mhurhangee/ep-ind-claims huggingface dataset:
Method for communication, in a telecommunication network, between a caller entity (EN, W2) and an instance of an application downloaded onto a user terminal and connected to a connection server of said network, characterized in that it comprises the following steps, implemented in an entity (EN, W2, SV1) of said network: - obtaining (E16, E72, E142, E214), on the basis of an identifier (IA, NTA) of a destination user, an instance identifier (RW1, RW3) of an application instance, said instance identifier having been determined and stored, in association with said identifier of said destination user, in a phase of connecting said application instance to said connection server and said instance identifier comprising a first identifier (ID1, ID5) and a second identifier (ID2, ID6), the second identifier (ID2, ID6) being a pointer to a server, called the host server (SC1, SH), able to connect to said network, the first identifier (ID1, ID3) allowing the host server to identifier the connection server if the host server is different from the connection server and allowing the connection server to identify the application instance among the application instances connected to the connection server; - transmitting (E18, E74, E144, E216) to said host server, using the second identifier, a notification (NF1, NF2, NF3, NF4) containing said instance identifier, said host server being configured to retransmit said notification to the connection server if the host server is different from the connection server, the connection server being able to identify said application instance by means of said obtained instance identifier, and to transfer said notification to the identified application instance. - obtaining (E16, E72, E142, E214), on the basis of an identifier (IA, NTA) of a destination user, an instance identifier (RW1, RW3) of an application instance, said instance identifier having been determined and stored, in association with said identifier of said destination user, in a phase of connecting said application instance to said connection server and said instance identifier comprising a first identifier (ID1, ID5) and a second identifier (ID2, ID6), the second identifier (ID2, ID6) being a pointer to a server, called the host server (SC1, SH), able to connect to said network, the first identifier (ID1, ID3) allowing the host server to identifier the connection server if the host server is different from the connection server and allowing the connection server to identify the application instance among the application instances connected to the connection server; - transmitting (E18, E74, E144, E216) to said host server, using the second identifier, a notification (NF1, NF2, NF3, NF4) containing said instance identifier, said host server being configured to retransmit said notification to the connection server if the host server is different from the connection server, the connection server being able to identify said application instance by means of said obtained instance identifier, and to transfer said notification to the identified application instance.
A Zscan4 protein or an isolated nucleic acid molecule encoding Zscan4 for use in treating a disease or condition associated with a telomere abnormality, wherein said Zscan4 protein or said isolated nucleic acid molecule encoding Zscan4 induces telomere lengthening in one or more human cells to treat the disease or condition associated with a telomere abnormality, wherein the disease or condition associated with the telomere abnormality is a bone marrow failure syndrome, with the proviso that said treatment does not modify the germ line genetic identity of said human subject.
An apparatus for evaluating the integrity of a container seal comprising: a holder for receiving a container having a seal and containing an electrolyte product; a probe actuating device having a first probe attached to a lower portion thereof, the first probe having a tip portion that is so constructed and arranged to puncture the container; an electrolyte bath having a second probe at least partially immersed therein; and a conductivity meter connected to each of the first probe and the second probe, wherein the apparatus is characterised in that the first probe is a first hollow probe and in that the apparatus further comprises a fluid supply fluidly connected to the first hollow probe, the fluid supply so constructed and arranged to deliver a pressurized fluid to an interior of the container through a fluid supply tube and the first hollow probe. a holder for receiving a container having a seal and containing an electrolyte product; a probe actuating device having a first probe attached to a lower portion thereof, the first probe having a tip portion that is so constructed and arranged to puncture the container; an electrolyte bath having a second probe at least partially immersed therein; and a conductivity meter connected to each of the first probe and the second probe, wherein the apparatus is characterised in that the first probe is a first hollow probe and in that the apparatus further comprises a fluid supply fluidly connected to the first hollow probe, the fluid supply so constructed and arranged to deliver a pressurized fluid to an interior of the container through a fluid supply tube and the first hollow probe.
