mhurhangee/ep-ind-claims huggingface dataset:
A rotating control device comprising: an outer housing defining a bore therein for receiving a tubular member; an inner housing rotatably disposed within the outer housing; a piston assembly rotatably disposed within the outer housing; an annular sealing assembly supported within the inner housing or disposed between the piston assembly and the inner housing, wherein axial movement of the piston assembly moves the annular sealing assembly into sealing engagement with the inner housing and the tubular member; and characterised in that a plurality of bearings disposed between the inner housing and the outer housing, wherein at least one of the plurality of bearings is a hydrodynamic journal bearing. an outer housing defining a bore therein for receiving a tubular member; an inner housing rotatably disposed within the outer housing; a piston assembly rotatably disposed within the outer housing; an annular sealing assembly supported within the inner housing or disposed between the piston assembly and the inner housing, wherein axial movement of the piston assembly moves the annular sealing assembly into sealing engagement with the inner housing and the tubular member; and characterised in that a plurality of bearings disposed between the inner housing and the outer housing, wherein at least one of the plurality of bearings is a hydrodynamic journal bearing.
A method, in a node of a wireless local-area network, WLAN, the method comprising: determining a per-cell load value for each of two or more cells in a wide-area cellular network, the per-cell load value indicating, for a first WLAN access point, AP, a portion of the first WLAN AP's load corresponding to wireless terminals connected to the first WLAN AP and associated with the respective cell; and sending a report to a node in the wide-area cellular network, the report indicating the per-cell load value for at least one of the two or more cells. determining a per-cell load value for each of two or more cells in a wide-area cellular network, the per-cell load value indicating, for a first WLAN access point, AP, a portion of the first WLAN AP's load corresponding to wireless terminals connected to the first WLAN AP and associated with the respective cell; and sending a report to a node in the wide-area cellular network, the report indicating the per-cell load value for at least one of the two or more cells.
Filament lamp, comprising: a bulb, on at least one end of which there is a hermetically sealed portion; a plurality of filament bodies (13a-c, 23a-b), each formed of a filament (131a-c, 231a-b) and leads (132a-c, 133a-c, 232a-b, 233a-b) for an individual supply of power to the filament (131a-c, 231a-b) which are electrically connected to a respective one of the ends of the filament (131a-c, 231a-b), the filament bodies (13a-c, 23a-b) are located along an axis of the bulb with the filaments (131a-c, 231a-b) arranged in rows in a lengthwise direction of the bulb, a plurality of electrically conductive components (150a-f, 250a-d), each of which is formed of a metal foil (18a-f, 28a-d), an outer lead (17a-f, 27a-d) electrically connected to one end of the metal foil and, optionally, an inner lead (15a-f, 25a-d) electrically connected to the other end of the metal foil, wherein each electrically conductive component (150a-f, 250a-d) is electrically connected to a respective one of the filament bodies (13a-c, 23a-b), characterized in that a rod-shaped sealing insulator (12a-b, 22a) is located in the hermetically sealed portion, wherein the electrically conductive components (150a-f, 250a-d) are arranged on the periphery of the sealing insulator (12a-b, 22a) at a distance from one another, and wherein the electrically conductive components (150a-f, 250a-d) are sealed between the hermetically sealed portion of the bulb and the sealing insulator (12a-b, 22a). a bulb, on at least one end of which there is a hermetically sealed portion; a plurality of filament bodies (13a-c, 23a-b), each formed of a filament (131a-c, 231a-b) and leads (132a-c, 133a-c, 232a-b, 233a-b) for an individual supply of power to the filament (131a-c, 231a-b) which are electrically connected to a respective one of the ends of the filament (131a-c, 231a-b), the filament bodies (13a-c, 23a-b) are located along an axis of the bulb with the filaments (131a-c, 231a-b) arranged in rows in a lengthwise direction of the bulb, a plurality of electrically conductive components (150a-f, 250a-d), each of which is formed of a metal foil (18a-f, 28a-d), an outer lead (17a-f, 27a-d) electrically connected to one end of the metal foil and, optionally, an inner lead (15a-f, 25a-d) electrically connected to the other end of the metal foil, wherein each electrically conductive component (150a-f, 250a-d) is electrically connected to a respective one of the filament bodies (13a-c, 23a-b), characterized in that a rod-shaped sealing insulator (12a-b, 22a) is located in the hermetically sealed portion, wherein the electrically conductive components (150a-f, 250a-d) are arranged on the periphery of the sealing insulator (12a-b, 22a) at a distance from one another, and wherein the electrically conductive components (150a-f, 250a-d) are sealed between the hermetically sealed portion of the bulb and the sealing insulator (12a-b, 22a).
