mhurhangee/ep-ind-claims huggingface dataset:
A scroll compressor comprising: a rotating shaft body that is installed in a housing and rotates around an axis of the housing; a movable scroll revolving around an eccentric shaft separate from the rotating shaft body and connected to the rotating shaft body to revolve around the axis at a position eccentric to an axis of the rotating shaft body; a fixed scroll fixed to the housing; and bearings that slidably support the rotating shaft body and the eccentric shaft, the bearings being installed within the housing, wherein at least one of the bearings is a sliding bearing including a back metal, and a sliding layer formed on the back metal by baking, the sliding layer includes 5 to 60 wt% of graphite including particles, with a balance of at least one of polyamide-imide resin and polyimide resin, characterised in that the particles have an average diameter of 5 to 50 μm, a graphitization degree of 0.6 or more, and 50 % or more of the particles in a number ratio have a particle ratio more than or equal to 0.5, wherein the particle ratio is the ratio between a graphite minor axis and major axis. a rotating shaft body that is installed in a housing and rotates around an axis of the housing; a movable scroll revolving around an eccentric shaft separate from the rotating shaft body and connected to the rotating shaft body to revolve around the axis at a position eccentric to an axis of the rotating shaft body; a fixed scroll fixed to the housing; and bearings that slidably support the rotating shaft body and the eccentric shaft, the bearings being installed within the housing, wherein at least one of the bearings is a sliding bearing including a back metal, and a sliding layer formed on the back metal by baking, a back metal, and a sliding layer formed on the back metal by baking, the sliding layer includes 5 to 60 wt% of graphite including particles, with a balance of at least one of polyamide-imide resin and polyimide resin, characterised in that the particles have an average diameter of 5 to 50 μm, a graphitization degree of 0.6 or more, and 5 to 60 wt% of graphite including particles, with a balance of at least one of polyamide-imide resin and polyimide resin, characterised in that the particles have an average diameter of 5 to 50 μm, a graphitization degree of 0.6 or more, and 50 % or more of the particles in a number ratio have a particle ratio more than or equal to 0.5, wherein the particle ratio is the ratio between a graphite minor axis and major axis.
An audio encoding method, comprising: transforming an input audio signal into a set of spectral coefficients; coding a baseband portion of the set of spectral coefficients in the output bitstream; dividing an extended band of the spectral coefficients into plural sub-bands; scaling the plural sub-bands in the extended band; transforming at least one codeword from a library of codewords; comparing the set of spectral coefficients of a sub-band to at least one transformed codewords from the library; coding the spectral coefficients of the sub-band in an output bitstream comprising coding an identifier of one or more codewords from the library and a transform identifier. transforming an input audio signal into a set of spectral coefficients; coding a baseband portion of the set of spectral coefficients in the output bitstream; dividing an extended band of the spectral coefficients into plural sub-bands; scaling the plural sub-bands in the extended band; transforming at least one codeword from a library of codewords; comparing the set of spectral coefficients of a sub-band to at least one transformed codewords from the library; coding the spectral coefficients of the sub-band in an output bitstream comprising coding an identifier of one or more codewords from the library and a transform identifier.
An optical fiber temperature distribution measuring device comprising: an optical fiber as a sensor; a calculation control unit for measuring a temperature distribution along the optical fiber by using backward Raman scattered light from the optical fiber to calculate an intensity ratio between the intensity Ias of anti-Stokes light and the intensity Ist of Stokes light; a far-end-position dispersion characteristic calculation unit for obtaining a dispersion characteristic (D end) of the optical fiber at a far-end position thereof based on a response characteristic of a body of an optical fiber temperature distribution measuring device and a response characteristic of the optical fiber at the far-end position thereof, the dispersion characteristic being due to a variation of the distance over which backward Raman scattered light travels through the optical fiber depending on the wavelength; a per-unit-length dispersion characteristic calculation unit for obtaining a per-unit-length dispersion characteristic (D 0) of the optical fiber based on the dispersion characteristic (D end) of the optical fiber at the far-end position thereof; and a correction parameter calculation unit for calculating a correction parameter for correcting a dispersion characteristic of the optical fiber based on the per-unit-length dispersion characteristic (D 0) of the optical fiber. an optical fiber as a sensor; a calculation control unit for measuring a temperature distribution along the optical fiber by using backward Raman scattered light from the optical fiber to calculate an intensity ratio between the intensity Ias of anti-Stokes light and the intensity Ist of Stokes light; a far-end-position dispersion characteristic calculation unit for obtaining a dispersion characteristic (D end) of the optical fiber at a far-end position thereof based on a response characteristic of a body of an optical fiber temperature distribution measuring device and a response characteristic of the optical fiber at the far-end position thereof, the dispersion characteristic being due to a variation of the distance over which backward Raman scattered light travels through the optical fiber depending on the wavelength; a per-unit-length dispersion characteristic calculation unit for obtaining a per-unit-length dispersion characteristic (D 0) of the optical fiber based on the dispersion characteristic (D end) of the optical fiber at the far-end position thereof; and a correction parameter calculation unit for calculating a correction parameter for correcting a dispersion characteristic of the optical fiber based on the per-unit-length dispersion characteristic (D 0) of the optical fiber.
