mhurhangee/patent-ind-claim-en huggingface dataset:
A resin foam having a repulsive stress at 80% compression of 1.0 to 9.0 N/cm 2 and a tensile modulus of elasticity of 5.0 to 14.0 MPa, the repulsive stress at 80% compression being defined as a repulsive stress when a resin foam is compressed by 80% of the initial thickness, and the tensile modulus of elasticity and the repulsive stress at 80% compression being determined in accordance with JIS K6767, wherein the resin foam has an average cell diameter of 15 to 100 μm and an apparent density of 0.01 to 0.10 g/cm 3 , the average cell diameter being determined by capturing an enlarged image of a cellular portion of a resin-foam cross section using a microscope, measuring the area of all the cells appeared in a definite area (1 mm 2 ) of the cut surface, converting the area to the equivalent circle diameter, and then averaging it with the number of cells; and wherein the resin foam comprises a polypropylene and an olefinic thermoplastic vulcanizate (TPV). wherein the resin foam has an average cell diameter of 15 to 100 μm and an apparent density of 0.01 to 0.10 g/cm 3 , the average cell diameter being determined by capturing an enlarged image of a cellular portion of a resin-foam cross section using a microscope, measuring the area of all the cells appeared in a definite area (1 mm 2 ) of the cut surface, converting the area to the equivalent circle diameter, and then averaging it with the number of cells; and wherein the resin foam comprises a polypropylene and an olefinic thermoplastic vulcanizate (TPV).
A system for determining the reactivity of a sample material, having: a metering device for metering the sample material into a sample vessel, a sample store for adjusting the temperature of the sample material in the sample vessel, a mixing apparatus for accommodating the sample vessel containing the sample material at controlled temperature and for mixing the sample material in the sample vessel, and a calorimeter for ascertaining the reactivity of the mixed sample material, wherein the sample store , for preparation of a sample material in the cement or lime industry for calorimetric measurement, has the following: an accommodation body having at least one or a multitude of storage sites each for accommodation of one sample vessel containing a sample material, characterized in that the sample store has a temperature control device for cooling or heating the storage sites of the accommodation body . an accommodation body having at least one or a multitude of storage sites each for accommodation of one sample vessel containing a sample material, characterized in that the sample store has a temperature control device for cooling or heating the storage sites of the accommodation body .
A transistor having a nitride semiconductor used therein, comprising: a channel layer through which electrons run; a barrier layer that forms a two-dimensional electron gas in the channel layer and that is provided above the channel layer and contains at least one of indium, aluminum and gallium, and nitrogen; and a gate electrode , a source electrode , and a drain electrode that are arranged on the barrier layer, the transistor further comprising a spacer layer that is inserted between the barrier layer and the channel layer , and that is larger in polarization than the barrier layer , wherein the spacer layer is not present only in a region directly below the gate electrode and in a vicinity of the region, characterized in that the barrier layer is a layer formed directly on top of both the spacer layer and the channel layer , wherein a horizontal length of a portion where the spacer layer is not present is twice a horizontal length of the gate electrode . a barrier layer that forms a two-dimensional electron gas in the channel layer and that is provided above the channel layer and contains at least one of indium, aluminum and gallium, and nitrogen; and a gate electrode , a source electrode , and a drain electrode that are arranged on the barrier layer, the transistor further comprising a spacer layer that is inserted between the barrier layer and the channel layer , and that is larger in polarization than the barrier layer , wherein the spacer layer is not present only in a region directly below the gate electrode and in a vicinity of the region, characterized in that the barrier layer is a layer formed directly on top of both the spacer layer and the channel layer , wherein a horizontal length of a portion where the spacer layer is not present is twice a horizontal length of the gate electrode .
