mhurhangee/patent-ind-claim-en huggingface dataset:
A gasket for use with a connector assembly apt to allow the sealed passage of a fluid through a wall (P), which gasket has a substantially tubular structure, in such a way as to be traversed from side to side by a tubular element (5; 5000; 5001) of the connector assembly, and comprises a deformable region defined by a first wall and a second wall , the overall configuration of the gasket being such that it can assume: - an installation configuration, in which said gasket can be introduced into a connector seat (D) formed in the wall (P), crossing it from side to side; and - a sealing configuration, in which said gasket is installed in the wall (P) and deformed at said deformable region (911; 311), in order to abut on an inside mouthpiece of the connector seat (D), said gasket (99; 300; 80; 800) comprising an annular centering portion apt to allow the centering of the gasket with respect to the tubular element (5; 5000; 5001), which centering portion provides for an increase of thickness of the gasket , and further comprising a terminal portion shaped as an abutment flap (914; 314) apt to abut on an external mouthpiece of the connector seat (D), wherein said second wall has an internal face and an external face with a mutually inclined development, said internal face presenting a first inclination (α) greater than a second inclination (β) of said external face with respect to a longitudinal axis (A) of said gasket , in such a manner that the thickness of said second wall increases towards said abutment flap and the overall configuration of said gasket being such that said first wall is configured to fold over said second wall in order to realize said sealing configuration. - an installation configuration, in which said gasket can be introduced into a connector seat (D) formed in the wall (P), crossing it from side to side; and - a sealing configuration, in which said gasket is installed in the wall (P) and deformed at said deformable region (911; 311), in order to abut on an inside mouthpiece of the connector seat (D),
A method of a network device of enabling communication protocol translation for encrypted data traffic between a first device and a second device , comprising: receiving (S101), from the first device , data intended for the second device ; triggering creation (S103) of a trusted execution environment , TEE; requesting (S104) attestation of the created TEE from a trusted central device having access to a certificate authority , CA, performing the attestation; receiving (S106), over a secure communication channel established with the trusted central device upon successful attestation (S105), protocol translation instructions and cryptographic credentials required for securely communicating with the first device and the second device ; decrypting (S111a), in the TEE , any received (S109) encrypted data from the first device using the received cryptographic credentials, translating (S111b) the decrypted data from a first protocol format utilized by the first device into a second protocol format utilized by the second device in the TEE based on the received translation instructions, and encrypting (S111c) the translated data in the TEE using the received cryptographic credentials, the credentials being configured to allow the second device to decrypt the encrypted translated data; and sending (S113) the encrypted translated data to the second device . receiving (S101), from the first device , data intended for the second device ; triggering creation (S103) of a trusted execution environment , TEE; requesting (S104) attestation of the created TEE from a trusted central device having access to a certificate authority , CA, performing the attestation; receiving (S106), over a secure communication channel established with the trusted central device upon successful attestation (S105), protocol translation instructions and cryptographic credentials required for securely communicating with the first device and the second device ; decrypting (S111a), in the TEE , any received (S109) encrypted data from the first device using the received cryptographic credentials, translating (S111b) the decrypted data from a first protocol format utilized by the first device into a second protocol format utilized by the second device in the TEE based on the received translation instructions, and encrypting (S111c) the translated data in the TEE using the received cryptographic credentials, the credentials being configured to allow the second device to decrypt the encrypted translated data; and sending (S113) the encrypted translated data to the second device .
An arrangement for condition monitoring of a hoisting rope , of a hoisting apparatus, which hoisting rope , comprises a non-conductive coating , and a plurality of adjacent conductive load bearing members (3-6) for bearing the load exerted on the hoisting rope , in longitudinal direction thereof embedded in the coating and extending parallel to each other and to the longitudinal direction of the hoisting rope , , the coating forming the surface of the hoisting rope , and extending between adjacent load bearing members (3-6) thereby isolating them from each other, which arrangement comprises a control system , said control system comprising an analyzer unit for generating and inserting propagating electromagnetic wave signals to an at least one parallel conductor transmission line (14-15) formed by said conductive load bearing members (3-6) and for detecting and analyzing reflected electromagnetic wave signals from said an at least one parallel conductor transmission line (14-15) formed by said conductive load bearing members (3-6), wherein said conductive load bearing members (3-6) are made of composite material comprising electrically conducting reinforcing fibers (F) in polymer matrix (m), said reinforcing fibers (F) preferably being carbon fibers, characterized in that , upon detecting of a reflected electromagnetic wave signal having defect indicating peaks (26-30) the analyzer unit provides one or more parameters for the determination that the condition of the hoisting rope is has a fault and for the determination of the types of the defects and condition of the hoisting rope .
