mhurhangee/ep-ind-claims huggingface dataset:
A bridge inspection and maintenance system comprising a platform slidably mounted below said bridge, said platform consisting of two structures (1, 2) positioned symmetrically with respect to the longitudinal axis of the bridge, each structure (1, 2) comprising a first part (11, 21) configured to move along a longitudinal axis of the bridge on a corresponding longitudinal guide integral with said bridge and a second part (12, 22) configured to translate transversely with respect to said longitudinal axis on said first part (11, 21) on a corresponding transverse guide, the two said structures (1, 2) being movable from a closed configuration, wherein the corresponding second parts (12, 22) are coupled to each other at the central longitudinal axis of the bridge, to an open configuration, wherein the two said second parts (12, 22) are separated from each other in the opposite direction with respect to the central longitudinal axis of the bridge, until they are decoupled from each other, by a transverse translational movement, characterized in that said platform comprises one or more sensors for acquiring images of said bridge and in that said one or more sensors are provided on each of said second parts (12, 22), Said two structures being configured to be independently moved along the bridge. said platform consisting of two structures (1, 2) positioned symmetrically with respect to the longitudinal axis of the bridge, each structure (1, 2) comprising a first part (11, 21) configured to move along a longitudinal axis of the bridge on a corresponding longitudinal guide integral with said bridge and a second part (12, 22) configured to translate transversely with respect to said longitudinal axis on said first part (11, 21) on a corresponding transverse guide, the two said structures (1, 2) being movable from a closed configuration, wherein the corresponding second parts (12, 22) are coupled to each other at the central longitudinal axis of the bridge, to an open configuration, wherein the two said second parts (12, 22) are separated from each other in the opposite direction with respect to the central longitudinal axis of the bridge, until they are decoupled from each other, by a transverse translational movement, characterized in that said platform comprises one or more sensors for acquiring images of said bridge and in that said one or more sensors are provided on each of said second parts (12, 22), Said two structures being configured to be independently moved along the bridge.
A thermal conductivity detector for a gas chromatograph comprising: a heatable resistive detector element (8, R2) configured to be physically arranged in a flow of analytes eluting from a chromatography column, said detector element (8, R2) electrically arranged together with resistors (R1, R3, R4) in separate arms of a measuring bridge, an additional resistor with a controllable switch in parallel, said additional resistor connected in series with the detector element (8, R2) or resistor (R1, R3 or R4) in one arm of the measuring bridge, an amplifier configured to detect a differential voltage between two opposite nodes of the measuring bridge and to apply an output voltage to the other opposite nodes of the measuring bridge in order to maintain the detector element (8, R2) at a constant operating temperature, and a control unit configured to provide a control signal to the switch for adjusting the operating temperature, wherein the control signal is a pulse-width modulated voltage with a period lower than the thermal time constant of the detector element (8, R2). a heatable resistive detector element (8, R2) configured to be physically arranged in a flow of analytes eluting from a chromatography column, said detector element (8, R2) electrically arranged together with resistors (R1, R3, R4) in separate arms of a measuring bridge, an additional resistor with a controllable switch in parallel, said additional resistor connected in series with the detector element (8, R2) or resistor (R1, R3 or R4) in one arm of the measuring bridge, an amplifier configured to detect a differential voltage between two opposite nodes of the measuring bridge and to apply an output voltage to the other opposite nodes of the measuring bridge in order to maintain the detector element (8, R2) at a constant operating temperature, and a control unit configured to provide a control signal to the switch for adjusting the operating temperature, wherein the control signal is a pulse-width modulated voltage with a period lower than the thermal time constant of the detector element (8, R2).
A method for securing industrial asset data in a computing environment, the method comprises: receiving, by a processor, a request for modifying asset data, wherein the request comprises one or more parameters associated with the one or more assets (108A-N) deployed in a technical installation and one or more parameters associated with a requestor profile; validating, by the processor, the request for modifying the asset data based on pre-stored one or more parameters associated with the one or more assets (108A-N) deployed in the technical installation and the pre-stored one or more parameters associated with the requestor profile using blockchain validation method; modifying, by the processor, the pre stored asset data to generate a modified asset data based on the validated request; generating, by the processor, a digital representation model of the modified asset data using a knowledge graph, wherein the digital representation model of the modified asset data comprises dynamic linking between the one or more parameters associated with the one or more assets (108A-N) deployed in the technical installation and the one or more parameters associated with the requestor profile; and outputting, by the processor, the generated digital representation model of the modified asset data on a user interface. receiving, by a processor, a request for modifying asset data, wherein the request comprises one or more parameters associated with the one or more assets (108A-N) deployed in a technical installation and one or more parameters associated with a requestor profile; validating, by the processor, the request for modifying the asset data based on pre-stored one or more parameters associated with the one or more assets (108A-N) deployed in the technical installation and the pre-stored one or more parameters associated with the requestor profile using blockchain validation method; modifying, by the processor, the pre stored asset data to generate a modified asset data based on the validated request; generating, by the processor, a digital representation model of the modified asset data using a knowledge graph, wherein the digital representation model of the modified asset data comprises dynamic linking between the one or more parameters associated with the one or more assets (108A-N) deployed in the technical installation and the one or more parameters associated with the requestor profile; and outputting, by the processor, the generated digital representation model of the modified asset data on a user interface.
