mhurhangee/ep-ind-claims huggingface dataset:
A communication method, comprising: obtaining, by an Internet of things platform (1400,1500), historical load of a serving cell of a terminal (1600,1700); determining, by the Internet of things platform (1400,1500), a data reporting time of the terminal based on the historical load of the serving cell; and sending, by the Internet of things platform (1400,1500) to the terminal (1600,1700), the data reporting time; wherein the determining, by the Internet of things platform (1400,1500), a data reporting time of the terminal (1600,1700) based on the historical load of the serving cell comprises: determining, by the Internet of things platform (1400,1500), predicted load of the serving cell in a preset time period from a current time based on the historical load of the serving cell; and determining, by the Internet of things platform (1400,1500), the data reporting time of the terminal (1600,1700) based on the predicted load. obtaining, by an Internet of things platform (1400,1500), historical load of a serving cell of a terminal (1600,1700); determining, by the Internet of things platform (1400,1500), a data reporting time of the terminal based on the historical load of the serving cell; and sending, by the Internet of things platform (1400,1500) to the terminal (1600,1700), the data reporting time; wherein the determining, by the Internet of things platform (1400,1500), a data reporting time of the terminal (1600,1700) based on the historical load of the serving cell comprises: determining, by the Internet of things platform (1400,1500), predicted load of the serving cell in a preset time period from a current time based on the historical load of the serving cell; and determining, by the Internet of things platform (1400,1500), the data reporting time of the terminal (1600,1700) based on the predicted load. determining, by the Internet of things platform (1400,1500), predicted load of the serving cell in a preset time period from a current time based on the historical load of the serving cell; and determining, by the Internet of things platform (1400,1500), the data reporting time of the terminal (1600,1700) based on the predicted load.
A method for purifying stevioside comprising the steps of: combining crude stevioside and an aqueous alcohol solvent to form a stevioside solution, the aqueous alcohol solvent comprising water in an amount from 15% to 25% by weight; and crystallizing from the stevioside solution in a single step a substantially pure polymorphic or amorphous form of stevioside composition comprising stevioside in a purity greater than 95% by weight on a dry basis, wherein the crude stevioside comprises stevioside in a purity from 60% to 85% by weight. combining crude stevioside and an aqueous alcohol solvent to form a stevioside solution, the aqueous alcohol solvent comprising water in an amount from 15% to 25% by weight; and crystallizing from the stevioside solution in a single step a substantially pure polymorphic or amorphous form of stevioside composition comprising stevioside in a purity greater than 95% by weight on a dry basis,
A method of fabricating an inertial sensor module, the method comprising: fabricating a first CMOS chip with first bonding structures and first chip-to-chip electrical contacts and at least one first ASIC block (3a, 3b); fabricating a second CMOS chip with second bonding structures and second chip-to-chip electrical contacts and at least one second ASIC block (3c, 3d); forming a first moving-gate transducer in the first CMOS chip, the first moving-gate transducer being configured to implement a first 3-axis inertial sensor; forming a second moving-gate transducer in the second CMOS chip, the second moving-gate transducer being configured to implement a second 3-axis inertial sensor; wherein a device ASIC for evaluating an output produced by the first and the second 3-axis inertial sensors is distributed between the at least one first ASIC block (3a, 3b) of the first CMOS chip and the at least one second ASIC (3c, 3d) block of the second CMOS chip; bonding the first CMOS chip and the second CMOS chip together via the first and second bonding structures (6a, 6b) to form a package; wherein the at least one first ASIC block (3a, 3b) of the first CMOS chip and the at least one second ASIC block (3c, 3d) of the second CMOS chip are electrically connected via the first and second chip-to-chip electrical contacts (7a, 7b) of the first and second CMOS chip (A, B). fabricating a first CMOS chip with first bonding structures and first chip-to-chip electrical contacts and at least one first ASIC block (3a, 3b); fabricating a second CMOS chip with second bonding structures and second chip-to-chip electrical contacts and at least one second ASIC block (3c, 3d); forming a first moving-gate transducer in the first CMOS chip, the first moving-gate transducer being configured to implement a first 3-axis inertial sensor; forming a second moving-gate transducer in the second CMOS chip, the second moving-gate transducer being configured to implement a second 3-axis inertial sensor; wherein a device ASIC for evaluating an output produced by the first and the second 3-axis inertial sensors is distributed between the at least one first ASIC block (3a, 3b) of the first CMOS chip and the at least one second ASIC (3c, 3d) block of the second CMOS chip; bonding the first CMOS chip and the second CMOS chip together via the first and second bonding structures (6a, 6b) to form a package; wherein the at least one first ASIC block (3a, 3b) of the first CMOS chip and the at least one second ASIC block (3c, 3d) of the second CMOS chip are electrically connected via the first and second chip-to-chip electrical contacts (7a, 7b) of the first and second CMOS chip (A, B).