A process comprising: chlorinating 4-sulfophthalic acid trisodium salt, under solvent reaction conditions, to form a dissolved 4-chlorosulfonylphthalic anhydride and an insoluble sodium chloride; first removing the insoluble sodium chloride from the dissolved 4-chlorosulfonylphthalic anhydride to form an isolated 4-chlorosulfonylphthalic anhydride; reacting, under solvent reaction conditions, the isolated 4-chlorosulfonylphthalic anhydride with sodium azide to form a dissolved 4-azidosulfonylphthalic anhydride and an insoluble sodium chloride; second removing the insoluble sodium chloride from the dissolved 4-azidosulfonylphthalic anhydride to form an isolated 4-azidosulfonylphthalic anhydride; and retrieving a solid 4-azidosulfonylphthalic anhydride from the isolated 4-azidosulfonylphthalic anhydride. chlorinating 4-sulfophthalic acid trisodium salt, under solvent reaction conditions, to form a dissolved 4-chlorosulfonylphthalic anhydride and an insoluble sodium chloride; first removing the insoluble sodium chloride from the dissolved 4-chlorosulfonylphthalic anhydride to form an isolated 4-chlorosulfonylphthalic anhydride; reacting, under solvent reaction conditions, the isolated 4-chlorosulfonylphthalic anhydride with sodium azide to form a dissolved 4-azidosulfonylphthalic anhydride and an insoluble sodium chloride; second removing the insoluble sodium chloride from the dissolved 4-azidosulfonylphthalic anhydride to form an isolated 4-azidosulfonylphthalic anhydride; and retrieving a solid 4-azidosulfonylphthalic anhydride from the isolated 4-azidosulfonylphthalic anhydride.
A syringe carrier comprising: a body (1.1) adapted to receive a barrel (2.1) of a syringe, the body (1.1) having a cylindrical shape with a first diameter and including a distal portion (1.21) having one or more barbs (1.22), extending toward a longitudinal axis of the body (1.1) and angled toward a proximal end of the body (1.1), characterized in that the distal portion (1.21) is enlarged having a second diameter greater than the first diameter of the body (1.1) allowing insertion of a cylindrical tool having an open end adapted to receive a needle shield covering a needle of the syringe, the tool having a third diameter substantially equal to the second diameter, the barbs (1.22) being resilient and adapted to engage a circumferential gap between the barrel (2.1) of the syringe and the needle shield, the resilient barbs (1.22) adapted to deflect when engaged by the tool allowing the needle shield to pass the barbs (1.22) in a distal direction. a body (1.1) adapted to receive a barrel (2.1) of a syringe, the body (1.1) having a cylindrical shape with a first diameter and including a distal portion (1.21) having one or more barbs (1.22), extending toward a longitudinal axis of the body (1.1) and angled toward a proximal end of the body (1.1), characterized in that the distal portion (1.21) is enlarged having a second diameter greater than the first diameter of the body (1.1) allowing insertion of a cylindrical tool having an open end adapted to receive a needle shield covering a needle of the syringe, the tool having a third diameter substantially equal to the second diameter, the barbs (1.22) being resilient and adapted to engage a circumferential gap between the barrel (2.1) of the syringe and the needle shield, the resilient barbs (1.22) adapted to deflect when engaged by the tool allowing the needle shield to pass the barbs (1.22) in a distal direction.
Facility for storing and dispensing fuel in vehicles comprising: - a fuel storage tank equipped with a vent pipe and linked to at least one fuel dispenser on the one hand by a fuel dispensing system into a vehicle tank and on the other hand, by a vapour recovery system sucking the fuel vapours emitted upon the dispensing of fuel into this tank, and - a condensation/separation device connected to the vent pipe and that makes it possible to condense fuel vapours originating from the storage tank in order to generate condensed fuel and to condense water originating from the outside air in order to generate condensed water, this condensation/separation device being connected to a condensed fuel discharge line linked to the storage tank and to a condensed water discharge line to the outside, characterized in that it comprises: - at least one detection means (7, 8) cooperating with the condensation/separation device to detect the presence of condensed fuel and/or condensed water in this device and to generate and transmit an alert signal in response to this detection, and - a control device receiving this alert signal and transmitting, in response, information on malfunctioning of the fuel vapour recovery system to a control centre. - a fuel storage tank equipped with a vent pipe and linked to at least one fuel dispenser on the one hand by a fuel dispensing system into a vehicle tank and on the other hand, by a vapour recovery system sucking the fuel vapours emitted upon the dispensing of fuel into this tank, and - a condensation/separation device connected to the vent pipe and that makes it possible to condense fuel vapours originating from the storage tank in order to generate condensed fuel and to condense water originating from the outside air in order to generate condensed water, this condensation/separation device being connected to a condensed fuel discharge line linked to the storage tank and to a condensed water discharge line to the outside, - at least one detection means (7, 8) cooperating with the condensation/separation device to detect the presence of condensed fuel and/or condensed water in this device and to generate and transmit an alert signal in response to this detection, and - a control device receiving this alert signal and transmitting, in response, information on malfunctioning of the fuel vapour recovery system to a control centre.
