mhurhangee/ep-ind-claims huggingface dataset:
A system for determining the location of a toolpiece, wherein: the toolpiece is carried by a tool and the tool comprises an imaging device for capturing images of the environment around the tool; and the system comprises an image processor communicatively coupled to the imaging device for receiving images therefrom and configured to have access to a plurality of reference images representing an expected environment, the image processor being configured to compare an image captured by the imaging device with at least one reference image to identify a match therebetween, wherein the image processor is configured to have access to a reference location corresponding to each reference image, and the image processor is configured to determine the location of the toolpiece in dependence on the reference location for the at least one reference image matched to the image captured by the imaging device. the toolpiece is carried by a tool and the tool comprises an imaging device for capturing images of the environment around the tool; and the system comprises an image processor communicatively coupled to the imaging device for receiving images therefrom and configured to have access to a plurality of reference images representing an expected environment, the image processor being configured to compare an image captured by the imaging device with at least one reference image to identify a match therebetween, wherein the image processor is configured to have access to a reference location corresponding to each reference image, and the image processor is configured to determine the location of the toolpiece in dependence on the reference location for the at least one reference image matched to the image captured by the imaging device.
Control system for a switch (222; 224), comprising: - an amplifier (264; 266) designed to receive an input control signal (cmd*; cmd *), in order to amplify the input control signal (cmd*; cmd *) so as to obtain an output control signal (CMD*; CMD *) and to apply the output control signal (CMD*; CMD *) to the switch (222; 224) in order to either open or close the switch (222; 224), the amplifier (264; 266) having two, positive and negative, supply terminals intended to receive a supply voltage, characterized in that it moreover comprises: - an inhibiting device (310; 314) for the amplifier (264; 266) designed to lower the supply voltage on receiving what is referred to as a total inhibit control (INHIB_T) so that the output control signal (CMD*; CMD *) keeps the switch (222; 224) open irrespective of the input control signal (cmd*; cmd *). - an amplifier (264; 266) designed to receive an input control signal (cmd*; cmd *), in order to amplify the input control signal (cmd*; cmd *) so as to obtain an output control signal (CMD*; CMD *) and to apply the output control signal (CMD*; CMD *) to the switch (222; 224) in order to either open or close the switch (222; 224), the amplifier (264; 266) having two, positive and negative, supply terminals intended to receive a supply voltage, - an inhibiting device (310; 314) for the amplifier (264; 266) designed to lower the supply voltage on receiving what is referred to as a total inhibit control (INHIB_T) so that the output control signal (CMD*; CMD *) keeps the switch (222; 224) open irrespective of the input control signal (cmd*; cmd *).
Power supply battery support arrangement of an electrical machine onboard a hybrid motor vehicle including a bodyshell rear floor including a concave housing to receive a spare wheel, the arrangement comprising an elongate support element adapted to extend transversely to said bodyshell rear floor over said spare wheel receiving concave housing, said support element including a longitudinal crossmember, characterized in that two opposite retaining arms are disposed in vertical alignment with the longitudinal crossmember, the two retaining arms being adapted to project toward the interior of said concave housing and defining between them a zone to receive said battery inside said housing.
A train system comprising a plurality of train units (100, 200, 300, 400, 500, 600, 700, 800, 900) including a first train unit and a second train unit coupled together, whereby each first and second train unit (100, 200, 300, 400, 500, 600, 700, 800, 900) comprising: - a controller (102, 102a, 102b) configured to independently determine a location of the controller and a configuration of the train system and comprising a plurality of inputs (103, 104); - a plurality of train lines spanning each train unit and coupled with the controllers at the plurality of inputs and configured to transmit first and second communication signals between a front end and a rear end of the train system; and - a plurality of sets of relay devices (107, 108) connected in series along the plurality of train lines, and each set of relay devices corresponding to each input of the plurality of inputs, and configured to transmit the communication signals between the front end and the rear end of the train system, wherein the controller (102, 102a, 102b) determines the configuration of the train system, based on the controller (102, 102a, 102b) reading each of the first communication signal transmitted from the front end and the second communication signal transmitted from the rear end of the train system, through the plurality of train lines, and through a subset of relay devices of the plurality of sets of relay devices (107, 108), each relay device of the subset of relay devices being selectively energized based on a coupling status of sequential train units of the plurality of train units, the inputs of the plurality of inputs on which the first and second signals are read thereby corresponding to a position of the train unit within the train system. - a controller (102, 102a, 102b) configured to independently determine a location of the controller and a configuration of the train system and comprising a plurality of inputs (103, 104); - a plurality of train lines spanning each train unit and coupled with the controllers at the plurality of inputs and configured to transmit first and second communication signals between a front end and a rear end of the train system; and - a plurality of sets of relay devices (107, 108) connected in series along the plurality of train lines, and each set of relay devices corresponding to each input of the plurality of inputs, and configured to transmit the communication signals between the front end and the rear end of the train system,
A helmet cheek pad, wherein said cheek pad includes a pad member, one or more removable coupling elements of one or more respective removable coupling devices to removably connect the pad member to a remaining portion of the helmet and a gripping element including a gripping portion apt to be grasped by a user, wherein the gripping element is fixed to the pad member and/or to a frame fastened to the pad member, characterised in that the gripping portion and an area for fixing or anchoring the gripping element to the pad and/or the frame are arranged opposite or on opposite sides with respect to the removable coupling element of the removable coupling device, and that the removable coupling element of the removable coupling device is interposed between the gripping portion and the fixing area.
