mhurhangee/ep-ind-claims huggingface dataset:
Hydraulic cleaning system for installing in a vehicle for cleaning at least one transparent element of at least one optical or optoelectronic apparatus, in particular of a digital camera for recording a vehicle environment, comprising: • a feed pump, which conveys a cleaning fluid from a storage container with a feed pressure Pv into a hydraulic line in a feed direction V, • at least one cleaning unit, which is connected to the line and has at least one spray nozzle for applying cleaning fluid to the transparent element, • at least one device which is interposed in the hydraulic line between the feed pump and the cleaning unit, shuts off the hydraulic line in a return direction opposite to the feed direction and, when activated, supplies at least one cleaning unit connected downstream with a working pressure (Pa) that is higher than the feed pressure (Pv), characterized in that the device is in the form of an electrically, in particular electronically controllable positive displacement pump. • a feed pump, which conveys a cleaning fluid from a storage container with a feed pressure Pv into a hydraulic line in a feed direction V, • at least one cleaning unit, which is connected to the line and has at least one spray nozzle for applying cleaning fluid to the transparent element, • at least one device which is interposed in the hydraulic line between the feed pump and the cleaning unit, shuts off the hydraulic line in a return direction opposite to the feed direction and, when activated, supplies at least one cleaning unit connected downstream with a working pressure (Pa) that is higher than the feed pressure (Pv), characterized in that the device is in the form of an electrically, in particular electronically controllable positive displacement pump.
A motor vehicle trim element, of the type comprising a rigid supporting member and a flexible covering member covering the supporting member, the covering member comprising a skin intended to be visible by an occupant of the passenger compartment of the motor vehicle, the supporting member comprising at least one aperture allowing deployment of an inflatable bag device outwards from the trim element, a rigid frame being attached to the supporting member on the periphery of said aperture by several attachment means, a flap covering the aperture being jointed with said frame, characterized in that the frame comprises a continuous rib extending from the frame into the covering member, said rib extending along at least one portion of the frame, and covering at least one portion of the attachment means.
A container having first and second body portions (2,3), and a closure device (5,6) operable to hold the first and second body portions (2,3) in a closed position, the closure device (5,6) comprising an engagement element which extends from the first body portion of the container, and a clasp attached to the second body portion of the container, and releasably engageable with the engagement element, thereby to hold the second body portion in position with respect to the first body portion, wherein the clasp comprises: a locating element which extends from the second body portion of the container and which defines a locating aperture therethrough; a clasp body defining at one end region thereof an engagement portion for engagement with the engagement element, and having an elongate pivot portion located at another end region thereof; a hinge element rotatably mounted on the pivot portion of the clasp body, and having a partially cylindrical portion which extends substantially around the pivot portion, and first and second retaining portions (16,17) which extend from respective ends of the partially cylindrical portion, and which extend adjacent one another through the locating aperture of the locating element, characterised in that the hinge element is of resilient material, and is arranged such that the first and second retaining portions (16,17) thereof are biased to diverge from one another, thereby providing a friction fit within the locating element. a locating element which extends from the second body portion of the container and which defines a locating aperture therethrough; a clasp body defining at one end region thereof an engagement portion for engagement with the engagement element, and having an elongate pivot portion located at another end region thereof; a hinge element rotatably mounted on the pivot portion of the clasp body, and having a partially cylindrical portion which extends substantially around the pivot portion, and first and second retaining portions (16,17) which extend from respective ends of the partially cylindrical portion, and which extend adjacent one another through the locating aperture of the locating element, the hinge element is of resilient material, and is arranged such that the first and second retaining portions (16,17) thereof are biased to diverge from one another, thereby providing a friction fit within the locating element.
A linking element intended for securing at least two walls (2, 3) to one another, said walls (2, 3) forming an angle other than 180 degrees therebetween, characterized in that it comprises a containment bracket intended to be secured at least to one of the two walls, and arranged so as to form a hollow body with the two walls (2, 3) when said containment bracket is secured to at least one of said walls (2, 3), and an adherent and expandable structural insert which is intended to be positioned in the hollow body.