A system for regulating vehicles in a vehicle train which comprises a leader vehicle and at least one further vehicle adapted to communicating via wireless communication and/or via radar, camera and/or GPS (global positioning system), which system comprises a processor unit adapted to - receiving data related to one or more vehicle parameters for a vehicle in the train or within an area around the train, in which said data comprises identification data indicating which vehicle said data come from, the system further comprises that said processor unit is adapted to; - analysing said data according to predetermined criteria by comparing said identification data comprised in the the received data with identification data for the vehicle train and to fusion said received identifiable data in order to estimate one or more vehicle states for the vehicle, - placing said vehicle in one of a predetermined number of categories based on the result of said analysis, in which said categories comprises at least 1) wirelessly transmitting vehicles in the vehicle train and 2) wirelessly transmitting vehicles outside the vehicle train 3) unknown vehicles in the vehicle train not sending data wirelessly and wherein each of which categories has rules for how at least one vehicle in the train is to be regulated on the basis of the categorisation, - generating at least one control signal which indicates how one or more vehicles in the train are to be regulated on the basis of said categorisation and said vehicle states; - sending the control signal to one or more control units on board one or more of the train's vehicles, which are then regulated accordingly. - receiving data related to one or more vehicle parameters for a vehicle in the train or within an area around the train, in which said data comprises identification data indicating which vehicle said data come from, the system further comprises that said processor unit is adapted to; - analysing said data according to predetermined criteria by comparing said identification data comprised in the the received data with identification data for the vehicle train and to fusion said received identifiable data in order to estimate one or more vehicle states for the vehicle, - placing said vehicle in one of a predetermined number of categories based on the result of said analysis, in which said categories comprises at least 1) wirelessly transmitting vehicles in the vehicle train and 2) wirelessly transmitting vehicles outside the vehicle train 3) unknown vehicles in the vehicle train not sending data wirelessly and wherein each of which categories has rules for how at least one vehicle in the train is to be regulated on the basis of the categorisation, - generating at least one control signal which indicates how one or more vehicles in the train are to be regulated on the basis of said categorisation and said vehicle states; - sending the control signal to one or more control units on board one or more of the train's vehicles, which are then regulated accordingly.
A catalytic bed for the partial oxidation of n-butane to maleic anhydride comprising a first catalytic layer of vanadium and phosphorus mixed oxide catalyst and a second catalytic layer of VPO catalyst, wherein the VPO catalyst of each of the first catalytic layer and second catalytic layer comprises vanadyl pyrophosphate 2 P 2 O 7 as main component and bismuth as a promoter element, and only the VPO catalyst of the second catalytic layer further comprises tungsten, the second catalytic layer constitutes 25% to 45% of the total length of the catalytic bed and is arranged consecutively after the first catalytic layer, so that a mixture of gases comprising n-butane and oxygen flows first through the first catalytic layer and then through the second catalytic layer, and the VPO catalyst of the second catalytic layer comprises tungsten in an amount corresponding to an atomic ratio of vanadium to tungsten between 250:1 and 60:1. the VPO catalyst of each of the first catalytic layer and second catalytic layer comprises vanadyl pyrophosphate 2 P 2 O 7 as main component and bismuth as a promoter element, and only the VPO catalyst of the second catalytic layer further comprises tungsten, the second catalytic layer constitutes 25% to 45% of the total length of the catalytic bed and is arranged consecutively after the first catalytic layer, so that a mixture of gases comprising n-butane and oxygen flows first through the first catalytic layer and then through the second catalytic layer, and the VPO catalyst of the second catalytic layer comprises tungsten in an amount corresponding to an atomic ratio of vanadium to tungsten between 250:1 and 60:1.
Composition of cells and GLA for use in a method of enhancing or eliciting an immune response in a patient, wherein the cells are isolated from an ex vivo cell culture comprising cells from a patient, wherein the GLA has the formula: wherein: R 1, R 3, R 5 and R 6 are undecyl and R 2 and R 4 are tridecyl.
