mhurhangee/ep-ind-claims huggingface dataset:
A positioning method, applied to a terminal and comprising receiving configuration information; and determining, in idle state or inactive state based on the configuration information, whether to enter connected state at a preset moment to complete a positioning procedure, wherein the determining, based on the configuration information, whether to enter connected state at the preset moment comprises: detecting whether a detection condition in the configuration information is met at the preset moment; and if the detection condition is met, skipping entering connected state; wherein the detection condition comprises one of: a change amount between a current location estimate of the terminal and a location estimate during the previous positioning being no more than a second preset threshold; and a change amount between a current location measurement amount of the terminal and a location measurement amount during the previous positioning being no more than a third preset threshold. determining, in idle state or inactive state based on the configuration information, whether to enter connected state at a preset moment to complete a positioning procedure, wherein the determining, based on the configuration information, whether to enter connected state at the preset moment comprises: detecting whether a detection condition in the configuration information is met at the preset moment; and if the detection condition is met, skipping entering connected state; wherein the detection condition comprises one of: a change amount between a current location estimate of the terminal and a location estimate during the previous positioning being no more than a second preset threshold; and a change amount between a current location measurement amount of the terminal and a location measurement amount during the previous positioning being no more than a third preset threshold. detecting whether a detection condition in the configuration information is met at the preset moment; and if the detection condition is met, skipping entering connected state; wherein the detection condition comprises one of: a change amount between a current location estimate of the terminal and a location estimate during the previous positioning being no more than a second preset threshold; and a change amount between a current location measurement amount of the terminal and a location measurement amount during the previous positioning being no more than a third preset threshold. a change amount between a current location estimate of the terminal and a location estimate during the previous positioning being no more than a second preset threshold; and a change amount between a current location measurement amount of the terminal and a location measurement amount during the previous positioning being no more than a third preset threshold.
An energy recovery unit, comprising: a flash vessel having a condensate inlet and a condensate outlet (34, 36); a fluid feed line defining a fluid path; and first and second heat exchangers (14, 16) located within the flash vessel; characterized in that: the fluid feed line passes through the flash vessel so that the fluid path passes through the first and the second heat exchangers (14, 16); the first heat exchanger is arranged to transfer heat from flash vapour formed from the condensate inlet to the flash vessel to fluid in the fluid feed line, thereby condensing the flash vapour to form condensate; and the second heat exchanger is arranged to transfer heat from the condensate formed from flash vapour to fluid in the fluid feed line. a flash vessel having a condensate inlet and a condensate outlet (34, 36); a fluid feed line defining a fluid path; and first and second heat exchangers (14, 16) located within the flash vessel; the fluid feed line passes through the flash vessel so that the fluid path passes through the first and the second heat exchangers (14, 16); the first heat exchanger is arranged to transfer heat from flash vapour formed from the condensate inlet to the flash vessel to fluid in the fluid feed line, thereby condensing the flash vapour to form condensate; and the second heat exchanger is arranged to transfer heat from the condensate formed from flash vapour to fluid in the fluid feed line.
A method comprising: receiving a rendering specification associated with multiple reference web documents and previewed reference web documents, wherein the rendering specification is for data associated with sensitive labels in the multiple reference web documents and wherein the data associated with the sensitive labels is determined sensitive based on at least one user-defined policy rules; receiving a first web document processed based on the rendering specification, wherein the first web document comprises at least one sensitive label and data associated with the at least one sensitive label; determining a status of the rendering specification upon processing the first web document; analyzing the first web document and the multiple previewed reference web documents when the status of the rendering specification is at least one of a sensitive label not found or data associated with a sensitive label not found, wherein the first web document and the multiple previewed reference web documents are analyzed to determine at least one of a set of candidates for a sensitive label and a set of candidates for data associated with a sensitive label in the first web document; updating the rendering specification upon determining at least one of the set of candidates for a sensitive label and the set of candidates for data associated with the sensitive label in the first web document; and enabling masking of the data associated with the at least one sensitive label in the first web document using the updated rendering specification. receiving a rendering specification associated with multiple reference web documents and previewed reference web documents, wherein the rendering specification is for data associated with sensitive labels in the multiple reference web documents and wherein the data associated with the sensitive labels is determined sensitive based on at least one user-defined policy rules; receiving a first web document processed based on the rendering specification, wherein the first web document comprises at least one sensitive label and data associated with the at least one sensitive label; determining a status of the rendering specification upon processing the first web document; analyzing the first web document and the multiple previewed reference web documents when the status of the rendering specification is at least one of a sensitive label not found or data associated with a sensitive label not found, wherein the first web document and the multiple previewed reference web documents are analyzed to determine at least one of a set of candidates for a sensitive label and a set of candidates for data associated with a sensitive label in the first web document; updating the rendering specification upon determining at least one of the set of candidates for a sensitive label and the set of candidates for data associated with the sensitive label in the first web document; and enabling masking of the data associated with the at least one sensitive label in the first web document using the updated rendering specification.