Compound of general formula below: Signal - Linker - Peptide in which: Signal represents a signal entity chosen from: - a chelate coupled to a paramagnetic metal M or to a radionuclide, - a superparamagnetic nanoparticle coated with an organic layer, preferably having an iron oxide core, and - a fluorescent molecule used in optical imaging; Linker, which may or may not be present, represents a chemical bond, and Peptide represents a peptide comprising an apoptosis-targeting peptide, the apoptosis-targeting peptide being the peptide having the formula below: P-G-D-L-X8-X9 (SEQ ID No 3) in which X8 represents serine or valine and X9 represents threonine or arginine; and the pharmaceutically acceptable salts of these compounds, with the exception of the compounds of the formulae below: and Signal represents a signal entity chosen from: - a chelate coupled to a paramagnetic metal M or to a radionuclide, - a superparamagnetic nanoparticle coated with an organic layer, preferably having an iron oxide core, - a chelate coupled to a paramagnetic metal M or to a radionuclide, - a superparamagnetic nanoparticle coated with an organic layer, preferably having an iron oxide core, and - a fluorescent molecule used in optical imaging; - a fluorescent molecule used in optical imaging; Linker, which may or may not be present, represents a chemical bond, and Peptide represents a peptide comprising an apoptosis-targeting peptide, the apoptosis-targeting peptide being the peptide having the formula below: P-G-D-L-X8-X9 (SEQ ID No 3) in which X8 represents serine or valine and X9 represents threonine or arginine; and the pharmaceutically acceptable salts of these compounds, with the exception of the compounds of the formulae below: and
Motor vehicle door latch, in particular a motor vehicle front hood latch, comprising a locking mechanism (4, 5), consisting substantially of a catch and pawl, which interacts with a latch holder bracket on a hood, and comprising an unlocking/opening device (14, 15) for the hood, which is equipped with a handle provided in the interior of a motor vehicle body, the handle preferably being operated twice in order to open the hood, the locking mechanism (4, 5) assuming a pre-ratchet position with the still-trapped latch holder bracket after at least one actuation of the handle, characterized in that the hood is opened from the pre-ratchet position by a separately initiated motor-driven lifting of the pawl from the catch, an actuator (12, 13) being provided for the motor-driven application of the pawl, the actuator (12, 13) being acted upon by means of an operating unit, which is independent of the handle, in the form of a remote key, a sensor being provided which queries the pre-ratchet position, the sensor and the actuator (12, 13) being connected to a common control unit, which allows application of the actuator (12, 13) for lifting of the pawl from the catch only when the sensor has signaled the pre-ratchet position of the locking mechanism (4, 5).
A port shield for a pneumatic actuator having a casing wall, the port shield comprising: a sheet comprising: an outer face disposed opposite an inner face wherein the inner face faces, in use, an outer side of the casing wall; a first end disposed opposite a second end; a first edge disposed opposite a second edge; wherein both first edge and second edge are generally parallel to one another and are both generally perpendicular to first end and second end; wherein a bend is formed in the sheet between the first edge and the second edge, wherein the bend extends from the first end to the second end and forms an apex on the outer face of the sheet; a standoff element extending from the inner face of the sheet proximate the bend, wherein the standoff element contacts, in use, the outer side of the casing wall, the bend and the standoff element creating, in use, a fluid passage between the sheet and the casing wall; and a connecting member extending from the sheet and configured to connect, in use, the sheet to an outer side of the casing wall of the pneumatic actuator. a sheet comprising: an outer face disposed opposite an inner face wherein the inner face faces, in use, an outer side of the casing wall; a first end disposed opposite a second end; a first edge disposed opposite a second edge; wherein both first edge and second edge are generally parallel to one another and are both generally perpendicular to first end and second end; wherein a bend is formed in the sheet between the first edge and the second edge, wherein the bend extends from the first end to the second end and forms an apex on the outer face of the sheet; an outer face disposed opposite an inner face wherein the inner face faces, in use, an outer side of the casing wall; a first end disposed opposite a second end; a first edge disposed opposite a second edge; a bend is formed in the sheet between the first edge and the second edge, wherein the bend extends from the first end to the second end and forms an apex on the outer face of the sheet; a standoff element extending from the inner face of the sheet proximate the bend, wherein the standoff element contacts, in use, the outer side of the casing wall, the bend and the standoff element creating, in use, a fluid passage between the sheet and the casing wall; and a connecting member extending from the sheet and configured to connect, in use, the sheet to an outer side of the casing wall of the pneumatic actuator.