Method to verify, by a verification server, the execution integrity of an application in a target device wherein the verification server receives an application signature generated from run time application information on the target device, said signature being used to verify the execution integrity of the application in the target device, said application comprising an array of blocks, each block producing a digest, thus producing an array of digests related to the array of blocks, comprising the steps of: - sending to the target device a message comprising a challenge and a first function, said first function defining an aggregation method, said challenge defining an aggregation instruction, - receiving an attestation from the target device, this attestation being generated by the target device by determining for each block, the corresponding digest for said block, aggregating the digests of the blocks according to the aggregation method of the first function and the challenge to produce the attestation related to the application, - applying a second function to the attestation by the verification server, said second function undoing the effect of the challenge thus producing an application signature independent of the challenge, - verifying the execution integrity of the application by comparing the produced application signature with a reference signature. - sending to the target device a message comprising a challenge and a first function, said first function defining an aggregation method, said challenge defining an aggregation instruction, - receiving an attestation from the target device, this attestation being generated by the target device by determining for each block, the corresponding digest for said block, aggregating the digests of the blocks according to the aggregation method of the first function and the challenge to produce the attestation related to the application, - applying a second function to the attestation by the verification server, said second function undoing the effect of the challenge thus producing an application signature independent of the challenge, - verifying the execution integrity of the application by comparing the produced application signature with a reference signature.
A detector for detecting analytes in gas-phase, comprising: a first sorbent of a set of sorbents, wherein the first sorbent comprises and/or is a microporous and/or mesoporous dielectric or semiconducting material, a zeolite, activated carbon and/or a metal organic framework, MOF, for sorbing therein and/or thereon a first analyte of a set of analytes included in a first gas of a set of gases exposed thereto, at a zeroth temperature, pressure ( T 0, P 0) of a set of temperatures, pressures (T,P), wherein the first gas is ambient air; a cooler configured to cool the first sorbent to the zeroth temperature ( T 0); a controller configured to change the zeroth temperature, pressure ( T 0, P 0) to a first temperature, pressure ( T 1, P 1) of the set of temperatures, pressures (T,P) according to a first equation of a set of equations, to desorb at least some of the first analyte; and a sensor configured to sense at least some of the first analyte and to output a first response of a set of responses corresponding to the sensed first analyte, wherein the sensor comprises and/or is a broadband analyte detector; wherein the detector is configured to obtain a first baseline response of a set of baseline responses at the zeroth temperature, pressure ( T 0, P 0) and wherein the controller is configured to modify the first response based, at least in part, on the obtained first baseline response; and wherein the first response comprises and/or is a first characteristic response of a set of characteristic responses of the first analyte. a first sorbent of a set of sorbents, wherein the first sorbent comprises and/or is a microporous and/or mesoporous dielectric or semiconducting material, a zeolite, activated carbon and/or a metal organic framework, MOF, for sorbing therein and/or thereon a first analyte of a set of analytes included in a first gas of a set of gases exposed thereto, at a zeroth temperature, pressure ( T 0, P 0) of a set of temperatures, pressures (T,P), wherein the first gas is ambient air; a cooler configured to cool the first sorbent to the zeroth temperature ( T 0); a controller configured to change the zeroth temperature, pressure ( T 0, P 0) to a first temperature, pressure ( T 1, P 1) of the set of temperatures, pressures (T,P) according to a first equation of a set of equations, to desorb at least some of the first analyte; and a sensor configured to sense at least some of the first analyte and to output a first response of a set of responses corresponding to the sensed first analyte, wherein the sensor comprises and/or is a broadband analyte detector; wherein the detector is configured to obtain a first baseline response of a set of baseline responses at the zeroth temperature, pressure ( T 0, P 0) and wherein the controller is configured to modify the first response based, at least in part, on the obtained first baseline response; and wherein the first response comprises and/or is a first characteristic response of a set of characteristic responses of the first analyte.
An energy conversion assembly (50, 100, 200, 300, 400, 500, 560) for use in an oven for heating a food product, the energy conversion assembly comprising: - a base matrix formed substantially to have a plate shape; and - ferromagnetic particulate material dispersed in the base matrix, the ferromagnetic particulate material absorbing energy applied to the base matrix to transform the energy into thermal energy, wherein a concentration of the ferromagnetic particulate material is changed in different locations to define at least a first heat zone (110, 210, 310, 410, 510, 562) having a first concentration of the ferromagnetic particulate material therein, and a second heat zone (120, 130, 220, 230, 240, 250, 320, 330, 340, 350, 420, 430, 520, 530, 540, 550, 564) having a second concentration of the ferromagnetic particulate material therein, the first and second concentrations being different from each other, characterized in that the energy conversion assembly (50, 100, 200, 300, 400, 500, 560) is configured to use multiple frequencies, and to absorb RF energy corresponding to a first frequency, wherein the energy conversion assembly is configured so that RF energy corresponding to a second frequency is not absorbed but is directly applied to the food product to heat the food product, and wherein the second frequency is different than the first frequency. - a base matrix formed substantially to have a plate shape; and - ferromagnetic particulate material dispersed in the base matrix, the ferromagnetic particulate material absorbing energy applied to the base matrix to transform the energy into thermal energy,
A method of making a medical device comprising: impregnating a first portion of the medical device with a first antimicrobial agent; impregnating a second portion of the medical device with a second antimicrobial agent, the second portion being distinct from the first portion; and treating one or both of the first and second portions so that the medical device has a portion that has both the first and second antimicrobial agents. impregnating a first portion of the medical device with a first antimicrobial agent; impregnating a second portion of the medical device with a second antimicrobial agent, the second portion being distinct from the first portion; and treating one or both of the first and second portions so that the medical device has a portion that has both the first and second antimicrobial agents.
