mhurhangee/ep-ind-claims huggingface dataset:
Method for operating an operating device of a motor vehicle (K, K'), comprising a plurality of radiation sources (4l, 4r; 10) for emitting electromagnetic radiation in and/or against a forward direction of travel and comprising at least one camera (3; 3l, 3r, 3h) for detecting objects in the surroundings of the motor vehicle (K, K') which are illuminated by the radiation from the radiation sources (4l, 4r; 10), the recording of images by the camera (3; 3l, 3r, 3h) for detecting objects being coordinated with the emission of electromagnetic radiation by the radiation sources (4l, 4r; 10) in such a way that at least during the recording of an image by the at least one camera (3; 3l, 3r, 3h) only some of the radiation sources (4l, 4r; 10) remain switched on, the radiation sources being part of a left and a right headlight (1l, 1r) of the motor vehicle (K, K') and emitting electromagnetic radiation in the visible wave spectrum, the left and the right headlight (1l, 1r) each having at least one such radiation source and the radiation sources being controlled with a time offset from one another such that when the radiation source of the left headlight is switched on, the radiation source of the right headlight is switched off and vice versa, characterized in that at least two cameras (3l, 3r) are present which are synchronized with the switch-on times of the headlights (1l, 1r) such that one of the cameras (3l, 3r) is switched on when the radiation source of the left headlight is switched on and is then switched off when the radiation source of the right headlight is switched on and the other of the cameras (3l, 3r) is switched on and vice versa.
A method comprising: receiving, by a first application installed on a communication device, user input selecting an account to provision to a second application installed on the communication device; in response to receiving the selection of the account to provision, invoking, by the first application, the second application and sending a session identifier to the second application; sending, by the second application, a user ID associated with the second application, a device ID of the communication device, and the session ID to the first application; generating, by the first application, encrypted provisioning request data including an account ID of the account to provision, the user ID, and the device ID using a key shared with a remote server computer; sending, by the first application, the encrypted provisioning request data to the second application; sending, by the second application, the encrypted provisioning request data to the remote server computer; receiving, by the second application, access data for accessing the account, the access data provided by the remote server computer based on validation of the encrypted provisioning request data through decryption using the shared key; and provisioning, by the second application, the access data onto the second application, wherein the access data provided by the remote server computer is bound to the communication device based on the device ID and cannot be used with a different communication device. receiving, by a first application installed on a communication device, user input selecting an account to provision to a second application installed on the communication device; in response to receiving the selection of the account to provision, invoking, by the first application, the second application and sending a session identifier to the second application; sending, by the second application, a user ID associated with the second application, a device ID of the communication device, and the session ID to the first application; generating, by the first application, encrypted provisioning request data including an account ID of the account to provision, the user ID, and the device ID using a key shared with a remote server computer; sending, by the first application, the encrypted provisioning request data to the second application; sending, by the second application, the encrypted provisioning request data to the remote server computer; receiving, by the second application, access data for accessing the account, the access data provided by the remote server computer based on validation of the encrypted provisioning request data through decryption using the shared key; and provisioning, by the second application, the access data onto the second application, wherein the access data provided by the remote server computer is bound to the communication device based on the device ID and cannot be used with a different communication device.
A system for generating a test case for a software application, the system comprising: an electronic processor, the electronic processor configured to receive user actions recorded as a user interacts with a first software application; generate a probabilistic graphical model using recorded user actions; divide the probabilistic graphical model into clusters of similar sequences of user actions, wherein clustering of the similar sequences of user actions is based on the similarity of graphical user interface elements involved in the sequences of user actions; determine a test case from a cluster of similar sequences of user actions using a machine learning system; and execute the test case. an electronic processor, the electronic processor configured to receive user actions recorded as a user interacts with a first software application; generate a probabilistic graphical model using recorded user actions; divide the probabilistic graphical model into clusters of similar sequences of user actions, wherein clustering of the similar sequences of user actions is based on the similarity of graphical user interface elements involved in the sequences of user actions; determine a test case from a cluster of similar sequences of user actions using a machine learning system; and
A prosthetic heart valve, comprising: an annular frame comprising an inflow end and an outflow end and being radially compressible and expandable between a radially compressed configuration and a radially expanded configuration; a valvular structure positioned within the frame and secured thereto; and an outer sealing member mounted outside of the frame and adapted to seal against surrounding tissue when the prosthetic heart valve is implanted within a native heart valve annulus of a patient, wherein when the prosthetic valve is in its radially expanded state, the outer sealing member fits in a tight-fitting manner against the outer surface of the frame; wherein the outer sealing member is configured to stretch axially when the frame is radially compressed to the radially compressed state; wherein the outer sealing member (18, 500) comprises a woven or knitted fabric, wherein the fabric is resiliently stretchable between a first, relaxed configuration, and a second, axially tensioned configuration, wherein the relaxed configuration corresponds to the radially expanded configuration of the prosthetic valve, and the axially tensioned configuration corresponds to the radially collapsed delivery configuration of the prosthetic valve. an annular frame comprising an inflow end and an outflow end and being radially compressible and expandable between a radially compressed configuration and a radially expanded configuration; a valvular structure positioned within the frame and secured thereto; and an outer sealing member mounted outside of the frame and adapted to seal against surrounding tissue when the prosthetic heart valve is implanted within a native heart valve annulus of a patient, wherein when the prosthetic valve is in its radially expanded state, the outer sealing member fits in a tight-fitting manner against the outer surface of the frame; wherein the outer sealing member is configured to stretch axially when the frame is radially compressed to the radially compressed state; wherein the outer sealing member (18, 500) comprises a woven or knitted fabric, wherein the fabric is resiliently stretchable between a first, relaxed configuration, and a second, axially tensioned configuration, wherein the relaxed configuration corresponds to the radially expanded configuration of the prosthetic valve, and the axially tensioned configuration corresponds to the radially collapsed delivery configuration of the prosthetic valve.
