mhurhangee/ep-ind-claims huggingface dataset:
A multi-phase analyte insensitive electrode for use in an electrochemical sensing device for measuring an analyte in a sample, the AIE comprising (a) an electrolytic layer; (b) an electrically conductive component electrically connected to the electrolytic layer; (c) a redox active material capable of being at least one of electrically oxidized and electrically reduced, the redox active material being dispersed in at least one of the electrolytic layer and the conductive component; and (d) a conductive physical barrier positioned so that it is interposed between the electrolytic layer and a sample when the electrode is in contact with a sample that physically separates the electrolytic layer from the sample. (a) an electrolytic layer; (b) an electrically conductive component electrically connected to the electrolytic layer; (c) a redox active material capable of being at least one of electrically oxidized and electrically reduced, the redox active material being dispersed in at least one of the electrolytic layer and the conductive component; and (d) a conductive physical barrier positioned so that it is interposed between the electrolytic layer and a sample when the electrode is in contact with a sample that physically separates the electrolytic layer from the sample.
A semiconductor memory, comprising: a first inverter and a second inverter cross-coupled to one another; wherein the first inverter and the second inverter both include a first p-channel transistor (p0, p1) and a second n-channel transistor (N0, N1) an access transistor coupled to an output of the second inverter; a bit line coupled to the access transistor; and a write bit line coupled to the first inverter; wherein the first p-channel transistor (p0 or p1) of the first inverter is coupled to the write-bit line; a word line coupled to the access transistor, wherein the word line is configured to control a conducting mode of the access transistor; wherein the semiconductor memory is configured to perform an operation of writing a one to the semiconductor memory by unequally biasing the first inverter and the second inverter, which is achieved by: the write-bit line (WBL being driven below the supply voltage (Vdd); the world line being driven to turn on the access transistor, such that the access transistor is conducting; and characterised in that the bit line is being driven above a supply voltage of the semiconductor memory (Vdd) while the access transistor is conducting and while the write-bit line is driven below the supply voltage (Vdd). a first inverter and a second inverter cross-coupled to one another; wherein the first inverter and the second inverter both include a first p-channel transistor (p0, p1) and a second n-channel transistor (N0, N1) an access transistor coupled to an output of the second inverter; a bit line coupled to the access transistor; and a write bit line coupled to the first inverter; wherein the first p-channel transistor (p0 or p1) of the first inverter is coupled to the write-bit line; a word line coupled to the access transistor, wherein the word line is configured to control a conducting mode of the access transistor; wherein the semiconductor memory is configured to perform an operation of writing a one to the semiconductor memory by unequally biasing the first inverter and the second inverter, which is achieved by: the write-bit line (WBL being driven below the supply voltage (Vdd); the world line being driven to turn on the access transistor, such that the access transistor is conducting; and characterised in that the bit line is being driven above a supply voltage of the semiconductor memory (Vdd) while the access transistor is conducting and while the write-bit line is driven below the supply voltage (Vdd). the write-bit line (WBL being driven below the supply voltage (Vdd); the world line being driven to turn on the access transistor, such that the access transistor is conducting; and
A method for detecting leakage of a reducing fluid throughout an electrolyte membrane of an electrochemical cell, the membrane being interposed between an anode channel for the flow of an anode stream, comprising the reducing fluid, along a first side of the membrane, and a cathode channel for the flow of a cathode stream, comprising the oxidizing fluid, along a second side of the membrane, the electrochemical cell comprising means for the flow of electric current between the two sides of the membrane, characterized in that the method comprises the following successive steps: - supplying the cell with anode and cathode streams, the anode stream being at a first pressure and flowing at a first flow rate in the anode channel, the cathode stream being at a second pressure and flowing at a second flow rate in the cathode channel, and a current with a first intensity being exchanged between the two sides of the membrane, - varying at least one controlled parameter abruptly and in a controlled manner, said parameter being chosen from among the following parameters: ∘ pressure of the anode stream in the anode channel, ∘ pressure of the cathode stream in the cathode channel, ∘ flow rate of the anode stream in the anode channel, ∘ flow rate of