Transportable wrapper stacker machine, comprising a base and a hinged structure, the base comprising support forks, a main body and a drive element, the hinged structure comprising a forklift and a wrapping device, characterised in that the hinged structure comprises a wrapping base comprising a second set of forks, wherein the wrapping base with the second set of forks and the wrapping device have an upward and downward movement.
A hardware processor comprising: an execution unit to execute an instruction to request access to a block of a memory through a pointer to the block of the memory; and a memory management unit to allow access to the block of the memory when a memory corruption detection value in the pointer is validated with a memory corruption detection value in the memory for the block, characterized in that a position of the memory corruption detection value in the pointer is software-selectable between a first location and a second, different location. an execution unit to execute an instruction to request access to a block of a memory through a pointer to the block of the memory; and a memory management unit to allow access to the block of the memory when a memory corruption detection value in the pointer is validated with a memory corruption detection value in the memory for the block, characterized in that a position of the memory corruption detection value in the pointer is software-selectable between a first location and a second, different location.
A method, performed by a multi-SIM device within a user equipment including multiple Subscriber Identify Modules, SIMs, (141, 142) for supporting Multi-SIM Multi-Standby, MSMS, the method comprising: establishing (S100, S100') a window for at least receiving paging in an idle state of a first wireless communication associated with a first SIM; predicting (S300, S300'), based on the window, a collision or non-collision between the paging and a second wireless communication (12, 12') associated with a second SIM; and characterized by determining (S500, S500'), in response to a collision prediction, whether a simultaneous reception of the paging and the second wireless communication (12, 12') is possible through use of different respective carriers, if so, allocating respective radio frequency, RF, paths to the paging and the second wireless communication (12, 12'), the allocated RF paths corresponding to the different respective carriers, wherein the window comprises a pre-processing period (T PRE) for configuring_hardware to receive the paging, a reception period (T PG) for receiving the paging, and a post-processing period (T POST) for processing the received paging, the establishing (S100') of the window comprises obtaining duration information regarding the pre-processing period (T PRE), the reception period (T PG), and the post-processing period (T POST), obtaining timing information of the window and defining the window, based on the duration information and the timing information of the window, the pre-processing period (T PRE) depending on characteristics of a transceiver. establishing (S100, S100') a window for at least receiving paging in an idle state of a first wireless communication associated with a first SIM; predicting (S300, S300'), based on the window, a collision or non-collision between the paging and a second wireless communication (12, 12') associated with a second SIM; and characterized by determining (S500, S500'), in response to a collision prediction, whether a simultaneous reception of the paging and the second wireless communication (12, 12') is possible through use of different respective carriers, if so, allocating respective radio frequency, RF, paths to the paging and the second wireless communication (12, 12'), the allocated RF paths corresponding to the different respective carriers, wherein the window comprises a pre-processing period (T PRE) for configuring_hardware to receive the paging, a reception period (T PG) for receiving the paging, and a post-processing period (T POST) for processing the received paging, the establishing (S100') of the window comprises obtaining duration information regarding the pre-processing period (T PRE), the reception period (T PG), and the post-processing period (T POST), obtaining timing information of the window and defining the window, based on the duration information and the timing information of the window, the pre-processing period (T PRE) depending on characteristics of a transceiver.
A battery pack having a cooling system, comprising: a plurality of battery units linked in series or in parallel and arranged in a plane for providing power; a plurality of thermal conducting bars each has a number of side walls and two ends, averagely located among the battery units and substantially contacted to the battery units by the side walls. for conducting heat out of the battery units to the two ends; and a housing for containing the battery units and thermal conducting bars and conducting heat from the ends of the thermal conducting bars to outside of the housing; wherein at least one end of the thermal conducting bar is connected to the housing and becomes an internal supporting structure of the housing; characterized in that the thermal conducting bar is fixed to the housing by screws screwed into a screw hole of the thermal conducting bar and heat of the thermal conducting bar can be conducted to outside of the housing via the screws; and wherein the thermal conducting bar is made of a thermal conductive material, metal or alloy. a plurality of battery units linked in series or in parallel and arranged in a plane for providing power; a plurality of thermal conducting bars each has a number of side walls and two ends, averagely located among the battery units and substantially contacted to the battery units by the side walls. for conducting heat out of the battery units to the two ends; and a housing for containing the battery units and thermal conducting bars and conducting heat from the ends of the thermal conducting bars to outside of the housing; wherein at least one end of the thermal conducting bar is connected to the housing and becomes an internal supporting structure of the housing; characterized in that the thermal conducting bar is fixed to the housing by screws screwed into a screw hole of the thermal conducting bar and heat of the thermal conducting bar can be conducted to outside of the housing via the screws; and wherein the thermal conducting bar is made of a thermal conductive material, metal or alloy.