A torque fluctuation absorbing apparatus absorbing a torsional vibration of a power transmission system in response to a torque fluctuation of an engine, comprising: a plate member (1, 101a, 101b, 101c, 201, 301a, 301d, 301g, 301j) configured to be provided at the power transmission system and including a rolling guide surface (121, 215, 315a, 315b); a plurality of mass members (2, 202, 302k), each rolling on the rolling guide surface (121, 215, 315b) of the plate member (1, 101a, 101b, 101c, 201, 301a, 301d, 301g, 301j); the rolling guide surface (121, 215, 315b) including a plurality of first rolling guide surfaces (121a, 215a, 315b) each formed in an arc shape and provided radially inward relative to an outer circumferential portion of the plate member (1, 101a, 101b, 101c, 201, 301a, 301d, 301g, 301j) to be arranged in a circumferential direction and a second rolling guide surface (121b, 121d, 215b, 215c, 215d, 215e, 215f, 315a) allowing each mass member (2, 202, 302k) to roll on a locus which is different from a locus on the first rolling guide surface (121a, 215a, 315b) formed in the arc shape; and an annular connection member (3, 103a, 103c, 103e, 103g) made of resin and connecting said plurality of mass members in a manner that the mass members retain a predetermined distance from one another, wherein loci of each mass member (2, 202, 302k) are seamlessly switched from the locus in which the mass member (2, 202, 302k) rolls on the first rolling guide surface (121a, 215a, 315b) to the locus in which the mass member (2, 202, 302k) rolls on the second rolling guide surface (121b, 121d, 215b, 215c, 215d, 215e, 215f, 315a). a plate member (1, 101a, 101b, 101c, 201, 301a, 301d, 301g, 301j) configured to be provided at the power transmission system and including a rolling guide surface (121, 215, 315a, 315b); a plurality of mass members (2, 202, 302k), each rolling on the rolling guide surface (121, 215, 315b) of the plate member (1, 101a, 101b, 101c, 201, 301a, 301d, 301g, 301j); the rolling guide surface (121, 215, 315b) including a plurality of first rolling guide surfaces (121a, 215a, 315b) each formed in an arc shape and provided radially inward relative to an outer circumferential portion of the plate member (1, 101a, 101b, 101c, 201, 301a, 301d, 301g, 301j) to be arranged in a circumferential direction and a second rolling guide surface (121b, 121d, 215b, 215c, 215d, 215e, 215f, 315a) allowing each mass member (2, 202, 302k) to roll on a locus which is different from a locus on the first rolling guide surface (121a, 215a, 315b) formed in the arc shape; and an annular connection member (3, 103a, 103c, 103e, 103g) made of resin and connecting said plurality of mass members in a manner that the mass members retain a predetermined distance from one another, wherein loci of each mass member (2, 202, 302k) are seamlessly switched from the locus in which the mass member (2, 202, 302k) rolls on the first rolling guide surface (121a, 215a, 315b) to the locus in which the mass member (2, 202, 302k) rolls on the second rolling guide surface (121b, 121d, 215b, 215c, 215d, 215e, 215f, 315a).
A portable terminal having a main board and an antenna apparatus, the portable terminal comprising: a first antenna electrically connected to a feed line of the main board and connected to a ground surface of the main board; and a metal frame constructed as part of a case frame forming an exterior of the portable terminal, and divided into at least one first part and at least one second part, the second part being electrically separated from the first part; characterized in that the at least one first part is electrically connected to the first antenna via a connection means. a first antenna electrically connected to a feed line of the main board and connected to a ground surface of the main board; and a metal frame constructed as part of a case frame forming an exterior of the portable terminal, and divided into at least one first part and at least one second part, the second part being electrically separated from the first part; characterized in that the at least one first part is electrically connected to the first antenna via a connection means.