An accumulator comprising: a pressure vessel ; a partition portion which comparts an internal space of the pressure vessel into a gas chamber in which gaseous matter is sealed and a liquid chamber to which liquid is introduced; a bellows which is connected to the partition portion ; the partition portion having a bellows connection portion which is connected to the bellows , a seal which is arranged in a liquid chamber side of the bellows connection portion , and a seal retention portion which is fixed to the bellows connection portion and retains the seal ; and the seal retention portion being structured by integrally forming a fixed portion which is fixed to the bellows connection portion , and a retention portion which retains the seal , wherein the seal retention portion is constructed by an elastically deformable leaf spring, characterized in that the seal retention portion is provided with a plurality of fixed portions which are formed radially from a center of the seal retention portion , and are fixed to the bellows connection portion , and retention portions which are formed between two adjacent fixed portions and retain the seal . a pressure vessel ; a partition portion which comparts an internal space of the pressure vessel into a gas chamber in which gaseous matter is sealed and a liquid chamber to which liquid is introduced; a bellows which is connected to the partition portion ; the partition portion having a bellows connection portion which is connected to the bellows , a seal which is arranged in a liquid chamber side of the bellows connection portion , and a seal retention portion which is fixed to the bellows connection portion and retains the seal ; and the seal retention portion being structured by integrally forming a fixed portion which is fixed to the bellows connection portion , and a retention portion which retains the seal , wherein the seal retention portion is constructed by an elastically deformable leaf spring, characterized in that the seal retention portion is provided with a plurality of fixed portions which are formed radially from a center of the seal retention portion , and are fixed to the bellows connection portion , and retention portions which are formed between two adjacent fixed portions and retain the seal .
An industrial truck comprising a drive part and a load part, wherein the drive part comprises a driver's cab with a driver's seat and a battery with a unified battery body , the shape of which is formed of a first and a second base body , wherein the base bodies each have a shape with a height and the base bodies arranged one next to the other differ in terms of their height, wherein the battery is arranged in the drive part such that the driver's seat is above the higher base body and the low base body provides leg room for a driver sitting on the driver's seat, wherein two weights are provided, the task of which is to put the center of gravity of the battery in the center axis, relative to the width of the battery.
A data transmission method, comprising: determining , by a first device, first information, wherein the first information is used to indicate a quantity of code blocks CBs to be sent over an air interface; generating, by the first device, the CBs after performing coding by using a fountain code on a target transport block TB, and sending a specified quantity of CBs to a second device based on the first information; starting , by the first device, a timer; and the method being characterized in that : before the timer times out, if the first device receives a second information sent by the second device, increasing , based on the second information, the quantity of CBs to be sent over the air interface; or when the timer times out, if the first device does not receive the second information sent by the second device, decreasing , by the first device, the quantity of CBs to be sent over the air interface. determining , by a first device, first information, wherein the first information is used to indicate a quantity of code blocks CBs to be sent over an air interface; generating, by the first device, the CBs after performing coding by using a fountain code on a target transport block TB, and sending a specified quantity of CBs to a second device based on the first information; starting , by the first device, a timer; and the method being characterized in that : before the timer times out, if the first device receives a second information sent by the second device, increasing , based on the second information, the quantity of CBs to be sent over the air interface; or when the timer times out, if the first device does not receive the second information sent by the second device, decreasing , by the first device, the quantity of CBs to be sent over the air interface. before the timer times out, if the first device receives a second information sent by the second device, increasing , based on the second information, the quantity of CBs to be sent over the air interface; or when the timer times out, if the first device does not receive the second information sent by the second device, decreasing , by the first device, the quantity of CBs to be sent over the air interface.