A prosthesis having an inflow end and an outflow end that is downstream of the inflow end, the prosthesis comprising: a first segment having a proximal end and a distal end; a second segment having a proximal end and a distal end; an axially extendable segment having a proximal end and a distal end and coupled to the first and second segments; and a valve coupled to at least one of the axially extendable segment or the second segment, wherein the valve lacks an overlap with the first segment at a location downstream of the first segment in a delivery state of the axially extendable segment, and wherein the valve at least partially overlaps with the first segment in a deployment state of the axially extendable segment in which the axially extendable segment has a foreshortened orientation, characterised in that, after deployment, the axially extendable segment is inclined to return to its foreshortened orientation. a first segment having a proximal end and a distal end; a second segment having a proximal end and a distal end; an axially extendable segment having a proximal end and a distal end and coupled to the first and second segments; and a valve coupled to at least one of the axially extendable segment or the second segment, wherein the valve lacks an overlap with the first segment at a location downstream of the first segment in a delivery state of the axially extendable segment, and wherein the valve at least partially overlaps with the first segment in a deployment state of the axially extendable segment in which the axially extendable segment has a foreshortened orientation, characterised in that, after deployment, the axially extendable segment is inclined to return to its foreshortened orientation.
An electronic device comprising: an oscillator configured to output a clock signal of predetermined frequency; a clock circuit configured to count date and time in accordance with input of the clock signal; a temperature sensor configured to measure a temperature relating to a change of the predetermined frequency; a positioning satellite radio receiver configured to receive a radio wave from a positioning satellite; and a processor (401, 52), wherein the processor (401, 52) estimates an amount of time count difference in date and time counted by the clock circuit on the basis of a history of temperatures measured by the temperature sensor, and combines date and time counted by the clock circuit, the estimated amount of time count difference, and part of date-and-time information obtained from a radio wave received by the positioning satellite radio receiver to identify current date and time, characterized in that the processor (401, 52) performs predictive-reception-based time acquisition in which the processor (401, 52) generates a predicted code string expected to be received by the positioning satellite radio receiver, on the basis of date and time and the amount of time count difference, counted and estimated respectively by the clock circuit, and then the processor (401, 52) identifies current date and time on the basis of matching detection timing between the predicted code string and a received code string received by the positioning satellite radio receiver. an oscillator configured to output a clock signal of predetermined frequency; a clock circuit configured to count date and time in accordance with input of the clock signal; a temperature sensor configured to measure a temperature relating to a change of the predetermined frequency; a positioning satellite radio receiver configured to receive a radio wave from a positioning satellite; and a processor (401, 52), wherein the processor (401, 52) estimates an amount of time count difference in date and time counted by the clock circuit on the basis of a history of temperatures measured by the temperature sensor, and combines date and time counted by the clock circuit, the estimated amount of time count difference, and part of date-and-time information obtained from a radio wave received by the positioning satellite radio receiver to identify current date and time, characterized in that the processor (401, 52) performs predictive-reception-based time acquisition in which the processor (401, 52) generates a predicted code string expected to be received by the positioning satellite radio receiver, on the basis of date and time and the amount of time count difference, counted and estimated respectively by the clock circuit, and then the processor (401, 52) identifies current date and time on the basis of matching detection timing between the predicted code string and a received code string received by the positioning satellite radio receiver.
A cutting device comprising a main frame body, at least one stationary cutting element disposed on the main frame body, a drive system disposed on the main frame body, in particular in the form of a fluid cylinder, and a cutting blade drivingly connected to the drive system and guided in its movement on the main frame body which cooperates with the stationary cutting element, wherein the main frame body and/or the drive system is made from an essentially light metal or a light metal alloy with a density of less than 5000 kg/m 3, in particular less than 3000 kg/m 3, characterized in that a guide element guiding the cutting blade in at least one direction, preferably in several directions, is detachably secured to the main frame body for absorbing a reaction force which occurs in the mid-plane of the cutting blade transversely to the displacement direction of the cutting blade and the guide element has at least one guide bar locating in guide recesses on the blade.
A display device comprising: a window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1); and a display module (DM, DM10) coupled to the window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1), the window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1) comprising: a first resin layer (PL1, PL10) on the display module (DM, DM10), the first resin layer (PL1, PL10) having a first elongation, a first thickness, and a first hardness; and a second resin layer (PL2, PL20) on the first resin layer (PL1, PL10), the second resin layer (PL2, PL20) having a second elongation smaller than the first elongation, a second thickness greater than the first thickness, and a second hardness greater than the first hardness, and characterized in that the first thickness is in a range from 150 micrometers to 250 micrometers. a window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1); and a display module (DM, DM10) coupled to the window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1), the window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1) comprising: a first resin layer (PL1, PL10) on the display module (DM, DM10), the first resin layer (PL1, PL10) having a first elongation, a first thickness, and a first hardness; and a second resin layer (PL2, PL20) on the first resin layer (PL1, PL10), the second resin layer (PL2, PL20) having a second elongation smaller than the first elongation, a second thickness greater than the first thickness, and a second hardness greater than the first hardness, and a first resin layer (PL1, PL10) on the display module (DM, DM10), the first resin layer (PL1, PL10) having a first elongation, a first thickness, and a first hardness; and a second resin layer (PL2, PL20) on the first resin layer (PL1, PL10), the second resin layer (PL2, PL20) having a second elongation smaller than the first elongation, a second thickness greater than the first thickness, and a second hardness greater than the first hardness, and characterized in that the first thickness is in a range from 150 micrometers to 250 micrometers.