A method, comprising: transmitting, by a computing device, one or more data messages from a transmit queue of the computing device externally over a network, the one or more data messages associated with a request and invoking a response message; transmitting, by the computing device, a timeout message internally from the transmit queue of the computing device, the timeout message corresponding to the one or more data messages, and said transmitting being intentionally delayed for a predetermined duration of time; receiving, by the computing device, at least one of the response message and the timeout message in a receive queue of the computing device, the timeout message being received internally from the transmit queue of the computing device; determining, by the computing device, which of the at least one response message or the timeout message is received first; and upon determining by the computing device that the timeout message is received first, identifying, by the computing device, the request as having timed out. transmitting, by a computing device, one or more data messages from a transmit queue of the computing device externally over a network, the one or more data messages associated with a request and invoking a response message; transmitting, by the computing device, a timeout message internally from the transmit queue of the computing device, the timeout message corresponding to the one or more data messages, and said transmitting being intentionally delayed for a predetermined duration of time; receiving, by the computing device, at least one of the response message and the timeout message in a receive queue of the computing device, the timeout message being received internally from the transmit queue of the computing device; determining, by the computing device, which of the at least one response message or the timeout message is received first; and upon determining by the computing device that the timeout message is received first, identifying, by the computing device, the request as having timed out.
Method for producing fluorine-containing nano composite particles, the method comprising subjecting a fluorine-containing alcohol represented by the general formula: R F -A-OH wherein R F is a perfluoroalkyl group or a polyfluoroalkyl group in which some of the fluorine atoms of the perfluoroalkyl group are replaced by hydrogen atoms, and A is an alkylene group having 1 to 6 carbon atoms; and a tetraalkoxysilane to a condensation reaction in the presence of an aqueous ammonia catalyst.
Public sanitary device, comprising a housing with one or more walk-in positions (20, 30), each with a receptacle (21, 31) for human excrement and/or urine, wherein the housing is provided with a first housing part intended for placing underground, a second housing part received movably in the first housing part and a third housing part received movably in the second housing part, wherein the sanitary device comprises a drive for moving the second and third housing parts between an underground rest position and an above-ground position of use, characterized in that at least one of the walk-in positions is provided with a door for closing the walk-in position and that the door comprises at least a first and a second door segment (41, 42), which door segments are movable in longitudinal direction relative to each other, wherein the second door segment is received slidably in the first door segment, wherein the second housing part comprises the first door segment and wherein the third housing part comprises the second door segment.
A pliers having two pliers limbs (2, 3), which are connected so as to be pivotable relative to one another in a box joint having a joint pin, a working region (7, 8) being formed on one pliers limb (2, 3) on the one side of the joint and a gripping region (9, 10) being formed on the other side of the joint, and a passed-through pliers limb being formed with a push-through slot which has a slot width (s) in the joint region and through which the other through-passing pliers limb extends, the working regions of the pliers limbs (2, 3) moreover having, at least in part, a width (b) that is greater than the slot width (s), the working regions (7, 8) provided in the form of jaws or cutting edges pivoting towards a shared central plane situated in the middle of the pivot region of the jaws or cutting edges, and the joint pin being offset with respect to the central plane by an offset dimension that corresponds to one-half the radius up to twice the diameter of the joint pin, characterized in that the receiving region for the joint pin is offset to one side with respect to an extent of the push-through slot.
A plurality of spray droplets of a detersive composition, wherein the detersive composition comprises: a) less than 5.0 wt% of a surfactant system; and b) xanthan gum as a thickener; and the spray droplets have a particle size distribution such that the Dv10 is at least 50 microns and the ratio of Dv90 to Dv10 is less than 6.4, as measured using a Malvern Spraytec 97 RT Sizer as specified herein. wherein the detersive composition comprises: a) less than 5.0 wt% of a surfactant system; and b) xanthan gum as a thickener; and a) less than 5.0 wt% of a surfactant system; and b) xanthan gum as a thickener; and the spray droplets have a particle size distribution such that the Dv10 is at least 50 microns and the ratio of Dv90 to Dv10 is less than 6.4, as measured using a Malvern Spraytec 97 RT Sizer as specified herein.
