mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a housing configured to hold an actuator and an electronic control unit for the actuator, characterised in that the method comprises: additively manufacturing the housing as a single piece, wherein the housing comprises a central portion configured to house the actuator, and one or more side portions configured to house components of the electronic control unit, wherein a plurality of heat exchanger components in the form of fins or needles are provided that interconnect the one or more side portions with the central portion; and additively manufacturing the heat exchanger components with the housing such that the heat exchanger components form part of the single piece housing, so as to provide improved heat dissipation to the housing and a strong mechanical link between the portions (112,114). additively manufacturing the housing as a single piece, wherein the housing comprises a central portion configured to house the actuator, and one or more side portions configured to house components of the electronic control unit, wherein a plurality of heat exchanger components in the form of fins or needles are provided that interconnect the one or more side portions with the central portion; and additively manufacturing the heat exchanger components with the housing such that the heat exchanger components form part of the single piece housing, so as to provide improved heat dissipation to the housing and a strong mechanical link between the portions (112,114).
A system for communicating with a deployed product, comprising: an electronic controller operatively associated with the deployed product; a dual-architecture card mounted in the electronic controller, the dual-architecture card including a closed architecture section and an open architecture section and a security connection between the closed architecture section and the open architecture section, the open architecture section including a first microserver, the first microserver generating a wireless system around the deployed product, and the closed architecture section including a smart signal conditioner configured to process data received from the deployed product with proprietary software, wherein the closed architecture section is configured to output the processed data to the open architecture section through the security connection; and a computing device remote from the deployed product, the computing device adapted to wirelessly communicate with the first microserver. an electronic controller operatively associated with the deployed product; a dual-architecture card mounted in the electronic controller, the dual-architecture card including a closed architecture section and an open architecture section and a security connection between the closed architecture section and the open architecture section, the open architecture section including a first microserver, the first microserver generating a wireless system around the deployed product, and the closed architecture section including a smart signal conditioner configured to process data received from the deployed product with proprietary software, wherein the closed architecture section is configured to output the processed data to the open architecture section through the security connection; and a computing device remote from the deployed product, the computing device adapted to wirelessly communicate with the first microserver.
A power supply apparatus for wirelessly supplying power to one or more terminals, the power supply apparatus comprising: a signal transceiver configured to receive a charging state message indicating a charging state of the terminal from the one or more terminals, and to receive a position information message from the terminal; a display unit configured to display the charging state of each of the one or more terminals based on the charging state message; an interface unit configured to receive a charging control signal for controlling a charging operation of each of the one or more terminals based on the charging state message and the position information message; a controller configured to control the signal transceiver to transmit a power reception control signal for controlling whether the one or more terminals receive power by analyzing the charging control signal to the one or more terminals, and to control the display unit to display at least one of whether the terminal is chargeable based on the position information message, and a position of the terminal based on the position information message; and a power supplier configured to wirelessly supply power to the one or more terminals under a control of the controller. a signal transceiver configured to receive a charging state message indicating a charging state of the terminal from the one or more terminals, and to receive a position information message from the terminal; a display unit configured to display the charging state of each of the one or more terminals based on the charging state message; an interface unit configured to receive a charging control signal for controlling a charging operation of each of the one or more terminals based on the charging state message and the position information message; a controller configured to control the signal transceiver to transmit a power reception control signal for controlling whether the one or more terminals receive power by analyzing the charging control signal to the one or more terminals, and to control the display unit to display at least one of whether the terminal is chargeable based on the position information message, and a position of the terminal based on the position information message; and a power supplier configured to wirelessly supply power to the one or more terminals under a control of the controller.