A stent graft delivery system, comprising: a) a stent graft that includes i) a luminal graft component having an outside surface, an inside surface, a proximal open end, a distal open end, and defining a lumen, and ii) a plurality of stents extending longitudinally along the luminal graft component; b) a control rod extending longitudinally along the luminal graft component, wherein the control rod includes a wire and an internal luminal rod that defines an internal fenestration, whereby the wire can extend through the internal luminal rod; and c) at least one ligature traversing at least one of the stents and controllably and releasably fixed to the control rod, wherein the ligature extends between the luminal rod and the wire and across the internal fenestration, and wherein the ligature is controlled by axial rotation of the control rod, whereby the ligature wraps around the control rod to thereby control constriction of the traversed stent, whereby control of the ligature at the control rod radially constricts the traversed stent. a) a stent graft that includes i) a luminal graft component having an outside surface, an inside surface, a proximal open end, a distal open end, and defining a lumen, and ii) a plurality of stents extending longitudinally along the luminal graft component; i) a luminal graft component having an outside surface, an inside surface, a proximal open end, a distal open end, and defining a lumen, and ii) a plurality of stents extending longitudinally along the luminal graft component; b) a control rod extending longitudinally along the luminal graft component, wherein the control rod includes a wire and an internal luminal rod that defines an internal fenestration, whereby the wire can extend through the internal luminal rod; and c) at least one ligature traversing at least one of the stents and controllably and releasably fixed to the control rod, wherein the ligature extends between the luminal rod and the wire and across the internal fenestration, and wherein the ligature is controlled by axial rotation of the control rod, whereby the ligature wraps around the control rod to thereby control constriction of the traversed stent, whereby control of the ligature at the control rod radially constricts the traversed stent.
A resin film comprising a crystallizable polymer, the crystallizable polymer having a melting point Mp that can be observed by a differential scanning calorimeter at a temperature rise rate of 10 °C/min, the crystallizable polymer being an alicyclic structure-containing polymer, an in-plane retardation Re of the resin film measured at a wavelength of 590 nm being less than 5 nm, a thickness-direction retardation Rth of the resin film measured at a wavelength of 590 nm being less than 25 nm, a haze HZ of the resin film being less than 3.0%, wherein the haze HZ is measured using a haze meter for a sample of the resin film obtained by cutting the resin film around the central part of the resin film into a square piece of 50 mm x 50 mm, characterized in that the melting point Mp of the crystallizable polymer is 200 °C or higher, and an in-plane retardation fluctuation ΔRe of the resin film determined by the following formula is 0.5 nm or less: Δ Re = Re max − Re min wherein Re(max) and Re(min) are maximum and minimum of in-plane retardation values measured at a plurality of points about 50 cm away from the central part of the resin film toward both the edges in the width direction of the resin film, or at a plurality of points each of which is about 50 cm away from the central part of the resin film in one arbitrary direction when the resin film is a film whose width direction cannot be defined. the crystallizable polymer having a melting point Mp that can be observed by a differential scanning calorimeter at a temperature rise rate of 10 °C/min, the crystallizable polymer being an alicyclic structure-containing polymer, an in-plane retardation Re of the resin film measured at a wavelength of 590 nm being less than 5 nm, a thickness-direction retardation Rth of the resin film measured at a wavelength of 590 nm being less than 25 nm, a haze HZ of the resin film being less than 3.0%, wherein the haze HZ is measured using a haze meter for a sample of the resin film obtained by cutting the resin film around the central part of the resin film into a square piece of 50 mm x 50 mm, characterized in that the melting point Mp of the crystallizable polymer is 200 °C or higher, and an in-plane retardation fluctuation ΔRe of the resin film determined by the following formula is 0.5 nm or less: Δ Re = Re max − Re min wherein Re(max) and Re(min) are maximum and minimum of in-plane retardation values measured at a plurality of points about 50 cm away from the central part of the resin film toward both the edges in the width direction of the resin film, or at a plurality of points each of which is about 50 cm away from the central part of the resin film in one arbitrary direction when the resin film is a film whose width direction cannot be defined.
