mhurhangee/ep-ind-claims huggingface dataset:
A cell handover method, performed by a cell handover appartus of a User Equipment, comprising: receiving conditional handover command information from a base station, wherein the conditional handover command information comprises a handover trigger condition; characterized in that the method further comprises: determining priority levels of a plurality of candidate target cells that satisfy a handover trigger condition based on remaining durations of timer information in the conditional handover command information, wherein the timer information indicates a validity period to the handover trigger condition of each candidate target cell, and the longer the remaining duration, the higher the priority level of the candidate target cell; selecting (S 102) a target cell from the plurality of candidate target cells that satisfy the handover trigger condition based on priority information, wherein the priority information comprises the priority levels of the plurality of candidate target cells; and performing a cell handover operation from a current serving cell to the target cell. receiving conditional handover command information from a base station, wherein the conditional handover command information comprises a handover trigger condition; characterized in that the method further comprises: determining priority levels of a plurality of candidate target cells that satisfy a handover trigger condition based on remaining durations of timer information in the conditional handover command information, wherein the timer information indicates a validity period to the handover trigger condition of each candidate target cell, and the longer the remaining duration, the higher the priority level of the candidate target cell; selecting (S 102) a target cell from the plurality of candidate target cells that satisfy the handover trigger condition based on priority information, wherein the priority information comprises the priority levels of the plurality of candidate target cells; and performing a cell handover operation from a current serving cell to the target cell. determining priority levels of a plurality of candidate target cells that satisfy a handover trigger condition based on remaining durations of timer information in the conditional handover command information, wherein the timer information indicates a validity period to the handover trigger condition of each candidate target cell, and the longer the remaining duration, the higher the priority level of the candidate target cell; selecting (S 102) a target cell from the plurality of candidate target cells that satisfy the handover trigger condition based on priority information, wherein the priority information comprises the priority levels of the plurality of candidate target cells; and performing a cell handover operation from a current serving cell to the target cell.
A compressor, comprising: a casing; a fixed scroll fixed in the casing, the fixed scroll having a fixed wrap having a thickness that varies along a compression path; an orbiting scroll having an orbiting wrap engaged with the fixed wrap and so as to define at least one compression chamber together with the fixed wrap, the orbiting wrap having a thickness that varies along the compression path; a shaft having an eccentric portion that is coupled to the orbiting scroll such that the eccentric portion overlaps the orbiting wrap in a lateral_direction of the orbiting scroll; a driver that rotates the shaft; and a discharge hole and at least one bypass hole characterised in that the discharge hole and at least one bypass hole are each formed in the orbiting scroll or in the fixed scroll, in communication with a discharging space of the scroll compressor. a casing; a fixed scroll fixed in the casing, the fixed scroll having a fixed wrap having a thickness that varies along a compression path; an orbiting scroll having an orbiting wrap engaged with the fixed wrap and so as to define at least one compression chamber together with the fixed wrap, the orbiting wrap having a thickness that varies along the compression path; a shaft having an eccentric portion that is coupled to the orbiting scroll such that the eccentric portion overlaps the orbiting wrap in a lateral_direction of the orbiting scroll; a driver that rotates the shaft; and a discharge hole and at least one bypass hole characterised in that the discharge hole and at least one bypass hole are each formed in the orbiting scroll or in the fixed scroll, in communication with a discharging space of the scroll compressor.
A height adjustable workstation, comprising a base, a lower desk, an upper desk, and a lifting mechanism for raising and lowering the lower and upper desks relative to the base, the lower desk for supporting a keyboard and the upper desk for supporting a computer monitor, wherein: the upper desk comprises a movable desk portion and a fixed desk portion, the movable desk portion being pivotally connected to the fixed desk portion, the movable desk portion is movable from a first position to a second position by pivoting a rear edge of the movable desk surface upwardly relative to the fixed desk surface, thereby upwardly slanting the movable desk surface relative to the fixed desk surface to aid reading of any documents placed on the movable desk surface, a gap between the fixed desk surface and a side edge (9RS, 9LS) of the movable desk surface when the movable desk portion is in the second position, is filled by a skirt (10, 12) of the height adjustable workstation, to prevent human fingers from entering the gap; characterised in that the upper desk provides a substantially planar upper desk surface that comprises a fixed desk surface of the fixed desk portion and a movable desk surface of the movable desk portion, when the moveable desk portion is in the first position. the upper desk comprises a movable desk portion and a fixed desk portion, the movable desk portion being pivotally connected to the fixed desk portion, the movable desk portion is movable from a first position to a second position by pivoting a rear edge of the movable desk surface upwardly relative to the fixed desk surface, thereby upwardly slanting the movable desk surface relative to the fixed desk surface to aid reading of any documents placed on the movable desk surface, a gap between the fixed desk surface and a side edge (9RS, 9LS) of the movable desk surface when the movable desk portion is in the second position, is filled by a skirt (10, 12) of the height adjustable workstation, to prevent human fingers from entering the gap; characterised in that the upper desk provides a substantially planar upper desk surface that comprises a fixed desk surface of the fixed desk portion and a movable desk surface of the movable desk portion, when the moveable desk portion is in the first position.