A method to control interference in a relay node, comprising: (Si); simultaneously receiving at least one symbol (W i ) from each of a number of source nodes adjusting channel coefficients; and relaying the at least one symbol (W i ) to each of a number of destination nodes (d i ) with adjusted channel coefficients, wherein the simultaneously receiving and the relaying are performed during symbol transmission processes between the source nodes (S i ) and the destination nodes (d i ), characterized by generating alternating topologies different for each of a plurality of symbol transmission processes; relaying the at least one symbol (W i ) through channels between the source nodes (S i ) and the destination nodes (d i ) using the alternating topologies; removing an interference channel from among the channels between the source nodes (S i ) and the destination nodes (d i ) by adjusting the channel coefficients using the alternating topologies; and relaying the at least one symbol (W i ), using the channels between the source nodes (S i ) and the destination nodes (d i ) from which the interference channel is removed. (Si); simultaneously receiving at least one symbol (W i ) from each of a number of source nodes adjusting channel coefficients; and relaying the at least one symbol (W i ) to each of a number of destination nodes (d i ) with adjusted channel coefficients, wherein the simultaneously receiving and the relaying are performed during symbol transmission processes between the source nodes (S i ) and the destination nodes (d i ), characterized by generating alternating topologies different for each of a plurality of symbol transmission processes; relaying the at least one symbol (W i ) through channels between the source nodes (S i ) and the destination nodes (d i ) using the alternating topologies; removing an interference channel from among the channels between the source nodes (S i ) and the destination nodes (d i ) by adjusting the channel coefficients using the alternating topologies; and relaying the at least one symbol (W i ), using the channels between the source nodes (S i ) and the destination nodes (d i ) from which the interference channel is removed.
A balance for air resistance testing, wherein, it comprises: 2N dual-hole beam sensors and an upper plate, wherein N is a positive integer; the 2N dual-hole beam sensors are arranged beneath the upper plate and fixed to the upper plate; each said dual-hole beam sensor comprises a beam, an upper hole and a lower hole, wherein the upper hole and the lower hole are arranged along the longitudinal direction of the beam, the upper hole is arranged at the upper part of the beam, and the lower hole is arranged at the lower part of the beam, wherein the dual-hole beam sensor further comprises a first strain gauge (R 1 ), a second strain gauge (R 2 ), a third strain gauge (R 3 ) and a fourth strain gauge (R 4 ); the first strain gauge (R 1 ) and the third strain gauge (R 3 ) are arranged on the outer side of the lower part of the beam, and the first strain gauge (R 1 ) and the third strain gauge (R 3 ) are arranged symmetrically with respect to the lower hole; the second strain gauge (R 2 ) and the fourth strain gauge (R 4 ) are arranged on the outer side of the upper part of the beam, and the second strain gauge (R 2 ) and the fourth gauge (R 4 ) are arranged symmetrically with respect to the upper hole, such that reading strain of the dual-hole beam sensor is only generated by the force in the flow direction, wherein said upper and lower are oriented relative to the direction of the gravitational force, characterized in that the upper hole and the lower hole are both circular holes. sensors and an upper plate, wherein N is a positive integer; the 2N dual-hole beam sensors are arranged beneath the upper plate and fixed to the upper plate; each said dual-hole beam sensor comprises a beam, an upper hole and a lower hole, wherein the upper hole and the lower hole are arranged along the longitudinal direction of the beam, the upper hole is arranged at the upper part of the beam, and the lower hole is arranged at the lower part of the beam, wherein the dual-hole beam sensor further comprises a first strain gauge (R 1 ), a second strain gauge (R 2 ), a third strain gauge (R 3 ) and a fourth strain gauge (R 4 ); the first strain gauge (R 1 ) and the third strain gauge (R 3 ) are arranged on the outer side of the lower part of the beam, and the first strain gauge (R 1 ) and the third strain gauge (R 3 ) are arranged symmetrically with respect to the lower hole; the second strain gauge (R 2 ) and the fourth strain gauge (R 4 ) are arranged on the outer side of the upper part of the beam, and the second strain gauge (R 2 ) and the fourth gauge (R 4 ) are arranged symmetrically with respect to the upper hole, such that reading strain of the dual-hole beam sensor is only generated by the force in the flow direction, wherein said upper and lower are oriented relative to the direction of the gravitational force, characterized in that the upper hole and the lower hole are both circular holes.
A device for coupling a lamp to a foldable music stand comprising an ornament, said device comprising a clamping member to be clamped to a top side of the music stand and further being embodied for holding a lighting element , wherein the device comprises a recess for receiving therein a part of the music stand and wherein the clamping member is embodied for clampingly coupling in the recess said part of the music stand; wherein the device comprises near a first side of the recess a first abutment surface and at an opposite side comprises a displaceable clamping element in a parallel second abutment surface, characterized in that the device further comprises a through opening for receiving therein at least part of an ornament protruding at a top side of the music stand, wherein the device is embodied for holding at least part of the ornament of the music stand in the through opening and for clampingly holding a part of the music stand between said both abutment surfaces, and wherein the recess comprises a supply side for introducing the music stand into the recess and further comprises a top surface that is directed away from the supply side and wherein the through opening is provided in the top surface .