A method of determining the acceleration of the crankshaft of an internal combustion engine comprising one or more cylinders, with respect to a combustion event, n, comprising: a) providing a signal indicative of crankshaft speed, said signal being from a crankshaft angular position sensor and comprising a series of minima and maxima with respect to each successive combustion event; b) determining the acceleration based on: the initial speed value of the minima, Min(n) just before the combustion event, n, the subsequent speed value of the maximum immediately subsequent to the combustion event, Max (n), and t int, where t int is the time between the maxima (Max(n)) and the preceding minima (Min (n)) or the general time between Min (n) and Max (n); characterised in that, in step b), the acceleration is determined additionally based on the speed of the minima for the subsequent combustion event, Min (n+1). a) providing a signal indicative of crankshaft speed, said signal being from a crankshaft angular position sensor and comprising a series of minima and maxima with respect to each successive combustion event; b) determining the acceleration based on: the initial speed value of the minima, Min(n) just before the combustion event, n, the subsequent speed value of the maximum immediately subsequent to the combustion event, Max (n), and t int, where t int is the time between the maxima (Max(n)) and the preceding minima (Min (n)) or the general time between Min (n) and Max (n);
An interface device for communication between a medical device and a bridge comprising: a first port (32, 34) for electrical connection to the medical device; a second port in electrical communication with a conversion circuit and arranged for electrical connection with the bridge; said conversion circuit arranged to be in communication with the medical device through the first port and with the bridge through the second port; at least one isolator (20A, 20B) between the first port and the conversion circuit to provide electrical isolation between the bridge and the medical device; and a memory in electrical communication with the conversion circuit, wherein the memory contains communication data to provide the conversion circuit with instructions on how to convert data from the medical device into a form that is readable by the bridge and a computer system connected to the bridge via a network, and wherein the interface device is adapted such that, in operation, a user can program the memory with the communication data for a particular medical device prior to connection of the interface device to that medical device. a first port (32, 34) for electrical connection to the medical device; a second port in electrical communication with a conversion circuit and arranged for electrical connection with the bridge; said conversion circuit arranged to be in communication with the medical device through the first port and with the bridge through the second port; at least one isolator (20A, 20B) between the first port and the conversion circuit to provide electrical isolation between the bridge and the medical device; and a memory in electrical communication with the conversion circuit, wherein the memory contains communication data to provide the conversion circuit with instructions on how to convert data from the medical device into a form that is readable by the bridge and a computer system connected to the bridge via a network, and wherein the interface device is adapted such that, in operation, a user can program the memory with the communication data for a particular medical device prior to connection of the interface device to that medical device.
A recombinant host cell for expressing a plastid protein in a plastid of the host cell, comprising (i) an inducer that induces the expression of a stability factor; wherein the inducer is exogenously added or removed; wherein the stability factor associates in the plastid with an untranslated region of an mRNA to stabilize or translate the mRNA; (ii) a recombinant nucleic acid, wherein the recombinant nucleic acid is in the nucleus of the host cell; wherein the recombinant nucleic acid comprises a first nucleic acid operatively linked to a second nucleic acid to form the recombinant nucleic acid; wherein the first nucleic acid encodes an inducible promoter and wherein the second nucleic acid encodes the stability factor; wherein the cell has an inoperative copy or is missing a copy or a homolog of the second nucleic acid; and (iii) the plastid comprising a third nucleic acid that is either native to the plastid or foreign to the plastid wherein the third nucleic acid encodes the expressed plastid protein wherein the expression of the mRNA encoding the plastid protein is controlled by the stability factor; wherein the stability factor is selected from the group consisting of Nac2, Mbb1, Tbc2 and Tca1. (i) an inducer that induces the expression of a stability factor; wherein the inducer is exogenously added or removed; wherein the stability factor associates in the plastid with an untranslated region of an mRNA to stabilize or translate the mRNA; (ii) a recombinant nucleic acid, wherein the recombinant nucleic acid is in the nucleus of the host cell; wherein the recombinant nucleic acid comprises a first nucleic acid operatively linked to a second nucleic acid to form the recombinant nucleic acid; wherein the first nucleic acid encodes an inducible promoter and wherein the second nucleic acid encodes the stability factor; wherein the cell has an inoperative copy or is missing a copy or a homolog of the second nucleic acid; and (iii) the plastid comprising a third nucleic acid that is either native to the plastid or foreign to the plastid wherein the third nucleic acid encodes the expressed plastid protein wherein the expression of the mRNA encoding the plastid protein is controlled by the stability factor; wherein the stability factor is selected from the group consisting of Nac2, Mbb1, Tbc2 and Tca1.
Method for determining the position of a piece of cargo in a cargo hold by means of a cargo loading system having drive units (2, 3, 4, 5) which comprise overlap sensors, and a data bus, to which the drive units (2, 3, 4, 5) and the overlap sensors are connected, the state of the drive units (2, 3, 4, 5) and of the overlap sensors being monitored by way of the data bus, characterized in that the position of the piece of cargo is calculated from the state of the drive units (2, 3, 4, 5) involved in the transport of the piece of cargo, the time sequence of output signals of the associated overlap sensors and the size of the piece of cargo.
A filled composition comprising a substrate, functional filler, and an inorganic additive for reducing the odour of the filled composition, wherein the inorganic additive is present in an amount sufficient to reduce the odour of the filled composition absent the inorganic additive, wherein the functional filler is a mineral filler and comprises, consists essentially, or consists of, or is a phyllosilicate mineral, wherein the inorganic additive is a mineral additive other than the functional filler, the inorganic additive being a silica-containing or silicate mineral other than wollastonite, wherein the phyllosilicate mineral is talc, wherein the substrate is a polymer, and wherein odour is determined according to standard VDA 270.