the cathode stream in the cathode channel, and ∘ intensity of the current exchanged between the two sides of the membrane, - measuring a first concentration (C 1) of reducing fluid in a first stream comprising the cathode stream leaving the cathode channel, and - deducing the presence or absence of a leakage based on the evolution over time of the first measured concentration (C 1) of reducing fluid. - supplying the cell with anode and cathode streams, the anode stream being at a first pressure and flowing at a first flow rate in the anode channel, the cathode stream being at a second pressure and flowing at a second flow rate in the cathode channel, and a current with a first intensity being exchanged between the two sides of the membrane, - varying at least one controlled parameter abruptly and in a controlled manner, said parameter being chosen from among the following parameters: ∘ pressure of the anode stream in the anode channel, ∘ pressure of the cathode stream in the cathode channel, ∘ flow rate of the anode stream in the anode channel, ∘ flow rate of the cathode stream in the cathode channel, and ∘ intensity of the current exchanged between the two sides of the membrane, ∘ pressure of the anode stream in the anode channel, ∘ pressure of the cathode stream in the cathode channel, ∘ flow rate of the anode stream in the anode channel, ∘ flow rate of the cathode stream in the cathode channel, and ∘ intensity of the current exchanged between the two sides of the membrane, - measuring a first concentration (C 1) of reducing fluid in a first stream comprising the cathode stream leaving the cathode channel, and - deducing the presence or absence of a leakage based on the evolution over time of the first measured concentration (C 1) of reducing fluid.
A testosterone gel formulation comprised of: i. from 1.50 to 1.70 % (w/w) testosterone; ii. from 0.6 to 1.2 % (w/w) of isopropyl myristate; iii. from 60 to 80 % (w/w) of alcohol selected from the group consisting of ethanol and isopropanol; iv. a sufficient amount of a thickening agent to give the composition a viscosity in excess of 9000 cps; and v. water; for use in treating hypogonadism in a subject by percutaneous administration. i. from 1.50 to 1.70 % (w/w) testosterone; ii. from 0.6 to 1.2 % (w/w) of isopropyl myristate; iii. from 60 to 80 % (w/w) of alcohol selected from the group consisting of ethanol and isopropanol; iv. a sufficient amount of a thickening agent to give the composition a viscosity in excess of 9000 cps; and v. water; for use in treating hypogonadism in a subject by percutaneous administration.
An imaging member for an image forming device, comprising: a structural mounting component; and an outer surface layer on the structural mounting component, comprising: a silicone polymer substance; and infra-red absorbing particulates dispersed in the silicone polymer substance, the infra-red absorbing particulates being functionalized by adsorbing a block copolymer on a surface of the infra-red absorbing particulates to passivate the infra-red absorbing particulates, wherein the block copolymer comprises poly-(pentafluorostyrene/Maleimide-b-pentafluorostyrene) (P(PFS/MI-b-PFS)). a structural mounting component; and an outer surface layer on the structural mounting component, comprising: a silicone polymer substance; and infra-red absorbing particulates dispersed in the silicone polymer substance, the infra-red absorbing particulates being functionalized by adsorbing a block copolymer on a surface of the infra-red absorbing particulates to passivate the infra-red absorbing particulates, wherein the block copolymer comprises poly-(pentafluorostyrene/Maleimide-b-pentafluorostyrene) (P(PFS/MI-b-PFS)). a silicone polymer substance; and infra-red absorbing particulates dispersed in the silicone polymer substance, the infra-red absorbing particulates being functionalized by adsorbing a block copolymer on a surface of the infra-red absorbing particulates to passivate the infra-red absorbing particulates, wherein the block copolymer comprises poly-(pentafluorostyrene/Maleimide-b-pentafluorostyrene) (P(PFS/MI-b-PFS)).
A method for determining an optimized set of weights for linearly combining alignment data obtained using an alignment sensor system configurable with a value of an operational parameter, the method comprising: obtaining overlay for a plurality of substrates; obtaining alignment data for the plurality of substrates, wherein the alignment data is obtained using the alignment sensor system configured with a plurality of values of the operational parameter; comparing a substrate to substrate variation of the overlay to a substrate to substrate variation of a mapping of the alignment data; and determining the optimized set of weights based on the comparing. obtaining overlay for a plurality of substrates; obtaining alignment data for the plurality of substrates, wherein the alignment data is obtained using the alignment sensor system configured with a plurality of values of the operational parameter; comparing a substrate to substrate variation of the overlay to a substrate to substrate variation of a mapping of the alignment data; and determining the optimized set of weights based on the comparing.