A content rendering and display system operable to display content to a viewer, the system comprising: a rendering unit operable to render an image having a first resolution in a first render pass, and to generate supplementary information in additional render passes, wherein the rendered image and the supplementary information are stored in a multi-layer image structure; an upsampling unit operable to perform an upsampling process on the rendered image so as to generate an image having a portion at a second resolution higher than the first resolution, wherein the upsampling process comprises a morphological antialiasing process that uses the supplementary information as an input; and a display device operable to display the upsampled image, wherein the supplementary information comprises edge information for the rendered image. a rendering unit operable to render an image having a first resolution in a first render pass, and to generate supplementary information in additional render passes, wherein the rendered image and the supplementary information are stored in a multi-layer image structure; an upsampling unit operable to perform an upsampling process on the rendered image so as to generate an image having a portion at a second resolution higher than the first resolution, wherein the upsampling process comprises a morphological antialiasing process that uses the supplementary information as an input; and a display device operable to display the upsampled image, wherein the supplementary information comprises edge information for the rendered image.
Lock device, having - a first connecting module and a second connecting module, wherein the first connecting module can be arranged in a closing direction on the second connecting module and is in a closing position mechanically catch-lockingly engaged with the second connecting module, wherein for this on the one of first connecting module and second connecting module at least one spring lock element (5, 5a, 5b, 5c) and on the other of first connecting module and second connecting module at least one blocking piece (6, 6a, 6b) to form a spring catch locking is arranged, wherein the first connecting module can be detached from the second connecting module by a movement of the first connecting module or of a part of the first connecting module in an opening direction, which differs from the closing direction, and - magnetic means (3, 4) which, to support the transferring of the first connecting module into the closing position, cause a magnetic attracting force between the first connecting module and the second connecting module, characterized by an unlockable locking device (7; 9, 9a-f; 100, 101, 102; 206, 207) to prevent a movement of the first connecting module or of the part of the first connecting module in the opening direction, when the first connecting module and the second connecting module are positioned in the closing position. - a first connecting module and a second connecting module, wherein the first connecting module can be arranged in a closing direction on the second connecting module and is in a closing position mechanically catch-lockingly engaged with the second connecting module, wherein for this on the one of first connecting module and second connecting module at least one spring lock element (5, 5a, 5b, 5c) and on the other of first connecting module and second connecting module at least one blocking piece (6, 6a, 6b) to form a spring catch locking is arranged, wherein the first connecting module can be detached from the second connecting module by a movement of the first connecting module or of a part of the first connecting module in an opening direction, which differs from the closing direction, and - magnetic means (3, 4) which, to support the transferring of the first connecting module into the closing position, cause a magnetic attracting force between the first connecting module and the second connecting module,
A moving picture decoding method for decoding a current block included in a bitstream, using a motion vector predictor used when decoding a motion vector of the current block, the method comprising: (a) obtaining one or more motion vector predictor candidates which are candidates for the motion vector predictor based on motion vectors of plural first adjacent blocks adjacent to the current block on the left side and motion vectors of plural second adjacent blocks adjacent to the current block on the upper side; (b) decoding a coded index for identifying one of the one or more motion vector predictor candidates, the coded index being added to the bitstream; and (c) selecting, based on the decoded index, the motion vector predictor to be used for decoding the current block from among the one or more motion vector predictor candidates; characterized in that step (a) includes: (i) determining whether the plural first adjacent blocks include one or more inter-predicted blocks; (ii) searching for a motion vector to be scaled by scaling processing from among the plural motion vectors of the plural second adjacent blocks, if it is determined in step (i) that the plural first adjacent blocks do not include an inter-predicted block; and (iii) generating a motion vector predictor candidate by executing scaling processing on the motion vector obtained in step (ii), if a motion vector is obtained in step (ii). (a) obtaining one or more motion vector predictor candidates which are candidates for the motion vector predictor based on motion vectors of plural first adjacent blocks adjacent to the current block on the left side and motion vectors of plural second adjacent blocks adjacent to the current block on the upper side; (b) decoding a coded index for identifying one of the one or more motion vector predictor candidates, the coded index being added to the bitstream; and (c) selecting, based on the decoded index, the motion vector predictor to be used for decoding the current block from among the one or more motion vector predictor candidates; step (a) includes: (i) determining whether the plural first adjacent blocks include one or more inter-predicted blocks; (ii) searching for a motion vector to be scaled by scaling processing from among the plural motion vectors of the plural second adjacent blocks, if it is determined in step (i) that the plural first adjacent blocks do not include an inter-predicted block; and (iii) generating a motion vector predictor candidate by executing scaling processing on the motion vector obtained in step (ii), if a motion vector is obtained in step (ii). (i) determining whether the plural first adjacent blocks include one or more inter-predicted blocks; (ii) searching for a motion vector to be scaled by scaling processing from among the plural motion vectors of the plural second adjacent blocks, if it is determined in step (i) that the plural first adjacent blocks do not include an inter-predicted block; and (iii) generating a motion vector predictor candidate by executing scaling processing on the motion vector obtained in step (ii), if a motion vector is obtained in step (ii).
