mhurhangee/ep-ind-claims huggingface dataset:
Vehicle comprising: - at least one predetermined surface, called passive surface, being an exterior surface of the vehicle and comprising at least one photoluminescent layer, - at least one light source, adapted to emit at least one light beam (12, 19) towards the passive surface, - a light control device adapted to control at least one of a direction and a shape of the light beam (12, 19), characterized in that: - it comprises a reflective layer beneath the at least one photoluminescent layer, - the passive surface is arranged on an outer skin of the vehicle. - at least one predetermined surface, called passive surface, being an exterior surface of the vehicle and comprising at least one photoluminescent layer, - at least one light source, adapted to emit at least one light beam (12, 19) towards the passive surface, - a light control device adapted to control at least one of a direction and a shape of the light beam (12, 19), - it comprises a reflective layer beneath the at least one photoluminescent layer, - the passive surface is arranged on an outer skin of the vehicle.
An in vitro method for diagnosing the presence of an infectious agent in an individual comprising the steps of: obtaining a first expression profile from a blood phagocytic cell from an individual; obtaining a second expression profile from a blood non-phagocytic cell from the individual, wherein the blood non-phagocytic cell is a T cell, a B cell, a null cell, a basophil or any combination thereof; comparing the first and second expression profiles; identifying differential expression of one or more markers specific to the first expression profile; and relating the differential expression of the one or more markers specific to the first expression profile to the presence of an infectious agent in the individual. obtaining a first expression profile from a blood phagocytic cell from an individual; obtaining a second expression profile from a blood non-phagocytic cell from the individual, wherein the blood non-phagocytic cell is a T cell, a B cell, a null cell, a basophil or any combination thereof; comparing the first and second expression profiles; identifying differential expression of one or more markers specific to the first expression profile; and relating the differential expression of the one or more markers specific to the first expression profile to the presence of an infectious agent in the individual.
A facility for producing sintered ores, the facility comprising: sintering vehicles movable along a traveling path; a plurality of wind-boxes arranged along the traveling path and below the sintering vehicles; a hood disposed above the sintering vehicles and extending along at least a portion of the traveling path; and an exhaust gas circulation pipe for connecting at least some of the plurality of wind-boxes to the hood, wherein the exhaust gas circulation pipe at least partially has at least one exhaust gas distribution region for distributing the exhaust gas in a flow direction of the exhaust gas, and the exhaust gas circulation pipe includes a main pipe having one end thereof connected to the wind-boxes, where the main pipe includes the exhaust gas distribution region, and a plurality of inlet pipes, each having one end connected to the main pipe and the other end connected to the hood, and wherein the inlet pipes are connected to one end of the hood, wherein the other ends of the plurality of inlet pipes have the same vertical level, and wherein the inlet pipes have therein a first induction member for controlling a flow of the exhaust gas. sintering vehicles movable along a traveling path; a plurality of wind-boxes arranged along the traveling path and below the sintering vehicles; a hood disposed above the sintering vehicles and extending along at least a portion of the traveling path; and an exhaust gas circulation pipe for connecting at least some of the plurality of wind-boxes to the hood, wherein the exhaust gas circulation pipe at least partially has at least one exhaust gas distribution region for distributing the exhaust gas in a flow direction of the exhaust gas, and the exhaust gas circulation pipe includes a main pipe having one end thereof connected to the wind-boxes, where the main pipe includes the exhaust gas distribution region, and a plurality of inlet pipes, each having one end connected to the main pipe and the other end connected to the hood, and wherein the inlet pipes are connected to one end of the hood, wherein the other ends of the plurality of inlet pipes have the same vertical level, and wherein the exhaust gas circulation pipe at least partially has at least one exhaust gas distribution region for distributing the exhaust gas in a flow direction of the exhaust gas, and the exhaust gas circulation pipe includes a main pipe having one end thereof connected to the wind-boxes, where the main pipe includes the exhaust gas distribution region, and a plurality of inlet pipes, each having one end connected to the main pipe and the other end connected to the hood, and wherein the inlet pipes are connected to one end of the hood, wherein the other ends of the plurality of inlet pipes have the same vertical level, and wherein the inlet pipes have therein a first induction member for controlling a flow of the exhaust gas.