A topical wash composition characterized in that it comprises: a. Between 1% w/w and 3.5% of benzoyl peroxide expressed by weight of active ingredient relative to the total weight of the composition, b. Between 0.5% w/w and 5% w/w expressed by weight of active material relative to the total weight of the composition of at least one anionic and at least one non-ionic surfactants selected from Zinc coceth sulfate, sodium cocoyl isethionate, sodium lauroyl methyl isethionate, C14-C16 α-olefinsulfonates and decyl glucoside, c. Between 0.1 w/w and 1%w/w of Zinc gluconate, d. Between 0.1 w/w and 1%w/w of Dipotassium glycyrrhizate, e. Between 0.15 w/w and 7%w/w of at least one gelling agent, chosen from the polyacrylamide family, acrylates/C 10-30 alkyl acrylate crosspolymer and acrylates/C 10-30 alkyl crosspolymer, polysaccharides, cellulose derivatives, bentonite, magnesium aluminium silicates and neutralized polymeric sulfonic acid alone or as a mixture. a. Between 1% w/w and 3.5% of benzoyl peroxide expressed by weight of active ingredient relative to the total weight of the composition, b. Between 0.5% w/w and 5% w/w expressed by weight of active material relative to the total weight of the composition of at least one anionic and at least one non-ionic surfactants selected from Zinc coceth sulfate, sodium cocoyl isethionate, sodium lauroyl methyl isethionate, C14-C16 α-olefinsulfonates and decyl glucoside, c. Between 0.1 w/w and 1%w/w of Zinc gluconate, d. Between 0.1 w/w and 1%w/w of Dipotassium glycyrrhizate, e. Between 0.15 w/w and 7%w/w of at least one gelling agent, chosen from the polyacrylamide family, acrylates/C 10-30 alkyl acrylate crosspolymer and acrylates/C 10-30 alkyl crosspolymer, polysaccharides, cellulose derivatives, bentonite, magnesium aluminium silicates and neutralized polymeric sulfonic acid alone or as a mixture.
Method for operating a surface treatment installation, in which overspray arising in a coating booth is taken up by an air stream and carried to one or more disposable filter modules in which overspray is deposited, wherein, once a limit loading with overspray is reached, a disposable filter module is exchanged for an empty disposable filter module, characterised in that the one or more disposable filter modules is/are selected from a set of different disposable filter modules (64.X) depending on the nature and characteristics of the overspray, wherein a set of different disposable filter modules (64.X) is used which a) comprises various filter modules (64.X), which are formed as exchangeable disposable units with a module housing and a filter unit and through which booth air laden with overspray can be conducted; and in which b) the module housings of the various filter modules (64.X) have same-connection module inlets (70, 90); c) the module housings of the various filter modules (64.X) have same-connection module outlets (72, 88); d) at least the filter units of two different filter modules (64.X) are formed differently. characterised in that the one or more disposable filter modules is/are selected from a set of different disposable filter modules (64.X) depending on the nature and characteristics of the overspray, wherein a set of different disposable filter modules (64.X) is used which a) comprises various filter modules (64.X), which are formed as exchangeable disposable units with a module housing and a filter unit and through which booth air laden with overspray can be conducted; and in which b) the module housings of the various filter modules (64.X) have same-connection module inlets (70, 90); c) the module housings of the various filter modules (64.X) have same-connection module outlets (72, 88); d) at least the filter units of two different filter modules (64.X) are formed differently. a) comprises various filter modules (64.X), which are formed as exchangeable disposable units with a module housing and a filter unit and through which booth air laden with overspray can be conducted; and in which b) the module housings of the various filter modules (64.X) have same-connection module inlets (70, 90); c) the module housings of the various filter modules (64.X) have same-connection module outlets (72, 88); d) at least the filter units of two different filter modules (64.X) are formed differently.
A separation welding device for the sectional joining and sectional separation of weldable film layers (2, 3), with a temperature-controlled working surface that is designed to support joinable and separable film layers (2, 3) and comprises an electrical heating device (11, 12, 13), as well as a counterholder for sectionally applying pressure to the joinable and separable film layers (2, 3), which delimits a variably adjustable working gap (32, 33,34) with the working surface and which comprises two mutually spaced joining stamps (29, 30) and one separating stamp arranged between the joining stamps (29, 30), wherein the separating stamp an at least one joining stamp (29, 30) are moveably attached to the counterholder, wherein the separating stamp and/or the joining stamp (29, 30) are each assigned a force sensor and/or a motion sensor, in particular a range sensor, to calculate a separation sequence determined by the separating stamp and/or a joining sequence determined by the joining stamp (29, 30), characterized in that the separating stamp and the at least one joining stamp (29, 30) are elastically linearly movably coupled to the counterholder.