A holder device (1; 11; 21; 31) for being present at the surface (S') of a first part made of composite material in order to enable a second part to be held to the first part, the holder device (1; 11; 21; 31) being characterised in that it comprises: • a body (2; 2') made of composite material comprising a fiber structure and a matrix present in the pores of the fiber structure; and • a holder member (3; 30) comprising a base and holder tabs (5a; 5b; 35a; 35b) extending from either side of the base, the holder tabs (5a; 5b; 35a; 35b) being for defining a holding zone for holding the second part to the first part, the base of the holder device being present in the body (2; 2'), and the holder tabs (5a; 5b; 35a; 35b) projecting through a surface of the body (2; 2'). • a body (2; 2') made of composite material comprising a fiber structure and a matrix present in the pores of the fiber structure; and • a holder member (3; 30) comprising a base and holder tabs (5a; 5b; 35a; 35b) extending from either side of the base, the holder tabs (5a; 5b; 35a; 35b) being for defining a holding zone for holding the second part to the first part, the base of the holder device being present in the body (2; 2'), and the holder tabs (5a; 5b; 35a; 35b) projecting through a surface of the body (2; 2').
A hinge assembly (300;400) for an orthopedic brace, comprising: an outer plate (302;402) that fits over a lateral side of a hinge; the outer plate comprising an inner surface (312;412), an outer surface (310;410), and a connection port, wherein the connection port is spaced beneath the outer surface, is formed on the inner surface and protrudes from the inner surface; first and second connecting members (308;311;408;411) that engage the connection port, wherein the connection port includes a first and second connector housing (314;315;414;415); and first and second hinge arms pivotably secured to the outer plate by the connecting members; characterised in that the outer surface of the outer plate completely covers the first and second connecting members to protect mechanical components of the hinge positioned below the outer surface; wherein (i) the connection port further includes a channel for guiding the first and second connecting members to an opening of the first and second connector housings, the first and second connector housings being spaced apart by the channel; or (ii) the connection port further includes first and second channels (440a;440b) for guiding the first and second connecting members to an opening of the first and second connector housings respectively, the first and second channels extending a distance from a distal edge of the outer plate to a distal edge of the first and second connector housings respectively. an outer plate (302;402) that fits over a lateral side of a hinge; the outer plate comprising an inner surface (312;412), an outer surface (310;410), and a connection port, wherein the connection port is spaced beneath the outer surface, is formed on the inner surface and protrudes from the inner surface; first and second connecting members (308;311;408;411) that engage the connection port, wherein the connection port includes a first and second connector housing (314;315;414;415); and first and second hinge arms pivotably secured to the outer plate by the connecting members; characterised in that the outer surface of the outer plate completely covers the first and second connecting members to protect mechanical components of the hinge positioned below the outer surface; (i) the connection port further includes a channel for guiding the first and second connecting members to an opening of the first and second connector housings, the first and second connector housings being spaced apart by the channel; or (ii) the connection port further includes first and second channels (440a;440b) for guiding the first and second connecting members to an opening of the first and second connector housings respectively, the first and second channels extending a distance from a distal edge of the outer plate to a distal edge of the first and second connector housings respectively.