A pneumatic tire comprising a tread portion, a pair of bead portions and a pair of sidewall portions extending therebetween, the tread portion having an inboard tire tread edge and an outboard tire tread edge intended to be positioned towards the center of a vehicle body and away from the center of the vehicle body, respectively, and the tread portion divided by circumferentially continuously extending main grooves (3A, 3B) into a center land portion, a pair of middle land portions and a pair of shoulder land portions, wherein in a meridian section of the normally-inflated unloaded ti re, a center profile (Pc) which is the profile of a tread of the center land portion and a middle profile (Pm) which is the profile of a tread of each of the middle land portions protrude convexly, radially outwardly from a virtual tread profile (Pt), wherein the virtual tread profile is defined as smoothly passing through both axial ends (4a, 4b) of the tread of the center land portion and both axial ends (5a, 5b, 5d, 5e) of the tread of each of the middle land portions (5A, 5B), characterized in that a peak of the center profile (Pc) which is the most protruding point farthest from the virtual tread profile (Pt) is positioned on the outboard tire tread edge side of the axial center of the center land portion, and a peak of the middle profile (Pm) which is the most protruding point farthest from the virtual tread profile (Pt) is positioned on the outboard tire tread edge side of the axial center of the middle land portion concerned.
Ski pistes preparation crawled vehicle; the crawled vehicle comprising: - a frame; - two wheels assemblies displaced at opposite side with respect to the frame; - two crawls, each of them wounded respectively around to one of the two wheels assemblies; - at least one supporting device (15; 115), for each wheels assemblies, coupled to at least two wheels of the wheels assembly and connected in an articulated jointed manner to the frame for coupling the at least two wheels of the wheels assembly to the frame; wherein the supporting device (15; 115) has a first supporting element (16; 116), which supports one of the at least two wheels of the wheels assembly; and a second supporting element (17; 117), which supports another of the two wheels of the wheels assembly; and wherein the first supporting element (16; 116) and the second supporting element (17; 117) are connected between them in an elastically flexible manner or through a first articulated joint in a first point; preferably first articulated joint is a hinge; - wherein the wheels assembly comprises a driving wheel, that is a rear wheel; - wherein the wheels assembly comprises a regulating crawl wheel, that is a front wheel, having a mobile position with respect to the frame to stretch the crawl; - wherein the at least two wheels are middle wheels between the regulating crawl wheel and the driving wheel and preferably are free rotating wheels. - a frame; - two wheels assemblies displaced at opposite side with respect to the frame; - two crawls, each of them wounded respectively around to one of the two wheels assemblies; - at least one supporting device (15; 115), for each wheels assemblies, coupled to at least two wheels of the wheels assembly and connected in an articulated jointed manner to the frame for coupling the at least two wheels of the wheels assembly to the frame; wherein the supporting device (15; 115) has a first supporting element (16; 116), which supports one of the at least two wheels of the wheels assembly; and a second supporting element (17; 117), which supports another of the two wheels of the wheels assembly; and wherein the first supporting element (16; 116) and the second supporting element (17; 117) are connected between them in an elastically flexible manner or through a first articulated joint in a first point; preferably first articulated joint is a hinge; - wherein the wheels assembly comprises a driving wheel, that is a rear wheel; - wherein the wheels assembly comprises a regulating crawl wheel, that is a front wheel, having a mobile position with respect to the frame to stretch the crawl; - wherein the at least two wheels are middle wheels between the regulating crawl wheel and the driving wheel and preferably are free rotating wheels.