A computing system comprising: one or more processors; and one or more computer-readable media having thereon computer-executable instructions that are structured such that, when executed by the one or more processors, cause the computing system to perform the following: determine a relationship between a first decentralized identifier, DID, owner of a first DID and a second DID owner of a second DID, the first DID and the second DID being pairwise DIDs (511, 521); and based on the relationship, delegate a scope of permission owned by the first DID to the second DID, comprising: define the scope of permission; grant a public key of the second DID the defined scope of permission; generate a signature by a private key of the first DID, proving the delegation of the defined scope of permission to the public key of the second DID; and propagate a portion of data related to the delegation onto a distributed ledger (220, 860). one or more processors; and one or more computer-readable media having thereon computer-executable instructions that are structured such that, when executed by the one or more processors, cause the computing system to perform the following: determine a relationship between a first decentralized identifier, DID, owner of a first DID and a second DID owner of a second DID, the first DID and the second DID being pairwise DIDs (511, 521); and based on the relationship, delegate a scope of permission owned by the first DID to the second DID, comprising: define the scope of permission; grant a public key of the second DID the defined scope of permission; generate a signature by a private key of the first DID, proving the delegation of the defined scope of permission to the public key of the second DID; and propagate a portion of data related to the delegation onto a distributed ledger (220, 860). determine a relationship between a first decentralized identifier, DID, owner of a first DID and a second DID owner of a second DID, the first DID and the second DID being pairwise DIDs (511, 521); and based on the relationship, delegate a scope of permission owned by the first DID to the second DID, comprising: define the scope of permission; grant a public key of the second DID the defined scope of permission; generate a signature by a private key of the first DID, proving the delegation of the defined scope of permission to the public key of the second DID; and propagate a portion of data related to the delegation onto a distributed ledger (220, 860). define the scope of permission; grant a public key of the second DID the defined scope of permission; generate a signature by a private key of the first DID, proving the delegation of the defined scope of permission to the public key of the second DID; and propagate a portion of data related to the delegation onto a distributed ledger (220, 860).
A coagulation instrument, in particular for coagulation and/or fusion of biological tissue, having at least one jaw (26, 27) comprising an electrode comprising a tissue contact surface and at least one anchor section which comprises at least one anchor opening, characterized by an insulator unit comprising two plastic bodies (44, 45) between which the anchor section extends, wherein both plastic bodies (44, 45) are connected in form-fitting manner to the electrode and/or to each other. having at least one jaw (26, 27) comprising an electrode comprising a tissue contact surface and at least one anchor section which comprises at least one anchor opening, characterized by an insulator unit comprising two plastic bodies (44, 45) between which the anchor section extends, wherein both plastic bodies (44, 45) are connected in form-fitting manner to the electrode and/or to each other.