A cancer vaccine, comprising: (a) a tumor-associated carbohydrate antigen; and (b) a diphtheria toxin, wherein the ratio of the tumor-associated carbohydrate antigen to DT ranges from 5:1 to 24:1, and the tumor-associated carbohydrate antigen is selected from Globo H, stage-specific embryonic antigen-3 (SSEA-3) or stage-specific embryonic antigen-4 (SSEA-4). (a) a tumor-associated carbohydrate antigen; and (b) a diphtheria toxin,
A mobile identification device for activating a security system of a motor vehicle, in particular an access and/or driving authorisation system, with a housing in which an electronics and a communication means are arranged, wherein the communication means can be brought into communication with a vehicle communication means of the security system, wherein a paying element is releasably fastened in a holder of the housing, a closure is separately arranged on the housing, the identification device can be put into a normal mode and into a security mode, a communication with the security system is achievable in normal mode and in security mode, and in security mode the paying element is removed from the holder and the closure sealingly protects the holder, wherein the holder comprises contact elements, with which the paying element is contactingly connected in normal mode, wherein in security mode the closure protects the contact elements against the outside area, and in normal mode the paying element sealingly protects the contact elements or a carrier is provided for sealing the contact elements, wherein the paying element is integrated with the carrier.
A pre-impregnated composite material comprising: A) reinforcing fibers comprising carbon fibers; and B) an uncured resin matrix comprising: a) an epoxy resin component comprising a hydrocarbon epoxy novolac resin, a triglycidyl aminophenol epoxy resin and a tetrafunctional epoxy resin; b) a thermoplastic particle component comprising a mixture of polyamide and polyimide particles in a weight ratio of from 3.5:1.0 to 1.0 to 1.0; c) a thermoplastic toughening agent comprising polyethersulfone; and d) a curing agent. A) reinforcing fibers comprising carbon fibers; and B) an uncured resin matrix comprising: a) an epoxy resin component comprising a hydrocarbon epoxy novolac resin, a triglycidyl aminophenol epoxy resin and a tetrafunctional epoxy resin; b) a thermoplastic particle component comprising a mixture of polyamide and polyimide particles in a weight ratio of from 3.5:1.0 to 1.0 to 1.0; c) a thermoplastic toughening agent comprising polyethersulfone; and d) a curing agent. a) an epoxy resin component comprising a hydrocarbon epoxy novolac resin, a triglycidyl aminophenol epoxy resin and a tetrafunctional epoxy resin; b) a thermoplastic particle component comprising a mixture of polyamide and polyimide particles in a weight ratio of from 3.5:1.0 to 1.0 to 1.0; c) a thermoplastic toughening agent comprising polyethersulfone; and d) a curing agent.
A method for aligning a line of sight between a first apparatus and a second apparatus, the first apparatus comprising an access node including a first transceiver capable of multi-angle, bi-directional line-of-sight optical communications, the method comprising: adjusting the positioning of the first transceiver to spatially modulate a sensitivity profile according to a first predetermined periodic modulation profile; correlating a modulated radiation signal received at the first apparatus from the second apparatus using respective correlation functions for horizontal and vertical alignment errors to generate a first alignment error vector; and using the first alignment error vector for adjusting the line of sight of the first apparatus. adjusting the positioning of the first transceiver to spatially modulate a sensitivity profile according to a first predetermined periodic modulation profile; correlating a modulated radiation signal received at the first apparatus from the second apparatus using respective correlation functions for horizontal and vertical alignment errors to generate a first alignment error vector; and using the first alignment error vector for adjusting the line of sight of the first apparatus.