A method for decoding two-dimensional code using weighted average gray-scale algorithm, characterized by comprising: segmenting a received two-dimensional code image into bit regions each containing one bit data; presetting a shifting threshold, and shifting four original boundary lines (l 0; l 1; l 2; l 3) of the bit region outwards by a distance of the shifting threshold to obtain four preset boundary lines; calculating an average gray-scale value of the bit region using the weighted average algorithm by taking an overlapping area between pixels inside the four preset boundary lines and the bit region as a weight; binarizing the two-dimensional code image according to the average gray-scale value of the bit region; and decoding the binarized two-dimensional code image. segmenting a received two-dimensional code image into bit regions each containing one bit data; presetting a shifting threshold, and shifting four original boundary lines (l 0; l 1; l 2; l 3) of the bit region outwards by a distance of the shifting threshold to obtain four preset boundary lines; calculating an average gray-scale value of the bit region using the weighted average algorithm by taking an overlapping area between pixels inside the four preset boundary lines and the bit region as a weight; binarizing the two-dimensional code image according to the average gray-scale value of the bit region; and decoding the binarized two-dimensional code image.
A method of processing data in a tile based rendering system, wherein the method comprises a geometry processing phase and a rasterisation phase, wherein the geometry processing phase comprises the steps of: retrieving position data of static geometric primitives stored in a memory (210; 510); transforming the retrieved position data to screen space; and using the screen space position data to generate, for each of a plurality of tiles of the tile based rendering system, a list of pointers to static geometric primitives in the memory (210; 510) which when transformed are at least partially in the respective tile; and wherein the rasterisation phase comprises the steps of: for each of the tiles, retrieving pointers from the respective list; retrieving data of static geometric primitives from the memory (210; 510) corresponding to the retrieved pointers of each list; transforming the retrieved data of static geometric primitives to screen space; applying any required attribute processing; applying hidden surface removal; and rendering the screen space primitives to a buffer (280; 345; 450; 590) for display. retrieving position data of static geometric primitives stored in a memory (210; 510); transforming the retrieved position data to screen space; and using the screen space position data to generate, for each of a plurality of tiles of the tile based rendering system, a list of pointers to static geometric primitives in the memory (210; 510) which when transformed are at least partially in the respective tile; for each of the tiles, retrieving pointers from the respective list; retrieving data of static geometric primitives from the memory (210; 510) corresponding to the retrieved pointers of each list; transforming the retrieved data of static geometric primitives to screen space; applying any required attribute processing; applying hidden surface removal; and rendering the screen space primitives to a buffer (280; 345; 450; 590) for display.
A method to control a printing pressure on a solar cell substrate for producing a solar cell, comprising: performing at least a first printing operation on a first solar cell substrate with a printing apparatus that is disposed relative to a first print shuttle, which has a substrate supporting surface that is disposed at a first position, wherein the first printing operation is performed at a first printing pressure; and performing at least a second printing operation on a second solar cell substrate disposed on a substrate supporting surface of a second print shuttle using the printing apparatus, wherein the second printing operation is performed when the substrate supporting surface of the second print shuttle is disposed at a second position, and is performed at a second printing pressure, wherein if a deviation is detected between the second printing pressure and the first printing pressure, the position of the printing apparatus relative to the second position is changed to match the second printing pressure to the first printing pressure. performing at least a first printing operation on a first solar cell substrate with a printing apparatus that is disposed relative to a first print shuttle, which has a substrate supporting surface that is disposed at a first position, wherein the first printing operation is performed at a first printing pressure; and performing at least a second printing operation on a second solar cell substrate disposed on a substrate supporting surface of a second print shuttle using the printing apparatus, wherein the second printing operation is performed when the substrate supporting surface of the second print shuttle is disposed at a second position, and is performed at a second printing pressure, wherein if a deviation is detected between the second printing pressure and the first printing pressure, the position of the printing apparatus relative to the second position is changed to match the second printing pressure to the first printing pressure.