A subsurface hanger apparatus for suspending an electrical submersible pump in subsurface tubing of a well , the apparatus including: a spool assembly , the spool assembly having: a tubular shaped spool housing , a spool electrical pad , and a spool cable lead extending out of the spool housing ; a hanger assembly , the hanger assembly having: a cylindrical hanger housing , a hanger electrical pad , a hanger cable lead extending out of the hanger assembly in a direction opposite the spool cable lead , a cable hanger sub circumscribing the hanger cable lead , and a fluid flow path through the hanger assembly defined by a crossover tube located between the cylindrical hanger housing and the cable hanger sub , and an insert tube of the cylindrical hanger housing ; where the hanger electrical pad is positioned to engage the spool electrical pad when the hanger assembly is landed within, and supported by, the spool assembly , and the hanger electrical pad is moveable radially between a retracted position and an extended position, where in the extended position the hanger electrical pad is located to engage the spool electrical pad and prevent axial motion of the hanger assembly relative to the spool assembly . a spool assembly , the spool assembly having: a tubular shaped spool housing , a spool electrical pad , and a spool cable lead extending out of the spool housing ; a tubular shaped spool housing , a spool electrical pad , and a spool cable lead extending out of the spool housing ; a hanger assembly , the hanger assembly having: a cylindrical hanger housing , a hanger electrical pad , a hanger cable lead extending out of the hanger assembly in a direction opposite the spool cable lead , a cable hanger sub circumscribing the hanger cable lead , and a fluid flow path through the hanger assembly defined by a crossover tube located between the cylindrical hanger housing and the cable hanger sub , and an insert tube of the cylindrical hanger housing ; where a cylindrical hanger housing , a hanger electrical pad , a hanger cable lead extending out of the hanger assembly in a direction opposite the spool cable lead , a cable hanger sub circumscribing the hanger cable lead , and a fluid flow path through the hanger assembly defined by a crossover tube located between the cylindrical hanger housing and the cable hanger sub , and an insert tube of the cylindrical hanger housing ; where the hanger electrical pad is positioned to engage the spool electrical pad when the hanger assembly is landed within, and supported by, the spool assembly , and the hanger electrical pad is moveable radially between a retracted position and an extended position, where in the extended position the hanger electrical pad is located to engage the spool electrical pad and prevent axial motion of the hanger assembly relative to the spool assembly .
A portable terminal comprising: an antenna mounted to an inner side surface of a body of the portable terminal , wherein the antenna includes a first surface and a second surface where the second surface is adjacent to the inner side surface of the body ; a rear case covering at least a portion of the inner side surface of the body and wherein the rear case includes a first surface, a second surface adjacent to the inner side of the body , and a battery mounting space, and a cover provided on the inner side surface of the body , the cover covering the antenna and the rear case , wherein the antenna and the rear case are separably coupled to the inner side surface of the body , and when the cover is separated from the inner side surface of the body the first surface of the antenna and the first surface of the rear case are exposed to outside the portable terminal ; wherein the antenna comprises: an upper antenna disposed at an upper end of the body , and a lower antenna disposed at a lower end of the body ; and wherein the rear case is disposed between the upper antenna and the lower antenna , and an upper end of the rear case is coupled to the upper antenna along a circumference of a lower end of the upper antenna and a lower end of the rear case is coupled to the lower antenna along a circumference of an upper end of the lower antenna . an antenna mounted to an inner side surface of a body of the portable terminal , wherein the antenna includes a first surface and a second surface where the second surface is adjacent to the inner side surface of the body ; a rear case covering at least a portion of the inner side surface of the body and wherein the rear case includes a first surface, a second surface adjacent to the inner side of the body , and a battery mounting space, and a cover provided on the inner side surface of the body , the cover covering the antenna and the rear case , wherein the antenna and the rear case are separably coupled to the inner side surface of the body , and when the cover is separated from the inner side surface of the body the first surface of the antenna and the first surface of the rear case are exposed to outside the portable terminal ; wherein the antenna comprises: an upper antenna disposed at an upper end of the body , and a lower antenna disposed at a lower end of the body ; and wherein the rear case is disposed between the upper antenna and the lower antenna , and an upper end of the rear case is coupled to the upper antenna along a circumference of a lower end of the upper antenna and a lower end of the rear case is coupled to the lower antenna along a circumference of an upper end of the lower antenna . an upper antenna disposed at an upper end of the body , and a lower antenna disposed at a lower end of the body ; and wherein the rear case is disposed between the upper antenna and the lower antenna , and an upper end of the rear case is coupled to the upper antenna along a circumference of a lower end of the upper antenna and a lower end of the rear case is coupled to the lower antenna along a circumference of an upper end of the lower antenna .