A V2V-based resource allocation method, comprising: receiving, by a base station, a resource request message sent by first user equipment; identifying, by the base station according to the resource request message, a level type corresponding to the first user equipment; and characterized by when if the base station identifies that the level type corresponding to the first user equipment is a high priority type, and a quantity of blocks of idle V2V resources having a same size in a first resource pool is less than a first preset threshold, or a quantity of required resource blocks that is calculated by the base station according to an amount of data to be sent by the first user equipment and a modulation and coding scheme is greater than a quantity of blocks of idle V2V resources in a first resource pool, allocating a V2V resource to the first user equipment from V2V resources occupied by a second user equipment in the first resource pool or from a second resource pool corresponding to another type other than the high priority type, wherein the V2V resource is used by the first user equipment to transmit V2V data, the first resource pool is a resource pool corresponding to the high priority type, and the second user equipment is user equipment of another type other than the high priority type. receiving, by a base station, a resource request message sent by first user equipment; identifying, by the base station according to the resource request message, a level type corresponding to the first user equipment; and characterized by when if the base station identifies that the level type corresponding to the first user equipment is a high priority type, and a quantity of blocks of idle V2V resources having a same size in a first resource pool is less than a first preset threshold, or a quantity of required resource blocks that is calculated by the base station according to an amount of data to be sent by the first user equipment and a modulation and coding scheme is greater than a quantity of blocks of idle V2V resources in a first resource pool, allocating a V2V resource to the first user equipment from V2V resources occupied by a second user equipment in the first resource pool or from a second resource pool corresponding to another type other than the high priority type, wherein the V2V resource is used by the first user equipment to transmit V2V data, the first resource pool is a resource pool corresponding to the high priority type, and the second user equipment is user equipment of another type other than the high priority type.
A method for unlocking communication, applied to a first device, the method comprising: determining a preset time interval for communications in an unlocking process after establishing a connection with a second device; and performing unlocking communication with the second device according to the preset time interval for communications after determining the preset time interval for the communications; characterized in that the unlocking process comprises multiple communications, and wherein the step of performing unlocking communication with the second device according to the preset time interval for communications further comprises: performing data exchange for a single data packet according to the preset time interval for communications in a process of each of the multiple communications with the second device, wherein performing data exchange for the single data packet further comprises: sending a single data packet to the second device according to a preset sequence of the multiple communications in the process of each of the multiple communications; and sending an empty data packet to the second device in a process of data exchange for the single data packet when no data is required to be sent or data required to be sent has not been prepared for present data exchange. determining a preset time interval for communications in an unlocking process after establishing a connection with a second device; and performing unlocking communication with the second device according to the preset time interval for communications after determining the preset time interval for the communications; characterized in that the unlocking process comprises multiple communications, and wherein the step of performing unlocking communication with the second device according to the preset time interval for communications further comprises: performing data exchange for a single data packet according to the preset time interval for communications in a process of each of the multiple communications with the second device, wherein performing data exchange for the single data packet further comprises: sending a single data packet to the second device according to a preset sequence of the multiple communications in the process of each of the multiple communications; and sending an empty data packet to the second device in a process of data exchange for the single data packet when no data is required to be sent or data required to be sent has not been prepared for present data exchange. sending a single data packet to the second device according to a preset sequence of the multiple communications in the process of each of the multiple communications; and sending an empty data packet to the second device in a process of data exchange for the single data packet when no data is required to be sent or data required to be sent has not been prepared for present data exchange.
Propellant device, for exerting a propulsion force on a vehicle, by exchange of quantity of movement, characterized in that the quantity of movement is obtained by the displacement of at least one piston (20, 20') of non-zero mass in at least one cavity (10, 10') which is sealed and contains a gas, said cavity comprising one or more cylindrical parts, in which cylindrical part or parts the at least one piston (20, 20') is sealingly mobile such that the gas situated in a cylindrical part on one side of a piston does not circulate between said piston and a wall of the cylindrical part towards an opposite side of said piston (20, 20'), an acceleration of which piston is provided by a force taking effect on a structure of the vehicle and the slowing down of which piston is produced in an isolated manner in said propellant device without a force being applied to the vehicle by a device absorbing a kinetic energy of the piston arranged in said cavity (10, 10') to slow down said at least one piston in an isolated manner in the propellant device, the slowing down of the piston resulting from a compression of the gas between a face of the piston and an end of the cavity in which the piston is displaced.
- A seat for a vehicle comprising a seating part pivoting about a pivot link, the pivot link allowing the seating part to be lowered into a substantially horizontal position or lifted against a back rest, the lowering course of the seating part being limited by at least one first stop that is adapted to release the lowering following an impact, the seat being characterised in that the seating part comprises at least two adjacent panels (6,7) adapted to carry out a fold-back movement in relation to each other about an axis parallel to the pivot link between the seating part and the back rest so as to be able to bring the upper faces of the panels (6,7) towards each other.