An air filter medium comprising a first porous PTFE membrane and a second porous PTFE membrane, wherein the air filter medium has a first main surface and a second main surface, the first porous PTFE membrane and the second porous PTFE membrane are arranged so that an air flow moving from the first main surface to the second main surface passes through the first porous PTFE membrane and subsequently through the second porous PTFE membrane, and a contact angle of the first porous PTFE membrane with water is in the range of 154° to 165°.
User equipment, UE, comprising: a wireless transceiver configured to communicate with a network node; and processing circuitry including at least one processing device and at least one memory device, wherein the processing circuitry is configured to: establish a data radio bearer, DRB, with the network node for wireless communication of user plane data over the DRB; determine whether to enable static integrity protection for the DRB for a duration of the DRB; when static integrity protection is determined, enable integrity protection for a duration of the DRB; and characterised in that: when static integrity protection is not determined, establish one or more trigger conditions for dynamic integrity protection of the DRB. a wireless transceiver configured to communicate with a network node; and processing circuitry including at least one processing device and at least one memory device, wherein the processing circuitry is configured to: establish a data radio bearer, DRB, with the network node for wireless communication of user plane data over the DRB; determine whether to enable static integrity protection for the DRB for a duration of the DRB; when static integrity protection is determined, enable integrity protection for a duration of the DRB; and characterised in that: when static integrity protection is not determined, establish one or more trigger conditions for dynamic integrity protection of the DRB. establish a data radio bearer, DRB, with the network node for wireless communication of user plane data over the DRB; determine whether to enable static integrity protection for the DRB for a duration of the DRB; when static integrity protection is determined, enable integrity protection for a duration of the DRB; and characterised in that: when static integrity protection is not determined, establish one or more trigger conditions for dynamic integrity protection of the DRB.
Polyamide composition comprising: a. A semi-crystalline polyamide; b. An impact modifier in an amount ranging from 1 wt% to 50 wt%; c. A branching agent in an amount ranging from 0.01 to 6.0 wt%; d. An inorganic stabilizer in an amount ranging from 0.01 wt% to 2.0 wt%; e. An organic stabilizer E1 comprising a primary antioxidant group in an amount ranging from 0.01 wt% to 2.0 wt% and an organic stabilizer E2 comprising a hindered amine group in an amount ranging from 0.01 wt% to 4.0 wt%; or an organic stabilizer E3 comprising a primary antioxidant group and a hindered amine group in an amount ranging from 0.02 to 6.0 wt%; or a combination of E1, E2 and E3 in a total amount of 0.02 to 6.0 wt%; wherein all wt% are based on the total amount of polyamide composition. a. A semi-crystalline polyamide; b. An impact modifier in an amount ranging from 1 wt% to 50 wt%; c. A branching agent in an amount ranging from 0.01 to 6.0 wt%; d. An inorganic stabilizer in an amount ranging from 0.01 wt% to 2.0 wt%; e. An organic stabilizer E1 comprising a primary antioxidant group in an amount ranging from 0.01 wt% to 2.0 wt% and an organic stabilizer E2 comprising a hindered amine group in an amount ranging from 0.01 wt% to 4.0 wt%; or an organic stabilizer E3 comprising a primary antioxidant group and a hindered amine group in an amount ranging from 0.02 to 6.0 wt%; or a combination of E1, E2 and E3 in a total amount of 0.02 to 6.0 wt%;
An electric heat conductor consisting of a braid manufactured from individual wires, wherein the individual wires have identical and/or different specific resistance values, wherein the individual wires are at least partially made from a copper alloy, characterized in that the braid consist of at least six individual wires wrapped around a support element, and the individual wires including the support element have the same diameter, wherein a copper-nickel alloy is used as copper alloy for at least one of the individual wires and the other individual wires are made from copper or a nickel-chromium alloy.
An electronic installation device for building system technology, with a mounting plate for surface mounting and a device main part for mounting on the mounting plate, wherein the mounting plate and the device main part can be connected to one another via an electronic interface, which has a connection board with a plurality of conductor tracks and a multipole plug strip for direct contacting of the connection board, the plug strip being set up to make electrical contact with the conductor tracks, wherein the connection board and its conductor tracks extend parallel to the mounting plate, contact terminals of the plug strip being accommodated in at least one connection board insertion channel of the plug strip and an insertion direction (x) of the connection board insertion channel extending parallel to the mounting plate, wherein the main part of the device has, on a side facing the mounting plate, a recess into which the connection board with electrical contacts of the conductor tracks extends and in which the plug strip is arranged in a mounting position of the electronic installation device, in which the appliance main part rests on the mounting plate and are displaceable relative to one another between a locking position, in which the appliance main part is fixed to the mounting plate, and a release position, in which the appliance main part can be lifted off the mounting plate from the mounting position.