A controller for an internal combustion engine, wherein the internal combustion engine includes a filter, which is configured to trap particulate matter in exhaust gas, an EGR passage, which connects a section of an exhaust passage that is upstream of the filter to an intake passage, and an EGR valve, which is configured to adjust a cross-sectional flow area of the EGR passage, the controller comprising processing circuitry, which is configured to execute an EGR control process of operating an opening degree of the EGR valve in accordance with an operating point of the internal combustion engine, thereby adjusting a flow rate of exhaust gas flowing into the intake passage from the EGR passage through an open-loop control, and execute a limiting process of limiting the opening degree of the EGR valve such that the opening degree is likely to decrease when an amount of the particulate matter trapped by the filter is great as compared to when the amount is small, thereby preventing the flow rate of exhaust gas flowing into the intake passage from the EGR passage from becoming excessively great. execute an EGR control process of operating an opening degree of the EGR valve in accordance with an operating point of the internal combustion engine, thereby adjusting a flow rate of exhaust gas flowing into the intake passage from the EGR passage through an open-loop control, and execute a limiting process of limiting the opening degree of the EGR valve such that the opening degree is likely to decrease when an amount of the particulate matter trapped by the filter is great as compared to when the amount is small, thereby preventing the flow rate of exhaust gas flowing into the intake passage from the EGR passage from becoming excessively great.
Ball thread brake for a two-for-one twisting spindle, containing - a tubular brake housing, consisting of an upper housing portion and a lower housing portion detachably connected to the upper housing portion; - a thread inlet tube, which is rotatably coaxially mounted in the upper housing portion; - an upper brake surface ring, which is associated with the thread inlet tube and the height of which is set by rotation of the thread inlet tube; - a brake ball, which interacts with said brake surface ring; - an axially displaceable piston, which is guided, in a sealed manner, in the lower housing portion and which - bears, on the outer side of its upwardly facing crown (9.1), a lower brake surface ring and which - can be adjusted downwards in the axial direction by means of suction counter to the force of a restoring spring, - a brake-force setting device, which acts on the brake unit consisting of the two brake surface rings and of the brake ball, characterised in that, - the brake-force setting device is formed by a brake-force setting spring and/or by the restoring spring which acts from below on the lower brake surface ring, and - the thread inlet tube is rotatably mounted in such a way that axial movement is prevented, and acts on the upper brake surface ring via an element changing a rotary movement into an axial displacement. - a tubular brake housing, consisting of an upper housing portion and a lower housing portion detachably connected to the upper housing portion; - a thread inlet tube, which is rotatably coaxially mounted in the upper housing portion; - an upper brake surface ring, which is associated with the thread inlet tube and the height of which is set by rotation of the thread inlet tube; - a brake ball, which interacts with said brake surface ring; - an axially displaceable piston, which is guided, in a sealed manner, in the lower housing portion and which - bears, on the outer side of its upwardly facing crown (9.1), a lower brake surface ring and which - can be adjusted downwards in the axial direction by means of suction counter to the force of a restoring spring, - bears, on the outer side of its upwardly facing crown (9.1), a lower brake surface ring and which - can be adjusted downwards in the axial direction by means of suction counter to the force of a restoring spring, - a brake-force setting device, which acts on the brake unit consisting of the two brake surface rings and of the brake ball, - the brake-force setting device is formed by a brake-force setting spring and/or by the restoring spring which acts from below on the lower brake surface ring, and - the thread inlet tube is rotatably mounted in such a way that axial movement is prevented, and acts on the upper brake surface ring via an element changing a rotary movement into an axial displacement.
A diagnostic assay for determining the presence of a tumor cell in a sample, the diagnostic assay comprising the steps of a) contacting the sample with an antigen binding molecule comprising an antigen binding domain and a recognition domain, wherein the antigen binding domain comprises a target antigen binding moiety capable of specific binding to the tumor cell; b) contacting the sample with a chimeric antigen receptor expressing reporter T (CAR-T) cell wherein the reporter CAR-T cell comprises: i. a CAR capable of specific binding to the recognition domain, wherein the CAR is operationally coupled to a response element; ii. a reporter gene under the control of the response element; and c) determining T cell activation by measuring the expression of the reporter gene to establish the presence of the tumor cell. a) contacting the sample with an antigen binding molecule comprising an antigen binding domain and a recognition domain, wherein the antigen binding domain comprises a target antigen binding moiety capable of specific binding to the tumor cell; b) contacting the sample with a chimeric antigen receptor expressing reporter T (CAR-T) cell wherein the reporter CAR-T cell comprises: i. a CAR capable of specific binding to the recognition domain, wherein the CAR is operationally coupled to a response element; ii. a reporter gene under the control of the response element; and i. a CAR capable of specific binding to the recognition domain, wherein the CAR is operationally coupled to a response element; ii. a reporter gene under the control of the response element; and c) determining T cell activation by measuring the expression of the reporter gene to establish the presence of the tumor cell.