A triboelectric generator comprising: a single electrode ; a first triboelectric material layer facing the electrode and which is separated from the electrode; and a first self-assembled monolayer directly on one of a surface of the electrode and a surface of the first triboelectric material layer between the electrode and the first triboelectric material layer. a single electrode ; a first triboelectric material layer facing the electrode and which is separated from the electrode; and a first self-assembled monolayer directly on one of a surface of the electrode and a surface of the first triboelectric material layer between the electrode and the first triboelectric material layer.
A cooler comprising • a body , • a door enabling access into the body , • a handle provided on the door , • at least one sensor provided on the handle , • a gasket of nodal structure, provided between the door and the body , almost completely airtight sealing the body from the outer environment, • a pusher mechanism provided on the body , • a control unit enabling triggering of the pusher mechanism upon exciting of the sensor by the user, and • a pin provided in the pusher mechanism , departing out of the pusher mechanism upon coming of the door opening signal from the control unit , a seat arranged on the door so as to correspond the pin , • a catch placed in the seat so as to move within, and pushed by the pin towards the seat upon coming of the door opening signal from the control unit , • the catch having a tie piece entering between the nodes of the gasket , • enabling the gasket to separate from the body by transferring the force coming from the pin to the tie piece characterized in that the catch comprises a spring provided between i a surface of the catch and the seat . • a body , • a door enabling access into the body , • a handle provided on the door , • at least one sensor provided on the handle , • a gasket of nodal structure, provided between the door and the body , almost completely airtight sealing the body from the outer environment, • a pusher mechanism provided on the body , • a control unit enabling triggering of the pusher mechanism upon exciting of the sensor by the user, and • a pin provided in the pusher mechanism , departing out of the pusher mechanism upon coming of the door opening signal from the control unit , a seat arranged on the door so as to correspond the pin , • a catch placed in the seat so as to move within, and pushed by the pin towards the seat upon coming of the door opening signal from the control unit , • the catch having a tie piece entering between the nodes of the gasket , • enabling the gasket to separate from the body by transferring the force coming from the pin to the tie piece characterized in that the catch comprises a spring provided between i a surface of the catch and the seat .
A computer-implemented method for graphics processing, comprising: determining a motion estimation priority for one or more regions in a frame, wherein each of the one or more regions includes at least one group of pixels, wherein the motion estimation priority for a region is based on the location of the region relative to the center of the frame or the location of the region relative to a focal point of a user's eye viewing the frame; selecting parameters for a motion estimation procedure for each group of pixels based on the motion estimation priority of the region including the group of pixels, the selected parameters adjusting the quality of motion estimation between the one or more regions; performing , for each of the at least one group of pixels, the motion estimation procedure using the respective selected parameters to generate a motion vector; extrapolating a new frame from the frame based on the motion vectors for each group of pixels; and using the extrapolated frame instead of rendering a respective frame to lower the rendering frame rate. determining a motion estimation priority for one or more regions in a frame, wherein each of the one or more regions includes at least one group of pixels, wherein the motion estimation priority for a region is based on the location of the region relative to the center of the frame or the location of the region relative to a focal point of a user's eye viewing the frame; selecting parameters for a motion estimation procedure for each group of pixels based on the motion estimation priority of the region including the group of pixels, the selected parameters adjusting the quality of motion estimation between the one or more regions; performing , for each of the at least one group of pixels, the motion estimation procedure using the respective selected parameters to generate a motion vector; extrapolating a new frame from the frame based on the motion vectors for each group of pixels; and using the extrapolated frame instead of rendering a respective frame to lower the rendering frame rate.
A fuel cell electrode assembly comprising: a proton exchange membrane ; a gas diffusion layer (26; 27); and a catalyst (22; 23) arranged between the proton exchange membrane and the gas diffusion layer (26; 27), characterised in that the catalyst (22; 23) includes a support material (42; 44) having first and second catalyst particles (46; 48) intermixed with one another and respectively of a first and second average particle size, the first average particle size larger than the second average particle size, the first and second average particle sizes respectively being 6 nm and 3 nm. a proton exchange membrane ; a gas diffusion layer (26; 27); and a catalyst (22; 23) arranged between the proton exchange membrane and the gas diffusion layer (26; 27), characterised in that the catalyst (22; 23) includes a support material (42; 44) having first and second catalyst particles (46; 48) intermixed with one another and respectively of a first and second average particle size, the first average particle size larger than the second average particle size, the first and second average particle sizes respectively being 6 nm and 3 nm.