A microfluidic device including a flowchannel in which liquid flows, wherein the flowchannel includes a main channel and a pair of branch channels provided across the main channel from each other to be connected to the main channel, the main channel includes a first zone, a second zone, and a coupling zone that connects the first zone and the second zone, the second zone is smaller than the first zone in a distance between a bottom surface and a ceiling surface thereof, the coupling zone is configured such that the distance between the bottom surface and the ceiling surface thereof gradually decreases towards the second zone from the first zone, a connection zone provided in the main channel and connected to each of the pair of branch channels overlaps with the coupling zone, and the pair of branch channels are connected to the main channel, at least in a zone in which the connection zone and the coupling zone overlap with each other, by a connection port of each branch channel, characterized in that a substrate of the microfluidic device includes a plurality of substrate members (10, 11) stacked therein, wherein the main channel and the pair of branch channels are formed between two of the substrate members (10, 11) adjacent to each other, a bottom surface of each branch channel is at a deeper position than a bottom surface of the main channel with respect to the front surface of a substrate of the microfluidic device, a step is formed between the bottom surface of each branch channel and the bottom surface of the main channel, a ceiling surface of each branch channel is at a shallower position than a ceiling surface of the main channel, and a step is formed between the ceiling surface of each branch channel and the ceiling surface of the main channel, and the boundary between the substrate members (10, 11) is exposed between the bottom surface and the ceiling surface of the main channel and between the bottom surface and the ceiling surface of the branch channels.
Use of a fusion polypeptide according to formula I TAG-X1-C1qA-X2-C1qB-X3-C1qC-X4 (formula I) wherein X1 denotes a first peptidic linker, X2 denotes a second peptidic linker, X3 denotes a third peptidic linker, X4 denotes a fourth peptidic linker, X1, X2, X3, X4 are independently of each other either present or absent, TAG is an amino acid sequence tag, TAG can be present or absent, C1qA is a fragment of SEQ ID NO: 01, C1qB is a fragment of SEQ ID NO: 03, C1qC is a fragment of SEQ ID NO: 05, and - denotes a peptide bond or of a multimeric complex comprising 2 to 6 fusion polypeptides of formula I as affinity chromatography ligand in an affinity chromatography. X1 denotes a first peptidic linker, X2 denotes a second peptidic linker, X3 denotes a third peptidic linker, X4 denotes a fourth peptidic linker, X1, X2, X3, X4 are independently of each other either present or absent, TAG is an amino acid sequence tag, TAG can be present or absent, C1qA is a fragment of SEQ ID NO: 01, C1qB is a fragment of SEQ ID NO: 03, C1qC is a fragment of SEQ ID NO: 05, and - denotes a peptide bond or of a multimeric complex comprising 2 to 6 fusion polypeptides of formula I as affinity chromatography ligand in an affinity chromatography.
A power management unit (300;400;500) comprising: a step-down power converter (302;402;502) configured to receive a first voltage (304;412;520) and output a second voltage (312;408;522), wherein the second voltage (312;408;522) is less than the first voltage (304;412;520); at least one step-up power converter(306;416;504); an inductive element (308;410;506) connected to the step-down power converter (302;402;502) and the at least one step-up power converter (306;416;504) and configured to store energy and selectively release the stored energy, wherein the inductive element (308;410;506) is time shared by both the step-down power converter and the at least one step-up power converter; and a finite state machine (310;414;538) configured to control the time sharing of the inductive element, characterized in that the at least one step-up power converter(306;416;504) is configured to receive the second voltage (312;408;522) and output a third voltage (314;426;528), wherein the third voltage is greater than the second voltage. a step-down power converter (302;402;502) configured to receive a first voltage (304;412;520) and output a second voltage (312;408;522), wherein the second voltage (312;408;522) is less than the first voltage (304;412;520); at least one step-up power converter(306;416;504); an inductive element (308;410;506) connected to the step-down power converter (302;402;502) and the at least one step-up power converter (306;416;504) and configured to store energy and selectively release the stored energy, wherein the inductive element (308;410;506) is time shared by both the step-down power converter and the at least one step-up power converter; and a finite state machine (310;414;538) configured to control the time sharing of the inductive element, characterized in that the at least one step-up power converter(306;416;504) is configured to receive the second voltage (312;408;522) and output a third voltage (314;426;528), wherein the third voltage is greater than the second voltage.