Escalator comprising two deflection regions (6, 7) and a step belt arranged to circulate between the deflection regions (6, 7), which step belt comprises pivotable steps of which the pivoting movements during the circulation are specified by step rollers and idling rollers that are arranged on either side of the steps and roll on rails (16, 17), the step belt having a forward-movement region for conveying persons and goods and a return region for returning the steps, due to the circulating arrangement, and one shared return rail for the idling rollers and the step rollers being provided on either side of the step belt in the return region, characterized in that the shared return rails are arranged in an inclined portion of the return region and one transition region (8, 9) is provided between the two deflection regions (6, 7) and the shared return rails in each case, one rotating conveying apparatus (50, 60, 70) being arranged in each of said two transition regions (8, 9), which rotating conveying apparatus (50, 60, 70), in a first circulation direction of the step belt, conveys the step rollers from the shared return rail to a first guide rail arranged in the deflection region (6, 7) and conveys the idling rollers from the shared return rail to a second guide rail arranged in the deflection region (6, 7), and, in a second circulation direction of the step belt, brings the idling rollers and the step rollers together onto the shared return rail.
Removable structure comprising a support substrate and a silicon oxide layer arranged on said substrate at a first interface, the removable structure being characterised in that: • The oxide layer has a thickness of less than 200nm; • Light hydrogen and/or helium species are deeply distributed and over the whole extent of the structure according to an implantation profile, the maximum concentration of which is located in the thickness of the oxide layer; • The total dose of implanted light species, with respect to the thickness of the oxide layer, exceeds the solubility limit of these light species in said oxide layer by at least a factor of five. • The oxide layer has a thickness of less than 200nm; • Light hydrogen and/or helium species are deeply distributed and over the whole extent of the structure according to an implantation profile, the maximum concentration of which is located in the thickness of the oxide layer; • The total dose of implanted light species, with respect to the thickness of the oxide layer, exceeds the solubility limit of these light species in said oxide layer by at least a factor of five.
Reactant introduction arrangement for introducing reactant into the exhaust gas stream of an internal combustion engine, comprising - a reactant introduction housing with a reactant introduction space surrounded by a housing wall elongated in the direction of a housing longitudinal axis, wherein the housing wall comprises an incoming flow wall area to be positioned upstream in relation to an exhaust gas flow direction, an outgoing flow wall area to be positioned downstream in relation to the exhaust gas flow direction and two side wall areas (34, 36) between the incoming flow wall area and the outgoing flow wall area, - a reactant injection device arranged essentially in the direction of the housing longitudinal axis for injecting reactant into the reactant introduction space in a reactant introduction direction towards a heatable reactant release element, characterized in that at least one flow-through opening (72, 74) is provided in at least one side wall area (34, 36) of the housing wall elongated in the direction of a housing longitudinal axis. - a reactant introduction housing with a reactant introduction space surrounded by a housing wall elongated in the direction of a housing longitudinal axis, wherein the housing wall comprises an incoming flow wall area to be positioned upstream in relation to an exhaust gas flow direction, an outgoing flow wall area to be positioned downstream in relation to the exhaust gas flow direction and two side wall areas (34, 36) between the incoming flow wall area and the outgoing flow wall area, - a reactant injection device arranged essentially in the direction of the housing longitudinal axis for injecting reactant into the reactant introduction space in a reactant introduction direction towards a heatable reactant release element, characterized in that at least one flow-through opening (72, 74) is provided in at least one side wall area (34, 36) of the housing wall elongated in the direction of a housing longitudinal axis.
A method for migrating very high speed broadband, VHBB, services from ADSL/2/2+ technique to VDSL2 technique, in which a port is reconfigured into VDSL2 mode by means of DSL system elements, including an access multiplexer and a modem, characterised in that a VDSL2 port in a Backward Compatibility mode, with connected modem in ADSL/2/2+ technique is monitored by a server, and after connection of a VDSL2 technique modem to the VDSL2 port, at the level of DSL physical layer, the modem is synchronised with the access multiplexer, then at least one modem identification parameter is transmitted from the modem to the access multiplexer, the at least one identification parameter is retrieved from the access multiplexer with use of a communication protocol through the server, and the type of modem is verified, and after confirmation of the modem change, a request to change configuration is transmitted by the server to a management system, and then VDSL2 port operating mode is changed using the management system by leaving the Backward Compatibility mode.
