portion of the internal duct, - at least a user for the use of thermal energy or for the generation of electrical energy or a combination thereof, located at the surface and to which the internal duct is removably connected by an aerial part of the piping said heat exchange circuit being characterized in that the internal duct is translatable inside the casing so that said first portion of the internal duct assumes any position inside the casing including a position at the bottom of the well or a position on the surface. - a well excavated in the rock, - a casing arranged inside the well, integral with it and comprising at least a first perforated section extending along a first portion of the well and at least a second perforated section extending along a second portion of the well, said perforated sections allowing the exit and the entry of a flow of geothermal fluid contained in an aquifer, - an internal duct, located inside the casing in which a heat transfer fluid flows, - said well, casing and internal duct being arranged as a substantially closed ring, except for at least one surface interruption, - at least one heat-exchange section at the bottom of the well between the first portion and the second portion of the well within which the geothermal fluid transfers heat to the heat transfer fluid and said at least one heat-exchange section comprises at least a first portion of the internal duct, - at least a user for the use of thermal energy or for the generation of electrical energy or a combination thereof, located at the surface and to which the internal duct is removably connected by an aerial part of the piping said heat exchange circuit being characterized in that the internal duct is translatable inside the casing so that said first portion of the internal duct assumes any position inside the casing including a position at the bottom of the well or a position on the surface.
A metallic fastener element for a slide fastener, the fastener element comprising a coupling head portion and a tape holding portion extending from the coupling head portion, wherein a coupling concave portion is concaved on a first surface of the coupling head portion and a coupling convex portion is protruded on a second surface of the coupling head portion, the tape holding portion has a body portion extending from the coupling head portion and a pair of first leg portion and second leg portion branched and further extending from the body portion, and a tape holding surface is continuously formed from the first leg portion to the second leg portion via the body portion, being characterized in that: the tape holding portion has at least one notch portion concaved on at least one surface of the first surface and the second surface of the tape holding portion along an element thickness direction and opened on the tape holding surface, and a bulging portion adjacent to a bottom surface of the notch portion in the element thickness direction and bulging from the tape holding surface.
A portable terminal device comprising: a housing; a display unit disposed on a first surface of the housing; a first side plate disposed on an outer surface of a first side wall of the housing; and second members (112c, 112d) disposed at ends of the housing, the second members sandwiching the first side wall along a longitudinal direction of the first side wall, wherein the material strength of the first side plate is higher than that of the second members, the first side wall of the housing is formed by the same material as the second members, the outer surface of the first side wall is joined to the first side plate with an adhesive, and a first clearance is present between the first side plate and the first side wall, the first clearance being on at least one of both sides of an adhesive surface between the first side plate and the first side wall. a housing; a display unit disposed on a first surface of the housing; a first side plate disposed on an outer surface of a first side wall of the housing; and second members (112c, 112d) disposed at ends of the housing, the second members sandwiching the first side wall along a longitudinal direction of the first side wall, wherein the material strength of the first side plate is higher than that of the second members, the first side wall of the housing is formed by the same material as the second members, the outer surface of the first side wall is joined to the first side plate with an adhesive, and a first clearance is present between the first side plate and the first side wall, the first clearance being on at least one of both sides of an adhesive surface between the first side plate and the first side wall.
A method for forming an EUV lithography glass substrate comprising: providing a silica precursor and a titania precursor; delivering, separately, each of said precursors as a vapor in a stream of an inert gas to a mixing manifold and mixing said precursors therein to form a vaporous mixture, said precursors being delivered to form a silica-titania glass having a titania content in the range of 2% to 12% by weight; delivering said precursor mixture as a vapor to deposition burners where they are reacted to form silica-titania particles; growing a porous preform by successively depositing the particles on a deposition surface at a temperature 200-500°C below that required to consolidate the preform into dense glass while rotating and translating the deposition surface relative to the burner to maintain a substantially constant distance between the porous preform and the burners during deposition; and consolidating the porous preform into a dense EUV lithography glass, wherein consolidating comprises heating the porous preform to a temperature in a range from 1200 to 1900°C and forming the consolidated dense EUV lithography glass into a homogenous EUV lithography glass substrate. providing a silica precursor and a titania precursor; delivering, separately, each of said precursors as a vapor in a stream of an inert gas to a mixing manifold and mixing said precursors therein to form a vaporous mixture, said precursors being delivered to form a silica-titania glass having a titania content in the range of 2% to 12% by weight; delivering said precursor mixture as a vapor to deposition burners where they are reacted to form silica-titania particles; growing a porous preform by successively depositing the particles on a deposition surface at a temperature 200-500°C below that required to consolidate the preform into dense glass while rotating and translating the deposition surface relative to the burner to maintain a substantially constant distance between the porous preform and the burners during deposition; and consolidating the porous preform into a dense EUV lithography glass, wherein consolidating comprises heating the porous preform to a temperature in a range from 1200 to 1900°C and forming the consolidated dense EUV lithography glass into a homogenous EUV lithography glass substrate.