A filtration assembly for filtering nanoparticles, including: - a filter having pores that are capable of retaining within them nanoparticles that are likely to be present in an air flow intended to pass through the filter, - a filter support including two parts, these being: • a lower base-forming part including a peripheral bearing surface on which the filter can rest; • an upper ring-shaped part capable of being mounted around the bearing surface of the base, the mounting of the ring around the bearing surface of the base making it possible to tension the filter in a direction radial to the mounting direction, the mounting clearance between the ring and the bearing surface of the base being dimensioned such as to maintain the filter resting on the bearing surface under mechanical stress by pinching, in a direction radial to the mounting direction, the bearing surface of the base protruding from the ring , such that after assembly of the ring with the base , the bearing surface is raised relative to the ring . - a filter having pores that are capable of retaining within them nanoparticles that are likely to be present in an air flow intended to pass through the filter, - a filter support including two parts, these being: • a lower base-forming part including a peripheral bearing surface on which the filter can rest; • an upper ring-shaped part capable of being mounted around the bearing surface of the base, the mounting of the ring around the bearing surface of the base making it possible to tension the filter in a direction radial to the mounting direction, the mounting clearance between the ring and the bearing surface of the base being dimensioned such as to maintain the filter resting on the bearing surface under mechanical stress by pinching, in a direction radial to the mounting direction, the bearing surface of the base protruding from the ring , such that after assembly of the ring with the base , the bearing surface is raised relative to the ring . • a lower base-forming part including a peripheral bearing surface on which the filter can rest; • an upper ring-shaped part capable of being mounted around the bearing surface of the base, the mounting of the ring around the bearing surface of the base making it possible to tension the filter in a direction radial to the mounting direction, the mounting clearance between the ring and the bearing surface of the base being dimensioned such as to maintain the filter resting on the bearing surface under mechanical stress by pinching, in a direction radial to the mounting direction, the bearing surface of the base protruding from the ring , such that after assembly of the ring with the base , the bearing surface is raised relative to the ring .
A catheter fixing assembly, configured to fix a catheter, the catheter being provided with a catheter fixing wing, the catheter fixing wing comprising a fixing wing body and wings disposed on two sides of the fixing wing body, wherein the catheter fixing assembly comprises: a base and wing fixing portions ; wherein the base comprises an adhering surface and a fixing surface ; wherein the adhering surface is configured to adhere the base to the skin; and wherein the wing fixing portions are configured to detachably fix the wings on the fixing surface , wherein the fixing surface comprises a central area with a groove having two sides configured to accommodate the fixing wing body, so that the wings can be carried by areas of the fixing surface at two sides of the groove , wherein the catheter fixing assembly further comprises rotation shafts vertically disposed on the areas of the fixing surface at two sides of the groove ; wherein the wing fixing portions are rotatably connected to the rotation shafts between a first position and a second position; wherein in the first position the wings can be separated from the catheter fixing assembly; wherein in the second position the wing fixing portions are superposed on the wings to fix the wings on the fixing surface . a base and wing fixing portions ; wherein the base comprises an adhering surface and a fixing surface ; wherein the adhering surface is configured to adhere the base to the skin; and wherein the wing fixing portions are configured to detachably fix the wings on the fixing surface , wherein the fixing surface comprises a central area with a groove having two sides configured to accommodate the fixing wing body, so that the wings can be carried by areas of the fixing surface at two sides of the groove , wherein the catheter fixing assembly further comprises rotation shafts vertically disposed on the areas of the fixing surface at two sides of the groove ; wherein the wing fixing portions are rotatably connected to the rotation shafts between a first position and a second position; wherein in the first position the wings can be separated from the catheter fixing assembly; wherein in the second position the wing fixing portions are superposed on the wings to fix the wings on the fixing surface .