Electrical system comprising: - an electrical module comprising: - a conductive plate having an upper face, - a housing having a lower face which is positioned on the upper face of the conductive plate while leaving at least one part of the upper face exposed, - electrical components arranged in the housing, - an electromagnetic shielding comprising a body designed to cover at least part of the housing, - an electronic board for controlling the components of the housing, designed to cover the shielding so that the shielding protects the electronic board from electromagnetic radiation emitted by the electrical components of the housing during their operation, the electrical system being characterized in that the shielding further comprises at least one leg which is formed in one piece with the body of the shielding and extends downwards such that it comes into contact with a respective exposed part. - an electrical module comprising: - a conductive plate having an upper face, - a housing having a lower face which is positioned on the upper face of the conductive plate while leaving at least one part of the upper face exposed, - electrical components arranged in the housing, - a conductive plate having an upper face, - a housing having a lower face which is positioned on the upper face of the conductive plate while leaving at least one part of the upper face exposed, - electrical components arranged in the housing, - an electromagnetic shielding comprising a body designed to cover at least part of the housing, - an electronic board for controlling the components of the housing, designed to cover the shielding so that the shielding protects the electronic board from electromagnetic radiation emitted by the electrical components of the housing during their operation,
A dynamic configuration method, performed by a terminal device, the method comprising: receiving, by the terminal device, configuration information of at least two Modulation and Coding Scheme, MCS, tables, the configuration information being used for determining the at least two MCS tables; receiving, by the terminal device, Downlink Control Information, DCI from a network side, wherein the DCI is scrambled by a Radio Network Temporary Identity, RNTI; and determining, by the terminal device, a target MCS table from the at least two MCS tables based on a type of the RNTI used for scrambling the DCI and a correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs, wherein the multiple types of RNTIs are distinguished according to respective RNTI values; wherein the correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs is determined based on a protocol; and the determining, by the terminal device, the target MCS table from the at least two MCS tables based on the type of the RNTI used for scrambling the DCI and the correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs comprises: determining, by the terminal device, the target MCS table from the at least two MCS tables based on a service type corresponding to the type of the RNTI and the correspondence between MCS tables and multiple service types corresponding to the multiple types of RNTIs; wherein the multiple service types comprise an Ultra Reliable Low Latency Communication, URLLC, service and an Enhanced Mobile Broadband, eMBB, service. receiving, by the terminal device, configuration information of at least two Modulation and Coding Scheme, MCS, tables, the configuration information being used for determining the at least two MCS tables; receiving, by the terminal device, Downlink Control Information, DCI from a network side, wherein the DCI is scrambled by a Radio Network Temporary Identity, RNTI; and determining, by the terminal device, a target MCS table from the at least two MCS tables based on a type of the RNTI used for scrambling the DCI and a correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs, wherein the multiple types of RNTIs are distinguished according to respective RNTI values; wherein the correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs is determined based on a protocol; and the determining, by the terminal device, the target MCS table from the at least two MCS tables based on the type of the RNTI used for scrambling the DCI and the correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs comprises: determining, by the terminal device, the target MCS table from the at least two MCS tables based on a service type corresponding to the type of the RNTI and the correspondence between MCS tables and multiple service types corresponding to the multiple types of RNTIs; wherein the multiple service types comprise an Ultra Reliable Low Latency Communication, URLLC, service and an Enhanced Mobile Broadband, eMBB, service.
A cationic copolymer comprising the divalent monomer units: (a) (b) and (c) wherein: each Ar 1 independently represents phenylene; each L independently represents a direct bond or wherein each R 1 independently represents an alkyl group having 1 to 4 carbon atoms, and each R 2 independently represents an alkylene group having from 1 to 6 carbon atoms, and each Z - represents a non-interfering monovalent anion; each Ar 2 independently represents an optionally substituted divalent aryl ring, with the proviso that if L represents a direct bond, then Ar 2 represents an optionally substituted cationic divalent aryl ring accompanied by Z -; each R 3 independently represents H or an alkyl group having 1 to 6 carbon atoms; and each D independently represents a direct bond or Ar 2 wherein adjacent D and L are not both direct bonds, and wherein if L is a direct bond, then D is Ar 2. (a) (b) and (c) each Ar 1 independently represents phenylene; each L independently represents a direct bond or wherein each R 1 independently represents an alkyl group having 1 to 4 carbon atoms, and each R 2 independently represents an alkylene group having from 1 to 6 carbon atoms, and each Z - represents a non-interfering monovalent anion; each Ar 2 independently represents an optionally substituted divalent aryl ring, with the proviso that if L represents a direct bond, then Ar 2 represents an optionally substituted cationic divalent aryl ring accompanied by Z -; each R 3 independently represents H or an alkyl group having 1 to 6 carbon atoms; and each D independently represents a direct bond or Ar 2 wherein adjacent D and L are not both direct bonds, and wherein if L is a direct bond, then D is Ar 2.