Computer-implemented method for processing an audio signal with the steps: - receiving the audio signal; - recognising (S40-A) a beginning of operator speech input in the audio signal; - analysing (S40-B) the audio signal substantially in real time from the recognised beginning of the speech input to provide a speech analysis result; - defining (S40-D, 540-D') an end of the speech input based on the speech analysis result; and - providing (S40-E) a speech data stream based on the audio signal between the recognised beginning and the defined end; - adjusting (S40-C) an adaptive time interval based on the speech analysis result; wherein the step of defining (S40-D) the end of the speech input comprises: - capturing (S40-D-0) a time at which the audio signal does not contain any speech input; - defining (S40-D-1) the end of the speech input at the captured time if no new beginning of speech input is recognised starting from the captured time within the adaptive time interval. - receiving the audio signal; - recognising (S40-A) a beginning of operator speech input in the audio signal; - analysing (S40-B) the audio signal substantially in real time from the recognised beginning of the speech input to provide a speech analysis result; - defining (S40-D, 540-D') an end of the speech input based on the speech analysis result; and - providing (S40-E) a speech data stream based on the audio signal between the recognised beginning and the defined end; - adjusting (S40-C) an adaptive time interval based on the speech analysis result; - capturing (S40-D-0) a time at which the audio signal does not contain any speech input; - defining (S40-D-1) the end of the speech input at the captured time if no new beginning of speech input is recognised starting from the captured time within the adaptive time interval.
A processing device comprising: an instruction tracing module (IT, 103) to: receive an indication of a change in a current execution mode of the processing device; determine that the current execution mode of the received indication is different than a value of an execution mode of a first execution mode packet previously-generated by the IT module; generate, based on determining that the current execution mode is different, a second EM packet that provides a value of the current execution mode of the processing device to indicate the change in the execution mode for an instruction in a trace generated by the IT module; and generate an execution mode instruction pointer packet (EMIP) associated with the second EM packet, wherein the EMIP packet identifies an instruction pointer of a next instruction to be executed in the trace in the current execution mode, wherein the EMIP packet identifies the IP of a first instruction to be executed in the trace in the current execution mode when the second EM packet provides the indication of the change in the execution mode of the processing device. an instruction tracing module (IT, 103) to: receive an indication of a change in a current execution mode of the processing device; determine that the current execution mode of the received indication is different than a value of an execution mode of a first execution mode packet previously-generated by the IT module; generate, based on determining that the current execution mode is different, a second EM packet that provides a value of the current execution mode of the processing device to indicate the change in the execution mode for an instruction in a trace generated by the IT module; and receive an indication of a change in a current execution mode of the processing device; determine that the current execution mode of the received indication is different than a value of an execution mode of a first execution mode packet previously-generated by the IT module; generate, based on determining that the current execution mode is different, a second EM packet that provides a value of the current execution mode of the processing device to indicate the change in the execution mode for an instruction in a trace generated by the IT module; and generate an execution mode instruction pointer packet (EMIP) associated with the second EM packet, wherein the EMIP packet identifies an instruction pointer of a next instruction to be executed in the trace in the current execution mode, wherein the EMIP packet identifies the IP of a first instruction to be executed in the trace in the current execution mode when the second EM packet provides the indication of the change in the execution mode of the processing device.
Longitudinal adjuster for a vehicle seat, in particular a motor vehicle seat, having a seat part and a backrest, wherein the longitudinal adjuster has a first seat rail and a second seat rail, wherein the first seat rail is displaceable relative to the second seat rail in a longitudinal direction (x), wherein a memory device assigned to the first seat rail and interacting with the second seat rail is provided which is designed to store a seat longitudinal position of the vehicle seat that can be left and assumed again by a longitudinal displacement of the vehicle seat, wherein the memory device detects a relative movement between the first seat rail and the second seat rail by means of a friction wheel which for this purpose contacts and moves along a contact surface moved relative to the memory device, wherein the friction wheel is mounted on a friction wheel rocker, wherein a spring element is arranged on the friction wheel rocker, characterized in that the spring element is guided around and/or mounted around an axis of rotation of the friction wheel rocker, wherein the spring element is supported between a first spring end and a second spring end which acts on a portion of the friction wheel rocker that corresponds to an axis of rotation of the friction wheel, whereby the friction wheel is subjected by means of the spring element to a pressing force in the direction of the contact surface, wherein the memory device has a control lever which is coupled to a pivoting movement of the backrest and acts on the first spring end, whereby the pressing force of the friction wheel during a detected relative movement between the first seat rail and the second seat rail is increased relative to the pressing force in a state if no relative movement is detected.