An in vitro method of detecting, diagnosing or monitoring a renal cancer in a subject, the method comprising, on a urine sample obtained from the subject, contacting the sample with an antibody that binds an adipose differentiation-related protein (ADFP) or a fragment thereof under conditions sufficient for formation of a primary complex comprising the antibody and, if present, the ADFP or a fragment thereof; and detecting presence, absence or quantity of the complex, wherein the subject is deemed to have renal cancer if the complex comprises the ADFP or a fragment thereof at an elevated level compared to a control complex. contacting the sample with an antibody that binds an adipose differentiation-related protein (ADFP) or a fragment thereof under conditions sufficient for formation of a primary complex comprising the antibody and, if present, the ADFP or a fragment thereof; and detecting presence, absence or quantity of the complex,
A method for receiving signal training sequence set information by a remote station, comprising: sending signaling to a base station (110, 111, 114) indicating if a new set of training sequences is supported, each training sequence of the new set being different than training sequences of a legacy set of training sequences; and characterized by: receiving a channel description information element identifier from the base station (110, 111, 114), the channel description information element modified at the base station in response to the signaling and based on the remote station supporting the new set of training sequences and a legacy set of training sequences wherein the channel description information element identifier indicates one of the new set or the legacy set of training sequences to be used for a communication channel being established. sending signaling to a base station (110, 111, 114) indicating if a new set of training sequences is supported, each training sequence of the new set being different than training sequences of a legacy set of training sequences; and characterized by: receiving a channel description information element identifier from the base station (110, 111, 114), the channel description information element modified at the base station in response to the signaling and based on the remote station supporting the new set of training sequences and a legacy set of training sequences wherein the channel description information element identifier indicates one of the new set or the legacy set of training sequences to be used for a communication channel being established.
An active matrix panel, comprising: a substrate; a first signal line formed on the substrate; a second signal line crossing the first signal line; a thin film transistor connected to the first signal line and the second signal line; and a pixel electrode including a first subpixel portion (190a1) and a second subpixel portion (190a2) electrically connected to the thin film transistor, and a third subpixel portion capacitively coupled to the first subpixel portion (190a1) and second subpixel portion (190a2) and separated from the first subpixel portion (190a1) and the second subpixel portion (190a2), wherein the first subpixel portion (190a1) and the second subpixel portion (190a2) are disposed opposite each other with respect to the third subpixel portion and a coupling electrode electrically connected to the first subpixel portion (190a1) and the second subpixel portion (190a2), wherein the coupling electrode is capacitively coupled to the third subpixel portion; and characterized by further comprising: a capacitive electrode electrically connected to the third subpixel portion and underlying the coupling electrode. a substrate; a first signal line formed on the substrate; a second signal line crossing the first signal line; a thin film transistor connected to the first signal line and the second signal line; and a pixel electrode including a first subpixel portion (190a1) and a second subpixel portion (190a2) electrically connected to the thin film transistor, and a third subpixel portion capacitively coupled to the first subpixel portion (190a1) and second subpixel portion (190a2) and separated from the first subpixel portion (190a1) and the second subpixel portion (190a2), wherein the first subpixel portion (190a1) and the second subpixel portion (190a2) are disposed opposite each other with respect to the third subpixel portion and a coupling electrode electrically connected to the first subpixel portion (190a1) and the second subpixel portion (190a2), wherein the coupling electrode is capacitively coupled to the third subpixel portion; and characterized by further comprising: a capacitive electrode electrically connected to the third subpixel portion and underlying the coupling electrode.
A method for executing a smart contract of a blockchain, wherein the blockchain is interconnected to a trusted third party, a contract engine for executing a smart contract is deployed in the trusted third party, and the method comprises: receiving, by a node device in the blockchain, a target transaction initiated by a client device to invoke a target smart contract; obtaining, by the node device, contract source code of the target smart contract from a distributed database of the blockchain in response to the target transaction; sending, by the node device, the contract source code to the trusted third party so that the contract engine of the trusted third party executes the contract source code and returns an execution result to the node device, wherein the blockchain is interconnected to a second trusted third party that serves as a verification party; sending, by the node device, the execution result to the second trusted third party for a contract engine of the second trusted third party to verify the execution result; in response to determining that verification on the execution result succeeds, publishing, by the node device, the execution result to all node devices in the blockchain for consensus processing; and storing the execution result in the blockchain after the consensus succeeds. receiving, by a node device in the blockchain, a target transaction initiated by a client device to invoke a target smart contract; obtaining, by the node device, contract source code of the target smart contract from a distributed database of the blockchain in response to the target transaction; sending, by the node device, the contract source code to the trusted third party so that the contract engine of the trusted third party executes the contract source code and returns an execution result to the node device, wherein the blockchain is interconnected to a second trusted third party that serves as a verification party; sending, by the node device, the execution result to the second trusted third party for a contract engine of the second trusted third party to verify the execution result; in response to determining that verification on the execution result succeeds, publishing, by the node device, the execution result to all node devices in the blockchain for consensus processing; and storing the execution result in the blockchain after the consensus succeeds.