A processor (805, 1205) comprising a block-based processor core (820, 1220A-C) configured to execute a program using a block atomic execution model, the program comprising a plurality of instruction blocks, a respective instruction block comprising a plurality of instructions that are executed atomically, the block-based processor core characterized by comprising: prefetch logic (830, 1222A-C) configured to receive a reference to a predicted instruction block, to prefetch a plurality of memory lines and to determine a mapping of a memory line of the predicted instruction block in memory to a line of a streaming instruction buffer based on a starting address of the predicted instruction block and a size of the predicted instruction block encoded in an instruction header of the predicted instruction block, wherein each memory line is a minimum unit of information that can be transferred from within a memory hierarchy to the streaming instruction buffer, and wherein the streaming instruction buffer is configured to store portions of the predicted instruction block in a sequential order in the streaming instruction buffer; wherein the streaming instruction buffer (823, 1226A-C) is configured to selectively store portions of the predicted instruction block corresponding to one or more respective lines of the plurality of memory lines and to provide the stored portions of the predicted instruction block when control of the program passes along a predicted execution path to the predicted instruction block, the streaming instruction buffer organized as a circular buffer. prefetch logic (830, 1222A-C) configured to receive a reference to a predicted instruction block, to prefetch a plurality of memory lines and to determine a mapping of a memory line of the predicted instruction block in memory to a line of a streaming instruction buffer based on a starting address of the predicted instruction block and a size of the predicted instruction block encoded in an instruction header of the predicted instruction block, wherein each memory line is a minimum unit of information that can be transferred from within a memory hierarchy to the streaming instruction buffer, and wherein the streaming instruction buffer is configured to store portions of the predicted instruction block in a sequential order in the streaming instruction buffer; wherein the streaming instruction buffer (823, 1226A-C) is configured to selectively store portions of the predicted instruction block corresponding to one or more respective lines of the plurality of memory lines and to provide the stored portions of the predicted instruction block when control of the program passes along a predicted execution path to the predicted instruction block, the streaming instruction buffer organized as a circular buffer.
Lifting cylinder for actuating a magnetic rail brake, comprising a cylinder body in which a piston is movable in a lifting axis, wherein a working pressure chamber, to which a pressure medium can be applied, is movably limitable in the cylinder body by the piston, and wherein a piston rod is tied on the piston, the piston rod being connectable to the magnetic rail brake with a free end, and wherein the piston is movable from a position lifting the magnetic rail brake into a position lowering the a magnetic rail brake by applying pressure to the working pressure chamber, characterized in that holding means are inserted in the cylinder body, by which the piston can be positively held in the position lifting the magnetic rail brake.
A rotorcraft, comprising: a step disposed at an exterior of the rotorcraft, wherein the step has a recess, and the step is faired into a skin on the exterior of the rotorcraft; and an emergency kit installed into the recess of the step, wherein the emergency kit comprises a container, and a life raft; wherein the container comprises: a container body disposed in the recess of the step, wherein the container body is attached to the step, and the container body has a storage cavity; a container panel disposed at a bottom of the storage cavity, wherein the life raft is disposed on the container panel, and within the storage cavity; and a first attachment element releasably coupling a first edge of the container panel to the container body, and retaining the life raft in the container. a step disposed at an exterior of the rotorcraft, wherein the step has a recess, and the step is faired into a skin on the exterior of the rotorcraft; and an emergency kit installed into the recess of the step, wherein the emergency kit comprises a container, and a life raft; wherein the container comprises: a container body disposed in the recess of the step, wherein the container body is attached to the step, and the container body has a storage cavity; a container panel disposed at a bottom of the storage cavity, wherein the life raft is disposed on the container panel, and within the storage cavity; and a first attachment element releasably coupling a first edge of the container panel to the container body, and retaining the life raft in the container. a container body disposed in the recess of the step, wherein the container body is attached to the step, and the container body has a storage cavity; a container panel disposed at a bottom of the storage cavity, wherein the life raft is disposed on the container panel, and within the storage cavity; and a first attachment element releasably coupling a first edge of the container panel to the container body, and retaining the life raft in the container.
A specimen holder for clamping workpieces, in particular for carrying out component and material tests in the form of compressive and in particular tensile tests, comprising two clamping jaws (5, 6) which are preferably displaceable by hydraulic clamping cylinders (3, 4) and are oriented coaxially relative to each other and clamp the workpiece between them and are provided on their side remote from the workpiece with wedge surfaces (7, 8) which bear against a wedge portion which is displaceable by way of an also fluid-operated synchronisation cylinder perpendicularly to the axis of the clamping jaws (5, 6) and in the direction of the test axis of the workpiece, characterised in that the two clamping cylinders (3, 4) are fed from a fluid reservoir by way of a common supply line and by way of a 4/2 directional control valve, wherein the synchronisation cylinder is connected to the 4/2 directional control valve by way of an adjustable first pressure limiting valve and a non-return valve arranged in parallel.