An ocean thermal difference power generating system using liquid-vapor ejector and motive pump comprising: an evaporator for changing transferred refrigerant liquid into refrigerant vapor with high temperature and high pressure by the thermal exchange with surface seawater; a turbine for generating electric power by using the high pressure refrigerant vapor transferred from the evaporator; a liquid-vapor ejector for mixing the low pressure refrigerant vapor which passed the turbine and the high pressure refrigerant liquid which passed a motive pump, thereby proceeding expansion and compression; a condenser for condensing the refrigerants which was mixed in the liquid-vapor ejector by the thermal exchange with deep seawater; the ocean thermal difference power generating system being characterised in that it further comprises a refrigerant circulation pump for increasing the pressure of the refrigerants which was condensed in the condenser up to the evaporation pressure and for circulating; and a distributor for distributing the refrigerants which was compressed in the refrigerant circulation pump to the evaporator and the motive pump. an evaporator for changing transferred refrigerant liquid into refrigerant vapor with high temperature and high pressure by the thermal exchange with surface seawater; a turbine for generating electric power by using the high pressure refrigerant vapor transferred from the evaporator; a liquid-vapor ejector for mixing the low pressure refrigerant vapor which passed the turbine and the high pressure refrigerant liquid which passed a motive pump, thereby proceeding expansion and compression; a condenser for condensing the refrigerants which was mixed in the liquid-vapor ejector by the thermal exchange with deep seawater; the ocean thermal difference power generating system being characterised in that it further comprises a refrigerant circulation pump for increasing the pressure of the refrigerants which was condensed in the condenser up to the evaporation pressure and for circulating; and a distributor for distributing the refrigerants which was compressed in the refrigerant circulation pump to the evaporator and the motive pump.
A method for decoding an encoded audio signal, wherein the encoded audio signal comprises a sequence of frames comprising encoded audio data and metadata, the metadata including a plurality of different sets of dynamic range control, referred to as DRC, gains, wherein the encoded audio signal further comprises an indication of a loudness level of the audio signal, wherein the metadata indicates a plurality of DRC profiles for the encoded audio signal, wherein each DRC profile comprises definition data defining a range of output reference levels for which the DRC profile is applicable, and wherein each set of DRC gains corresponds to one of the plurality of DRC profiles, the method comprising setting a desired output reference level; the method being characterised by further comprising: selecting a specific DRC profile for which the applicable range of output reference levels includes the desired output reference level; extracting audio data and metadata from the encoded audio signal; extracting from the metadata, and applying, the DRC gains corresponding to the selected specific DRC profile to the extracted audio data to adjust the dynamic range of the extracted audio data thereby obtaining dynamic range adjusted audio data, wherein the DRC gains corresponding to the selected specific DRC profile are temporally equidistant; determining a loudness related gain based on the indication of the loudness level of the audio signal and the desired output reference level to cause a change from the loudness level of the audio data to the desired output reference level; applying the loudness related gain to the dynamic range adjusted audio data to obtain loudness adjusted audio data that has the desired output reference level; and generating output audio data elements from the loudness adjusted audio data. selecting a specific DRC profile for which the applicable range of output reference levels includes the desired output reference level; extracting audio data and metadata from the encoded audio signal; extracting from the metadata, and applying, the DRC gains corresponding to the selected specific DRC profile to the extracted audio data to adjust the dynamic range of the extracted audio data thereby obtaining dynamic range adjusted audio data, wherein the DRC gains corresponding to the selected specific DRC profile are temporally equidistant; determining a loudness related gain based on the indication of the loudness level of the audio signal and the desired output reference level to cause a change from the loudness level of the audio data to the desired output reference level; applying the loudness related gain to the dynamic range adjusted audio data to obtain loudness adjusted audio data that has the desired output reference level; and generating output audio data elements from the loudness adjusted audio data.
A tuned semiconductor amplifier, comprising: a semiconductor transistor; a first capacitive shunt element connected to a gate contact of the semiconductor transistor; and a second capacitive shunt element connected to the gate contact of the semiconductor transistor, wherein: a value of a first capacitor in the first capacitive shunt element is such that a peak of a resonance loop for an S 11 scattering-parameter curve determined at the first capacitive shunt element looking toward the semiconductor transistor and with the second capacitive shunt element disconnected is at a frequency that is within ±20% of twice a target frequency for the tuned semiconductor amplifier. a semiconductor transistor; a first capacitive shunt element connected to a gate contact of the semiconductor transistor; and a second capacitive shunt element connected to the gate contact of the semiconductor transistor, wherein: a value of a first capacitor in the first capacitive shunt element is such that a peak of a resonance loop for an S 11 scattering-parameter curve determined at the first capacitive shunt element looking toward the semiconductor transistor and with the second capacitive shunt element disconnected is at a frequency that is within ±20% of twice a target frequency for the tuned semiconductor amplifier.