Cryogenic-fluid storage device comprising a first wall forming a tank and a second wall delimiting a volume intended to house a set of equipment for the tank, for example at least one valve, the second wall being fastened to the first wall by welding, the second wall being made of stainless steel and the second wall being welded to the first wall via a joining portion interposed between the two walls (2, 4), characterized in that the first wall is made of aluminium alloy and in that the joining portion is made of an aluminium-based alloy and stainless steel.
Method of operation for a LIDAR sensor, having the following steps: - sending a LIDAR signal at a predetermined normal power and receiving a back-scattered component of the LIDAR signal with a predetermined normal sensitivity to ascertain the distance of objects (11, 12, 13, 14) present in the surroundings scanned by the LIDAR sensor in a normal mode, characterized by - repeated interruption of the normal mode by a test mode, wherein the test mode comprises the following steps: - sending a LIDAR signal at a test power, which is decreased by a predetermined amount in comparison with the predetermined normal power, and/or receiving the back-scattered component of the LIDAR signal with a test sensitivity, which is decreased by a predetermined amount in comparison with the predetermined normal sensitivity, and ascertaining a value for a lower limit for the maximum range of the LIDAR sensor that is available in the normal mode of the LIDAR sensor on the basis of the distance, ascertained in the normal mode, of objects (13, 14) that are no longer detected in the test mode. - sending a LIDAR signal at a predetermined normal power and receiving a back-scattered component of the LIDAR signal with a predetermined normal sensitivity to ascertain the distance of objects (11, 12, 13, 14) present in the surroundings scanned by the LIDAR sensor in a normal mode, characterized by - repeated interruption of the normal mode by a test mode, wherein the test mode comprises the following steps: - sending a LIDAR signal at a test power, which is decreased by a predetermined amount in comparison with the predetermined normal power, and/or receiving the back-scattered component of the LIDAR signal with a test sensitivity, which is decreased by a predetermined amount in comparison with the predetermined normal sensitivity, and ascertaining a value for a lower limit for the maximum range of the LIDAR sensor that is available in the normal mode of the LIDAR sensor on the basis of the distance, ascertained in the normal mode, of objects (13, 14) that are no longer detected in the test mode. - sending a LIDAR signal at a test power, which is decreased by a predetermined amount in comparison with the predetermined normal power, and/or receiving the back-scattered component of the LIDAR signal with a test sensitivity, which is decreased by a predetermined amount in comparison with the predetermined normal sensitivity, and ascertaining a value for a lower limit for the maximum range of the LIDAR sensor that is available in the normal mode of the LIDAR sensor on the basis of the distance, ascertained in the normal mode, of objects (13, 14) that are no longer detected in the test mode.
An enclosure for a circuit breaker, the enclosure comprising: a first end and a second end, the first end and the second end being at opposing ends of the enclosure; a wall that defines at least a portion of an interior region of the enclosure, the interior region sized to house a dielectric insulating medium and a circuit interrupter; and a pass-through extending through at least a portion of the wall, the pass-through having a pathway that includes a first open end and a second open end, the first open end being adjacent to the first end of the enclosure, the second open end being adjacent to the second end of the enclosure, the first and second open ends (64, 66) being in fluid communication with each other across the pathway, wherein the pathway is not in direct fluid communication with the interior region, characterized in that an inner side of the wall defines at least a portion of the interior region, and wherein at least a portion of the pass-through sits within the interior region along a portion of the inner side of the wall. a first end and a second end, the first end and the second end being at opposing ends of the enclosure; a wall that defines at least a portion of an interior region of the enclosure, the interior region sized to house a dielectric insulating medium and a circuit interrupter; and a pass-through extending through at least a portion of the wall, the pass-through having a pathway that includes a first open end and a second open end, the first open end being adjacent to the first end of the enclosure, the second open end being adjacent to the second end of the enclosure, the first and second open ends (64, 66) being in fluid communication with each other across the pathway, wherein the pathway is not in direct fluid communication with the interior region, characterized in that an inner side of the wall defines at least a portion of the interior region, and wherein at least a portion of the pass-through sits within the interior region along a portion of the inner side of the wall.