A 20'-hydroxy-vinca derivative of structural Formula A or a pharmaceutically acceptable R 1 R 2 R 3 Vinblastine -CH 3 Vincristine Vindesine -CH 3 -OH salt thereof, wherein R is a substituent of the formula in which N is nitrogen and one of W, X, Y and Z can also be nitrogen, and when not nitrogen, W, X, Y and Z are CH or one of W, X, Y, Z is CR 4, and R 4 is hydrido or an electron donating substituent, and R b is F or H.
An isolated monoclonal antibody which binds to human OX40, wherein the antibody comprises a heavy chain variable region comprising the sequence of SEQ ID NO: 318 and a light chain variable region comprising the sequence of SEQ ID NO: 94.
An optical free space data communication system, in particular for optical satellite communication, comprising a transmitter for generating an optical data signal and a receiver of the optical data signal. characterized in that the transmitter comprises a light source for generating an optical carrier, and at least one modulator (18, 20), the at least one modulator (18, 20) modulating a slow signal onto the carrier and modulates a fast signal onto the carrier, the fast signal having a higher modulation frequency than the slow signal, the slow signal and the fast signal being combined into an optical data signal which is transmitted to the receiver, in particular at least the fast signal including data to be transmitted, the receiver comprising a local oscillator on which the received data signal is superimposed, the receiver comprising an analog-to-digital converter for demodulating the slow signal, an evaluation device being connected to the analog-to-digital converter, the evaluation device being configured to acquire signal parameters of the transmission, the receiver comprising a transceiver for the demodulation of the fast signal, the evaluation device being configured such that the signal demodulated by the transceiver is compensated for by the acquired signal parameters. a transmitter for generating an optical data signal and a receiver of the optical data signal. characterized in that the transmitter comprises a light source for generating an optical carrier, and at least one modulator (18, 20), the at least one modulator (18, 20) modulating a slow signal onto the carrier and modulates a fast signal onto the carrier, the fast signal having a higher modulation frequency than the slow signal, the slow signal and the fast signal being combined into an optical data signal which is transmitted to the receiver, in particular at least the fast signal including data to be transmitted, the receiver comprising a local oscillator on which the received data signal is superimposed, the receiver comprising an analog-to-digital converter for demodulating the slow signal, an evaluation device being connected to the analog-to-digital converter, the evaluation device being configured to acquire signal parameters of the transmission, the receiver comprising a transceiver for the demodulation of the fast signal, the evaluation device being configured such that the signal demodulated by the transceiver is compensated for by the acquired signal parameters.
A process for the preparation of glycols from a lignocellulosic solid biomass comprising cellulose, hemicellulose and lignin in a reactor system, said process comprising: a) contacting the lignocellulosic solid biomass with an organic solvent comprising a low boiling point alcohol, and a pre-treatment acid, at a temperature ranging from about 80 to about 220°C and a pressure ranging from 1 to 50 bar (absolute) for a time ranging from about 5 minutes to about 2 hours to obtain a first mixture; b) separating the first mixture obtained in step (a) into a pre-treated solid residue comprising cellulose and a liquid stream comprising dissolved lignin and hemicellulose; c) subjecting the pre-treated solid residue to a hydrogenolysis reaction and generating a glycols stream, a lights stream and a heavies stream; d) recycling at least a part of the lights stream to step (a), wherein the lights stream comprises a first portion of the organic solvent; e) separating at least of part of the liquid stream from step b) to produce a second portion of the organic solvent and a solid residue that comprises lignin and hemicellulose; and f) recycling at least a part of the second portion of the organic solvent to step (a); wherein the first mixture has greater than about 20 wt% water; wherein the pre-treatment acid comprises at least one selected from the group consisting of formic acid, acetic acid, propionic acid, butyric acid, glycolic acid, lactic acid, and combinations thereof which is/are at least partially generated in-situ in step (a); and wherein at least a part of the pre-treatment acid is recycled to step (a). a) contacting the lignocellulosic solid biomass with an organic solvent comprising a low boiling point alcohol, and a pre-treatment acid, at a temperature ranging from about 80 to about 220°C and a pressure ranging from 1 to 50 bar (absolute) for a time ranging from about 5 minutes to about 2 hours to obtain a first mixture; b) separating the first mixture obtained in step (a) into a pre-treated solid residue comprising cellulose and a liquid stream comprising dissolved lignin and hemicellulose; c) subjecting the pre-treated solid residue to a hydrogenolysis reaction and generating a glycols stream, a lights stream and a heavies stream; d) recycling at least a part of the lights stream to step (a), wherein the lights stream comprises a first portion of the organic solvent; e) separating at least of part of the liquid stream from step b) to produce a second portion of the organic solvent and a solid residue that comprises lignin and hemicellulose; and f) recycling at least a part of the second portion of the organic solvent to step (a); wherein the first mixture has greater than about 20 wt% water; wherein the pre-treatment acid comprises at least one selected from the group consisting of formic acid, acetic acid, propionic acid, butyric acid, glycolic acid, lactic acid, and combinations thereof which is/are at least partially generated in-situ in step (a); and wherein at least a part of the pre-treatment acid is recycled to step (a).