A decorative sheet comprising: a transparent resin layer containing a crystalline polypropylene resin as a main component, wherein a value of a peak intensity ratio x represented by a following expression of the transparent resin layer is 0.55 ≤ x ≤ 0.65, 1997, 1938, and 1973 in the following expression are peak intensity values calculated from an absorption spectrum obtained by Fourier infrared spectrometry of the transparent resin layer, 1997 represents a peak intensity value at a wavenumber of 997 cm -1, 1938 represents a peak intensity value at a wavenumber of 938 cm -1, and 1973 represents a peak intensity value at a wavenumber of 973 cm -1, [Expression 1] Peak intensity ratio x = 1997 − 1938 1973 − 1938 wherein the transparent resin layer contains a nano-sized nucleating agent in a state where the nucleating agent is encapsulated in a vesicle having a monolayer outer membrane, and wherein the transparent resin layer has a thickness of 20μm or more and 200μm or less. a transparent resin layer containing a crystalline polypropylene resin as a main component, wherein a value of a peak intensity ratio x represented by a following expression of the transparent resin layer is 0.55 ≤ x ≤ 0.65, 1997, 1938, and 1973 in the following expression are peak intensity values calculated from an absorption spectrum obtained by Fourier infrared spectrometry of the transparent resin layer, 1997 represents a peak intensity value at a wavenumber of 997 cm -1, 1938 represents a peak intensity value at a wavenumber of 938 cm -1, and 1973 represents a peak intensity value at a wavenumber of 973 cm -1, [Expression 1] Peak intensity ratio x = 1997 − 1938 1973 − 1938 wherein the transparent resin layer contains a nano-sized nucleating agent in a state where the nucleating agent is encapsulated in a vesicle having a monolayer outer membrane, and wherein the transparent resin layer has a thickness of 20μm or more and 200μm or less. wherein the transparent resin layer contains a nano-sized nucleating agent in a state where the nucleating agent is encapsulated in a vesicle having a monolayer outer membrane, and wherein the transparent resin layer has a thickness of 20μm or more and 200μm or less.
Switch for or in a switching device comprising - a diverter contact; - a primary fixed contact; - a secondary fixed contact; - a primary moved contact which can adopt a first end position in which it bears by a first contact point against the diverter contact and by a second contact point against the primary fixed contact and a second end position in which it is separated from these contacts (13, 14); - a secondary moved contact which can adopt a first end position in which it bears by a third contact point against the diverter contact and by a fourth contact point against the secondary fixed contact and a second end position in which it is separated from these contacts (13, 15); - a first counterpoint at which the first contact point bears against the diverter contact is arranged at a spacing from a second counterpoint at which the third contact point bears against the diverter contact; wherein - a pivot axis is arranged symmetrically between these counterpoints; and wherein - the primary moved contact is pivotable relative to the diverter contact and the primary fixed contact about the pivot axis; - the secondary moved contact is pivotable relative to the diverter contact and the secondary fixed contact about the pivot axis; characterized in that - the diverter contact and the pivot axis are arranged symmetrically between the fixed contacts (14, 15). - a diverter contact; - a primary fixed contact; - a secondary fixed contact; - a primary moved contact which can adopt a first end position in which it bears by a first contact point against the diverter contact and by a second contact point against the primary fixed contact and a second end position in which it is separated from these contacts (13, 14); - a secondary moved contact which can adopt a first end position in which it bears by a third contact point against the diverter contact and by a fourth contact point against the secondary fixed contact and a second end position in which it is separated from these contacts (13, 15); - a first counterpoint at which the first contact point bears against the diverter contact is arranged at a spacing from a second counterpoint at which the third contact point bears against the diverter contact; - a pivot axis is arranged symmetrically between these counterpoints; and wherein - the primary moved contact is pivotable relative to the diverter contact and the primary fixed contact about the pivot axis; - the secondary moved contact is pivotable relative to the diverter contact and the secondary fixed contact about the pivot axis; - the diverter contact and the pivot axis are arranged symmetrically between the fixed contacts (14, 15).
A process that comprises forming a pressurized, molten mixture of a melt-processable branched polylactide resin containing 3 to 25% by weight of a blowing agent, based on the weight of the PLA resin, and extruding the molten mixture through a die to a region of reduced pressure such that the blowing agent expands and the PLA resin simultaneously cools to form a stable foam, wherein the PLA resin in the foam has an absolute weight average molecular weight (M w) of from 500,000 to 1,500,000 as determined by GPC methods as described in the description, and an intrinsic viscosity, measured according to standard ASTM D5225, of at least 1.40 deciliters/gram.