A method for controlling a lateral position of an endless belt of a belt conveyor system, the belt conveyor system comprising: - three rollers (122, 126, 128) around which the endless belt extends, which three rollers define an inner volume; - a steering roller arranged for supporting the endless belt and controlling the lateral position of the endless belt in a lateral direction, the lateral direction being transverse to a circulation path of the belt, which steering roller is entrained within the inner volume defined by the three rollers; the method comprising the steps of: a) circulating the belt along the circulation path, such that the belt passes through the inner volume via the entrained steering roller; b) controlling a first rotation position of the steering roller by a belt steering device (225, 325, 425, 525) about a first rotation axis (P 1) to control the lateral position of the belt; and c) controlling a second rotation position of the steering roller by the belt steering device (225, 325, 425, 525) about a second rotation axis (P 2) independently of the first rotation position about the first rotation axis (P 1) to adjust the lateral position of the belt; wherein the second rotation axis (P 2) is arranged substantially perpendicular to the first rotation axis (P 1). - three rollers (122, 126, 128) around which the endless belt extends, which three rollers define an inner volume; - a steering roller arranged for supporting the endless belt and controlling the lateral position of the endless belt in a lateral direction, the lateral direction being transverse to a circulation path of the belt, which steering roller is entrained within the inner volume defined by the three rollers; a) circulating the belt along the circulation path, such that the belt passes through the inner volume via the entrained steering roller; b) controlling a first rotation position of the steering roller by a belt steering device (225, 325, 425, 525) about a first rotation axis (P 1) to control the lateral position of the belt; and c) controlling a second rotation position of the steering roller by the belt steering device (225, 325, 425, 525) about a second rotation axis (P 2) independently of the first rotation position about the first rotation axis (P 1) to adjust the lateral position of the belt;
A moving image coding apparatus for coding an input image frame, comprising: a segment-unit-coding module for receiving the input image frame as a segment-unit image by dividing the input image frame into N number of segments, estimating an integer pixel motion for segments within the segment-unit image, and generating a 1/n pixel image from macroblocks coded by a macroblock-unit-coding module; and a macroblock-unit-coding module for receiving the segment of the input image frame for which the integer pixel motion is estimated by the segment-unit-coding module, in units of macroblocks, wherein each segment comprises a plurality of macroblocks, and coding each of the macroblocks by employing 1/n pixel motion estimation for each macroblock, wherein the segment-unit-coding module is arranged to estimate an integer pixel motion for a next segment in advance before the macroblock-unit-coding module codes the macroblocks in that next segment,, wherein while the macroblock-unit-coding module codes the macroblocks in the segment for which the integer pixel motion has been estimated by the segment-unit coding module, the segment-unit-coding module is arranged to estimate the integer pixel motion for the next segment and to generate a 1/n pixel image for a previous segment independently and simultaneously; and wherein the operations of the segment-unit coding module and the macroblock-unit coding module are performed on different segments of the image frame in parallel. a segment-unit-coding module for receiving the input image frame as a segment-unit image by dividing the input image frame into N number of segments, estimating an integer pixel motion for segments within the segment-unit image, and generating a 1/n pixel image from macroblocks coded by a macroblock-unit-coding module; and a macroblock-unit-coding module for receiving the segment of the input image frame for which the integer pixel motion is estimated by the segment-unit-coding module, in units of macroblocks, wherein each segment comprises a plurality of macroblocks, and coding each of the macroblocks by employing 1/n pixel motion estimation for each macroblock, wherein the segment-unit-coding module is arranged to estimate an integer pixel motion for a next segment in advance before the macroblock-unit-coding module codes the macroblocks in that next segment,, wherein while the macroblock-unit-coding module codes the macroblocks in the segment for which the integer pixel motion has been estimated by the segment-unit coding module, the segment-unit-coding module is arranged to estimate the integer pixel motion for the next segment and to generate a 1/n pixel image for a previous segment independently and simultaneously; and wherein the operations of the segment-unit coding module and the macroblock-unit coding module are performed on different segments of the image frame in parallel.