A DC electrical power network having a DC electrical power system and one or more further DC electrical power systems; the DC electrical power system having: a power generator converter system ; a positive supply rail extending from the converter system; a negative supply rail extending from the converter system; a midpoint earthing arrangement operatively connected to the supply rails, the earthing arrangement being connected to earth by a solid earth connection ; a first protective device on one of the supply rails which in case of a fault is operable to interrupt current flowing on that rail; and a second protective device on the earthing arrangement which in case of a fault is operable to interrupt current flowing to earth through the solid earth connection; and each further DC electrical power system having: a further power generator converter system; a positive supply rail extending from each further converter system; and a negative supply rail extending from each further converter system; wherein: the midpoint earthing arrangement is operatively connected to the supply rails of each further converter system, and a further protective device is located on only one of the supply rails of each further converter system, which further protective device in case of a fault is operable to interrupt current flowing on that rail. a power generator converter system ; a positive supply rail extending from the converter system; a negative supply rail extending from the converter system; a midpoint earthing arrangement operatively connected to the supply rails, the earthing arrangement being connected to earth by a solid earth connection ; a first protective device on one of the supply rails which in case of a fault is operable to interrupt current flowing on that rail; and a second protective device on the earthing arrangement which in case of a fault is operable to interrupt current flowing to earth through the solid earth connection; and a further power generator converter system; a positive supply rail extending from each further converter system; and a negative supply rail extending from each further converter system; wherein: the midpoint earthing arrangement is operatively connected to the supply rails of each further converter system, and a further protective device is located on only one of the supply rails of each further converter system, which further protective device in case of a fault is operable to interrupt current flowing on that rail. the midpoint earthing arrangement is operatively connected to the supply rails of each further converter system, and a further protective device is located on only one of the supply rails of each further converter system, which further protective device in case of a fault is operable to interrupt current flowing on that rail.
A method for manufacturing a valve body of a hollow valve, comprising the following steps: providing a bowl-shaped semi-finished product , wherein the semi-finished product has an annular wall surrounding a cylindrical cavity of the semi-finished product, and a base section ; forming a valve head from the base section ; lengthening the annular wall in an axial direction by deforming, wherein a mandrel is inserted into the cavity during the deforming; reducing an outer diameter of the annular wall by rotary swaging to obtain a valve stem of the finished valve body having predetermined outer diameter (D); wherein multiple mandrels having different diameters are used during the lengthening of the annular wall . providing a bowl-shaped semi-finished product , wherein the semi-finished product has an annular wall surrounding a cylindrical cavity of the semi-finished product, and a base section ; forming a valve head from the base section ; lengthening the annular wall in an axial direction by deforming, wherein a mandrel is inserted into the cavity during the deforming; reducing an outer diameter of the annular wall by rotary swaging to obtain a valve stem of the finished valve body having predetermined outer diameter (D); wherein multiple mandrels having different diameters are used during the lengthening of the annular wall .
A computing device , comprising: a battery; a microphone ; a display ; a speaker ; a camera ; wireless communication circuitry; one or more sensors configured to detect the motion of the computing device; memory circuitry having stored thereon instructions; and one or more processors to execute the instructions to: identify data corresponding to a motion of the computing device in a predefined pattern; and cause the microphone to be set to a mute state when the computing device is in an active telephone call with a remote device based on the identified data. a battery; a microphone ; a display ; a speaker ; a camera ; wireless communication circuitry; one or more sensors configured to detect the motion of the computing device; memory circuitry having stored thereon instructions; and one or more processors to execute the instructions to: identify data corresponding to a motion of the computing device in a predefined pattern; and cause the microphone to be set to a mute state when the computing device is in an active telephone call with a remote device based on the identified data. identify data corresponding to a motion of the computing device in a predefined pattern; and cause the microphone to be set to a mute state when the computing device is in an active telephone call with a remote device based on the identified data.
A control system for a power steering system, comprising: a scaling module for calculating a scale factor based on a wheel frequency ; and a command module that evaluates a wheel disturbance based on a wheel speed and determines a wheel disturbance cancel amount based on the wheel speed, and generates an assist command to the power steering system based on the wheel disturbance cancel amount and the scale factor , characterized in that the scaling module determines the scale factor based on a current magnitude , wherein the current magnitude is based on a filtered wheel speed . a scaling module for calculating a scale factor based on a wheel frequency ; and a command module that evaluates a wheel disturbance based on a wheel speed and determines a wheel disturbance cancel amount based on the wheel speed, and generates an assist command to the power steering system based on the wheel disturbance cancel amount and the scale factor , characterized in that the scaling module determines the scale factor based on a current magnitude , wherein the current magnitude is based on a filtered wheel speed .