A bone graft delivery system comprising: a handle assembly having a fixed arm pivotably coupled to and biased away from a moving arm, an extension member extending from the fixed arm and having an opening therethrough; a pawl coupled to an end portion of the moving arm; a delivery tube configured to receive bone graft material therein and adapted to be positioned within the opening of the extension member; and a plunger assembly including a shaft and a tip at a distal end of the shaft, the shaft including a plurality of teeth, the tip of the plunger assembly configured to be positioned within the delivery tube; wherein movement of the moving arm proximally toward the fixed arm causes the pawl to move distally, a tip of the pawl being configured to engage the teeth of the shaft of the plunger assembly to drive the tip of the plunger assembly distally to advance bone graft received in the delivery tube, characterized by the shaft of the plunger assembly including a proximal portion and a distal portion, the plurality of teeth being positioned only on the distal portion of the shaft. a handle assembly having a fixed arm pivotably coupled to and biased away from a moving arm, an extension member extending from the fixed arm and having an opening therethrough; a pawl coupled to an end portion of the moving arm; a delivery tube configured to receive bone graft material therein and adapted to be positioned within the opening of the extension member; and a plunger assembly including a shaft and a tip at a distal end of the shaft, the shaft including a plurality of teeth, the tip of the plunger assembly configured to be positioned within the delivery tube; wherein movement of the moving arm proximally toward the fixed arm causes the pawl to move distally, a tip of the pawl being configured to engage the teeth of the shaft of the plunger assembly to drive the tip of the plunger assembly distally to advance bone graft received in the delivery tube, characterized by the shaft of the plunger assembly including a proximal portion and a distal portion, the plurality of teeth being positioned only on the distal portion of the shaft.
A method for the in vitro determination of the variation of the deformability of red blood cells of a tested individual, the method comprising the steps of: a) determining a first amount of red blood cells having a tank-treading motion in a population of red blood cells, said population of red blood cells being obtained from a sample of said tested individual, b) calculating the absolute value of the difference between - said first amount of red blood cells having a tank-treading motion in a population of red blood cells, and - a second amount being the calculated mean of the determined amount of red blood cells having a tank-treading motion obtained in reference populations of red blood cells, said calculated mean of the determined amount being obtained along with the value of the standard deviation of the red blood cells having a tank-treading motion obtained in the reference populations of red blood cells, wherein said reference populations are obtained either from at least two independent samples of said tested individual, or from at least one sample of at least two individuals, said at least two individuals being different from said tested individual, such that if said absolute value is greater than twice the value of said standard deviation, then the red blood cells of said population present a significant variation of their deformability compared to the red blood cells of said reference populations. a) determining a first amount of red blood cells having a tank-treading motion in a population of red blood cells, said population of red blood cells being obtained from a sample of said tested individual, b) calculating the absolute value of the difference between - said first amount of red blood cells having a tank-treading motion in a population of red blood cells, and - a second amount being the calculated mean of the determined amount of red blood cells having a tank-treading motion obtained in reference populations of red blood cells, said calculated mean of the determined amount being obtained along with the value of the standard deviation of the red blood cells having a tank-treading motion obtained in the reference populations of red blood cells, - said first amount of red blood cells having a tank-treading motion in a population of red blood cells, and - a second amount being the calculated mean of the determined amount of red blood cells having a tank-treading motion obtained in reference populations of red blood cells, said calculated mean of the determined amount being obtained along with the value of the standard deviation of the red blood cells having a tank-treading motion obtained in the reference populations of red blood cells,