A position sensor for determining a position of a target, said position sensor comprising: - an integrated circuit and - a magnetic position sensor unit adapted to detect two different orders of a multipole expansion of a magnetic field at the location of the magnetic position sensor unit, adapted to generate two signals indicative of the two different orders of the multipole expansion and adapted to provide said two signals to the integrated circuit via an input thereof, the integrated circuit comprising: - said input for receiving said two signals, in which a first signal of said two signals is representative of a physical quantity in a first range and a second signal of said two signals is representative of said physical quantity in a second range, wherein said first range and said second range are different ranges that overlap, - a processor configured to detect an inconsistency between the two signals by taking said first and second range into account, said inconsistency being indicative of an error, wherein the integrated circuit and the magnetic position sensor unit are integrated into a single integrated circuit device. - an integrated circuit and - a magnetic position sensor unit adapted to detect two different orders of a multipole expansion of a magnetic field at the location of the magnetic position sensor unit, adapted to generate two signals indicative of the two different orders of the multipole expansion and adapted to provide said two signals to the integrated circuit via an input thereof, - said input for receiving said two signals, in which a first signal of said two signals is representative of a physical quantity in a first range and a second signal of said two signals is representative of said physical quantity in a second range, wherein said first range and said second range are different ranges that overlap, - a processor configured to detect an inconsistency between the two signals by taking said first and second range into account, said inconsistency being indicative of an error, wherein the integrated circuit and the magnetic position sensor unit are integrated into a single integrated circuit device.
A rotary latch assembly comprising: a latch release (110, 210) having a detent; a pawl (120, 220) that is rotatable relative to the latch release (110, 210) about a pivot axis, the pawl (120, 220) comprising three catches (123, 124, 125, 223, 224, 225), wherein each catch (123, 124, 125, 223, 224, 225) is configured for individually engaging the detent to releasably hold the pawl (120, 220) in a fixed orientation; at least two contact surfaces (141, 142, 241, 242) offset from the pivot axis; and at least one spring (130A, 130B, 230A, 230B) mounted to the pawl (120, 220); the pawl (120, 220) being rotatable relative to the latch release (110, 210) between a neutral orientation and at least one non-neutral orientation, the at least one spring (130A, 130B, 230A, 230B) accumulating a stored energy during rotation of the pawl (120, 220) toward the at least one non-neutral orientation in response to force applied to one of the at least two contact surfaces (141, 142, 241, 242), the spring (130A, 130B, 230A, 230B) releasing the stored energy when force is removed from said one of the at least two contact surfaces (141, 142, 241, 242) to rotate the pawl (120, 220) toward the neutral orientation, characterized in that the pawl (120, 220) defines an axis of symmetry extending between a first catch (124, 224) of the three catches (123, 124, 125, 223, 224, 225) and a pivot center aligned with the pivot axis, such that the at least two contact surfaces (141, 142, 241, 242) are arranged symmetrically about the axis of symmetry and first and third catches (123, 125, 223, 225) of the three catches (123, 124, 125, 223, 224, 225) are also arranged symmetrically about the axis of symmetry.
A supporting plate structure for a magnet grid ruler including a plurality of pieces of supporting plates and at least two ruler shells within which magnetic strips are provided, both ends of each ruler shell are fixedly mounted on two pieces of the supporting plates respectively, and the respective pieces of supporting plates are mountable at one side of a machine guide rail pair, wherein, each piece of the supporting plates comprises a ruler shell mounting base face being adjustable to be parallel with the machine guide rail pair, and a lower portion of each piece of the supporting plates is provided with a protruding portion adapted to position two adjacent ruler shells, an upper portion of each piece of the supporting plates is provided with three holes, a lower portion of each piece of the supporting plates is provided with two holes, and each hole is fitted with a fastening bolt so that the ruler shell mounting base face of each piece of the supporting plates ('1) is adjustable to be parallel with the machine guide rail pair.