A switch device comprising: a housing including a receiving portion having an opening at the top of the receiving portion; a switch body received in the receiving portion; and a sealing member sandwiched between the bottom of the receiving portion and the bottom of the switch body, wherein, in the receiving portion, a terminal (122A, 122B) located on the bottom of the switch body and a terminal (113A, 113B) exposed in a hole (114, 115) of the bottom of the receiving portion are electrically and physically connected to each other through a hole of the sealing member, wherein the bottom of the receiving portion has a recess having a shape substantially identical to the outer shape of the sealing member in plan view, wherein the sealing member is placed in the recess, and wherein the sealing member has a surface facing the bottom of the switch body and a surface facing the bottom of the receiving portion and includes a circular protrusion on at least one of the surfaces such that the protrusion surrounds the hole of the sealing member and the hole of the bottom of the receiving portion, characterized in that the bottom of the receiving portion includes a seat located around the recess and the seat has a surface located at a higher level than the recess, the seat has a height smaller than the thickness of the sealing member, and the protrusion of the sealing member protrudes higher than the surfaces of the seats in the receiving portion. a housing including a receiving portion having an opening at the top of the receiving portion; a switch body received in the receiving portion; and a sealing member sandwiched between the bottom of the receiving portion and the bottom of the switch body, wherein, in the receiving portion, a terminal (122A, 122B) located on the bottom of the switch body and a terminal (113A, 113B) exposed in a hole (114, 115) of the bottom of the receiving portion are electrically and physically connected to each other through a hole of the sealing member, wherein the bottom of the receiving portion has a recess having a shape substantially identical to the outer shape of the sealing member in plan view, wherein the sealing member is placed in the recess, and wherein the sealing member has a surface facing the bottom of the switch body and a surface facing the bottom of the receiving portion and includes a circular protrusion on at least one of the surfaces such that the protrusion surrounds the hole of the sealing member and the hole of the bottom of the receiving portion, characterized in that the bottom of the receiving portion includes a seat located around the recess and the seat has a surface located at a higher level than the recess, the seat has a height smaller than the thickness of the sealing member, and the protrusion of the sealing member protrudes higher than the surfaces of the seats in the receiving portion.
An electronic device configured for wirelessly transmitting signals to a vehicle, comprising: a housing; a first antenna radiator configured to transmit a signal having a target frequency to the vehicle and exposed to an outside of the housing; a second antenna radiator spaced apart from the first antenna radiator, configured to transmit the signal having the target frequency to the vehicle, and exposed to the outside of the housing; a conductive line disposed in an interior of the housing and electrically connecting the first antenna radiator and the second antenna radiator; and a feeding part configured to supply power to one point of the conductive line, wherein a first electrical length formed by the feeding part, the one point of the conductive line, and the first antenna radiator is different from a second electrical length formed by the feeding part, the one point of the conductive line, and the second antenna radiator, wherein the electronic device is a key for using the vehicle. a housing; a first antenna radiator configured to transmit a signal having a target frequency to the vehicle and exposed to an outside of the housing; a second antenna radiator spaced apart from the first antenna radiator, configured to transmit the signal having the target frequency to the vehicle, and exposed to the outside of the housing; a conductive line disposed in an interior of the housing and electrically connecting the first antenna radiator and the second antenna radiator; and a feeding part configured to supply power to one point of the conductive line, wherein a first electrical length formed by the feeding part, the one point of the conductive line, and the first antenna radiator is different from a second electrical length formed by the feeding part, the one point of the conductive line, and the second antenna radiator, wherein the electronic device is a key for using the vehicle.