A three-dimensional holographic display system, comprising: a projector including a spatial light modulator that projects an image by performing spatially varying modulation on a light beam that is provided by a light source; a holographic processor that is configured to perform an angular spectrum method and a Fresnel diffraction method on the image; and a memory device that stores holographic data that are generated while performing the angular spectrum method and the Fresnel diffraction method; wherein a first virtual image generated by the angular spectrum method is displayed in near field from the spatial light modulator, while a second virtual image generated by the Fresnel diffraction method is displayed in far field from the spatial light modulator. a projector including a spatial light modulator that projects an image by performing spatially varying modulation on a light beam that is provided by a light source; a holographic processor that is configured to perform an angular spectrum method and a Fresnel diffraction method on the image; and a memory device that stores holographic data that are generated while performing the angular spectrum method and the Fresnel diffraction method; wherein a first virtual image generated by the angular spectrum method is displayed in near field from the spatial light modulator, while a second virtual image generated by the Fresnel diffraction method is displayed in far field from the spatial light modulator.
Method for the production of a cast component, in particular a gas turbine component, with the following steps: a) Provision of a melting crucible and at least one semi-finished product made of an intermetallic titanium-aluminum material; b) Melting of the semi-finished product or each semi-finished product made of the intermetallic titanium-aluminum material in the melting crucible; c) Adding of a plurality of additional elements or additional compounds to the molten mass in successively in time depending on their melting temperature, wherein at least one element and/or one compound with a high melting point is added to the molten mass first, followed by at least one further element and/or one further compound with a lower melting point, d) Provision of a casting mold; e) Pouring the molten mass into the casting mold; f) Hardening of the molten mass in the casting mold; and g) Removal of the cast component from the casting mold. a) Provision of a melting crucible and at least one semi-finished product made of an intermetallic titanium-aluminum material; b) Melting of the semi-finished product or each semi-finished product made of the intermetallic titanium-aluminum material in the melting crucible; c) Adding of a plurality of additional elements or additional compounds to the molten mass in successively in time depending on their melting temperature, wherein at least one element and/or one compound with a high melting point is added to the molten mass first, followed by at least one further element and/or one further compound with a lower melting point, d) Provision of a casting mold; e) Pouring the molten mass into the casting mold; f) Hardening of the molten mass in the casting mold; and g) Removal of the cast component from the casting mold.
A method for determining process conditions in a workpiece processing tool configured to process production workpieces, comprising: calculating one or more heat flux values perpendicular to a PCMD (process condition measuring device) using a PCMD comprising: a) a substrate component; and b) one or more heat flux sensors embedded within the substrate component; each heat flux sensor includes first and second temperature sensors (203, 205) aligned in a relationship configured to determine heat flux perpendicular to the PCMD; wherein calculating one or more heat flux values perpendicular to the PCMD comprises: measuring a temperature difference between the two temperature sensors (203, 205), wherein thermal resistance between the two temperature sensors (203, 205) is known; using the measured temperature difference between the two temperatue sensors (203, 205) together with the known thermal resistance between the two temperature sensors to determine the heat flux perpindicular to the PCMD. a) a substrate component; and b) one or more heat flux sensors embedded within the substrate component; each heat flux sensor includes first and second temperature sensors (203, 205) aligned in a relationship configured to determine heat flux perpendicular to the PCMD; wherein calculating one or more heat flux values perpendicular to the PCMD comprises: measuring a temperature difference between the two temperature sensors (203, 205), wherein thermal resistance between the two temperature sensors (203, 205) is known; using the measured temperature difference between the two temperatue sensors (203, 205) together with the known thermal resistance between the two temperature sensors to determine the heat flux perpindicular to the PCMD. measuring a temperature difference between the two temperature sensors (203, 205), wherein thermal resistance between the two temperature sensors (203, 205) is known; using the measured temperature difference between the two temperatue sensors (203, 205) together with the known thermal resistance between the two temperature sensors to determine the heat flux perpindicular to the PCMD.
A method for managing personal identifiable information within independent computer systems and digital networks, the method comprising: processing raw data representing the personal identifiable information on a local client device through one or more cryptographic primitives to generate cryptographic data representing the personal identifiable information; partitioning the cryptographic data into one or more sub-parts; and storing each partitioned sub-part in one or more storage nodes across a storage that is optionally disposed on a remote server, wherein the raw data is never transferred or stored through any unsecured medium between the local client and the storage. processing raw data representing the personal identifiable information on a local client device through one or more cryptographic primitives to generate cryptographic data representing the personal identifiable information; partitioning the cryptographic data into one or more sub-parts; and storing each partitioned sub-part in one or more storage nodes across a storage that is optionally disposed on a remote server, wherein the raw data is never transferred or stored through any unsecured medium between the local client and the storage.