A controlled-release oral pharmaceutical composition comprising propiverine or pharmaceutically acceptable salt thereof characterized in that, said composition comprises at least two pH dependent polymers in the core matrix and an enteric coating in an amount of the range between 0.5% to 2.5% by weight of core tablet wherein pH dependent polymers in the core matrix are soluble starting from pH 6 Methacrylic Acid - Methyl Methacrylate Copolymer (1:1) and soluble starting from pH 5.5 Methacrylic Acid - Ethyl Acrylate Copolymer (1:1) Type A, wherein the amount of pH dependent polymers in matrix is at least 30% by weight of the composition, and the pH dependent polymer in enteric coating is Methacrylic Acid - Methyl 15 Methacrylate Copolymer (1:2).
A method of transmitting an uplink signal by a user equipment, UE, in a wireless communication system supporting an unlicensed band, the method comprising: mapping the uplink signal to at least one interlace among a plurality of interlaces, wherein one interlace among the plurality of interlaces is composed of a plurality of resource blocks, RBs, having an identical RB interval between consecutive RBs within the one interlace in a unit of a first frequency bandwidth; and transmitting the uplink signal via the at least one interlace in the unlicensed band, wherein the unit of the first frequency bandwidth is 20 MHz, characterized in that based on a configured subcarrier spacing being 15 kHz, wherein the identical RB interval is configured to 10 RBs, and based on the configured subcarrier spacing being 30 kHz, wherein the identical RB interval is configured to 5 RBs. mapping the uplink signal to at least one interlace among a plurality of interlaces, wherein one interlace among the plurality of interlaces is composed of a plurality of resource blocks, RBs, having an identical RB interval between consecutive RBs within the one interlace in a unit of a first frequency bandwidth; and transmitting the uplink signal via the at least one interlace in the unlicensed band, wherein the unit of the first frequency bandwidth is 20 MHz, characterized in that based on a configured subcarrier spacing being 15 kHz, wherein the identical RB interval is configured to 10 RBs, and based on the configured subcarrier spacing being 30 kHz, wherein the identical RB interval is configured to 5 RBs.
A touch display device comprising: a substrate; a plurality of sub-pixels (R, G, B) disposed on the substrate; a display layer disposed on the substrate and corresponding to the plurality of sub-pixels (R, G, B); a plurality of first sense electrodes (72, 82) disposed on the substrate and corresponding to the plurality of sub-pixels (R, G, B), wherein at least one of the plurality of first sense electrodes (72, 82) includes a plurality of sub-electrodes, and the plurality of sub-electrodes are electrically connecting to each other; and characterised in that it further comprises at least one dummy electrode disposed between the plurality of first sense electrodes (72, 82), wherein the at least one of first sense electrode (72, 82) includes two adjacent sub-electrodes (19, 20) with a first distance there between, and at least one of the first sense electrode (72, 82) includes another two adjacent sub-electrodes (20, 22) with a second distance there between, wherein the first distance is equal to a pitch of the plurality of sub-pixels (R, G, B), and the second distance is greater than the pitch of the plurality of sub-pixels (R, G, B). a substrate; a plurality of sub-pixels (R, G, B) disposed on the substrate; a display layer disposed on the substrate and corresponding to the plurality of sub-pixels (R, G, B); a plurality of first sense electrodes (72, 82) disposed on the substrate and corresponding to the plurality of sub-pixels (R, G, B), wherein at least one of the plurality of first sense electrodes (72, 82) includes a plurality of sub-electrodes, and the plurality of sub-electrodes are electrically connecting to each other; and characterised in that it further comprises at least one dummy electrode disposed between the plurality of first sense electrodes (72, 82), wherein the at least one of first sense electrode (72, 82) includes two adjacent sub-electrodes (19, 20) with a first distance there between, and at least one of the first sense electrode (72, 82) includes another two adjacent sub-electrodes (20, 22) with a second distance there between, wherein the first distance is equal to a pitch of the plurality of sub-pixels (R, G, B), and the second distance is greater than the pitch of the plurality of sub-pixels (R, G, B).