A method for assisting driving a vehicle, the method being at least partially performed in the vehicle and comprising the steps of: - identifying a first distinctive mark on or at a road on which the vehicle is travelling; - retrieving, from a database, a distance between the first distinctive mark and a second distinctive mark on or at a road; - calculating, based on a location of the vehicle relative to the first distinctive mark, the relative distance of the vehicle to the second distinctive mark taking into account the distance between the first and second distinctive marks; and - assisting the driving of the vehicle based on the calculated relative distance, characterized in that: the identifying step is performed using an acceleration sensor. - identifying a first distinctive mark on or at a road on which the vehicle is travelling; - retrieving, from a database, a distance between the first distinctive mark and a second distinctive mark on or at a road; - calculating, based on a location of the vehicle relative to the first distinctive mark, the relative distance of the vehicle to the second distinctive mark taking into account the distance between the first and second distinctive marks; and - assisting the driving of the vehicle based on the calculated relative distance, the identifying step is performed using an acceleration sensor.
Rotary positive displacement machine package with a dry-running, twin-shaft rotary positive displacement machine and a lubricant supply device, wherein the lubricant supply device comprises an electrically driven lubricant pump, characterised in that the lubricant pump can be operated with a control voltage of the rotary positive displacement machine package, the control voltage being < 50 V and the rotary positive displacement machine package having a control voltage power supply unit, which provides an electrical supply to a control device of the rotary positive displacement machine package and the lubricant pump.
A fluid regulator (10A, 10B, 10C), comprising: an actuator assembly (100A, 100B, 100C) comprising an upper casing, a lower casing (120A, 120B, 120C) secured to the upper casing, and a diaphragm assembly disposed between the upper casing and the lower casing; a body assembly secured to the actuator assembly, the body assembly defining an inlet for an operating fluid and an outlet for the operating fluid and comprising a stem assembly operatively connected to the diaphragm assembly to move with the diaphragm assembly; and a balancing system disposed between the actuator assembly and the body assembly; the balancing system comprising: a diaphragm operatively connected to the stem assembly to move with the stem assembly, the diaphragm having a cross-sectional area that is acted on by an inlet pressure of the operating fluid at the inlet of the body assembly; characterized in the balancing system further comprising: a means (500, 510, 520) for increasing the cross-sectional area (Al, A2, A3, A4) of the diaphragm of the balancing assembly as the fluid regulator approaches a lockup position, wherein the cross-sectional area of the diaphragm that is acted on by the inlet pressure of the operating fluid at the inlet of the body assembly stays constant from the fully open position until the fluid regulator approaches the lockup position. an actuator assembly (100A, 100B, 100C) comprising an upper casing, a lower casing (120A, 120B, 120C) secured to the upper casing, and a diaphragm assembly disposed between the upper casing and the lower casing; a body assembly secured to the actuator assembly, the body assembly defining an inlet for an operating fluid and an outlet for the operating fluid and comprising a stem assembly operatively connected to the diaphragm assembly to move with the diaphragm assembly; and a balancing system disposed between the actuator assembly and the body assembly; the balancing system comprising: a diaphragm operatively connected to the stem assembly to move with the stem assembly, the diaphragm having a cross-sectional area that is acted on by an inlet pressure of the operating fluid at the inlet of the body assembly;
An electrolyzer system, comprising: a steam generator configured to generate steam; a stack of solid oxide electrolyzer cells configured to generate a hydrogen stream using the steam generated by the steam generator; a hotbox housing the stack, the hotbox comprising a hydrogen outlet configured to output the hydrogen stream; a hydrogen blower configured to pressurize the hydrogen stream generated by the stack; a hydrogen processor configured to compress the pressurized hydrogen stream output from the hydrogen blower; a first output conduit fluidly connecting the hydrogen outlet to the hydrogen blower; and a second output conduit fluidly connecting an outlet of the hydrogen blower to an inlet of the hydrogen processor. a steam generator configured to generate steam; a stack of solid oxide electrolyzer cells configured to generate a hydrogen stream using the steam generated by the steam generator; a hotbox housing the stack, the hotbox comprising a hydrogen outlet configured to output the hydrogen stream; a hydrogen blower configured to pressurize the hydrogen stream generated by the stack; a hydrogen processor configured to compress the pressurized hydrogen stream output from the hydrogen blower; a first output conduit fluidly connecting the hydrogen outlet to the hydrogen blower; and a second output conduit fluidly connecting an outlet of the hydrogen blower to an inlet of the hydrogen processor.
A resource configuration method, wherein the method comprises: receiving, by a receive end device, configuration information from a transmit end device, wherein the configuration information indicates a resource block group, RBG, size, the RBG size belongs to a RBG size set, and the RBG size set corresponds to a system bandwidth parameter and comprises at least two RBG sizes; and determining, by the receive end device, a RBG size based on the configuration information, wherein the RBG size is a resource scheduling frequency domain size. receiving, by a receive end device, configuration information from a transmit end device, wherein the configuration information indicates a resource block group, RBG, size, the RBG size belongs to a RBG size set, and the RBG size set corresponds to a system bandwidth parameter and comprises at least two RBG sizes; and determining, by the receive end device, a RBG size based on the configuration information, wherein the RBG size is a resource scheduling frequency domain size.