A controller for controlling a wireless network comprising a plurality of nodes to perform radiofrequency-based motion detection, wherein each unique pair of the plurality of nodes forms a respective node pair and collectively results in a plurality of node pairs, wherein the controller is configured to: - select a reference node pair from the plurality of node pairs; - obtain at least one reference characteristic of the reference node pair; - select a subset of node pairs from the plurality of node pairs, wherein each respective node pair in the subset of node pairs comprises a respective characteristic matching the at least one reference characteristic; - perform the radiofrequency-based motion detection with only said subset of node pairs. - select a reference node pair from the plurality of node pairs; - obtain at least one reference characteristic of the reference node pair; - select a subset of node pairs from the plurality of node pairs, wherein each respective node pair in the subset of node pairs comprises a respective characteristic matching the at least one reference characteristic; - perform the radiofrequency-based motion detection with only said subset of node pairs.
A disc (100, 200) arranged for cooperating with a spacer (300, 600, 700) for transporting materials on a roller screen, the disc (100, 200) comprising: a circular main body (104, 204) having a centrally arranged opening (106, 206), through which opening (106, 206) a centrally arranged axis extends; and a wear resistant portion (102, 202) arranged around the circular main body (104, 204), wherein the wear resistant portion (102, 202) comprises a plurality of protuberances (108, 208) circumferentially arranged along the periphery of the wear resistant portion (102, 202) and, which project radially outward from the main body (104, 204), the wear resistant portion (102, 202) comprising a first material, the main body (104, 204) comprising a second material and the first and second materials having different wear resistant properties characterised in that the second material comprises a matrix material, and the first material comprises cemented carbides, having a wear resistance greater than the wear resistance of the matrix material, metallurgically bonded to the matrix material so that the wear resistant portion (102, 202) and the main body (104, 204) are integrated. a circular main body (104, 204) having a centrally arranged opening (106, 206), through which opening (106, 206) a centrally arranged axis extends; and a wear resistant portion (102, 202) arranged around the circular main body (104, 204), wherein the wear resistant portion (102, 202) comprises a plurality of protuberances (108, 208) circumferentially arranged along the periphery of the wear resistant portion (102, 202) and, which project radially outward from the main body (104, 204), the wear resistant portion (102, 202) comprising a first material, the main body (104, 204) comprising a second material and the first and second materials having different wear resistant properties characterised in that the second material comprises a matrix material, and the first material comprises cemented carbides, having a wear resistance greater than the wear resistance of the matrix material, metallurgically bonded to the matrix material so that the wear resistant portion (102, 202) and the main body (104, 204) are integrated.
A passenger compartment for a passenger transport vehicle, this compartment comprising a screen for informing the passengers (P1, P2), wherein the screen is transparent and comprises two faces (35A, 35B) respectively directed towards the front and towards the rear of the compartment and which are respectively readable by passengers present at the front and at the rear of the compartment, characterised in that the compartment further comprises at least one control unit, which controls display on the screen, and a camera (33A, 33B), in that the camera detects the target of each passenger's (P1, P2) gaze and in that the control unit is designed to adapt the content of display on the screen according to the passengers who look at the screen.
Method for park spot routing for a vehicle comprising - providing a start position of the vehicle for the park spot routing, - providing a destination position of the vehicle for the park spot routing, - providing parking data which comprise information about parking facilities and parking probabilities of said parking facilities, - determining a park spot route based on the start position, the destination position and the parking data, wherein the park spot route is determined by means of an adapted A* algorithm, characterized in that: a cost function of the adapted A* algorithm considers the parking probabilities on a road segment and a walking distance from said road segment to the destination position, when said walking distance does not exceed a maximal distance which is chosen by a user and represents a maximal distance that the user is willing to walk from a parking spot to the destination position. - providing a start position of the vehicle for the park spot routing, - providing a destination position of the vehicle for the park spot routing, - providing parking data which comprise information about parking facilities and parking probabilities of said parking facilities, - determining a park spot route based on the start position, the destination position and the parking data, wherein the park spot route is determined by means of an adapted A* algorithm,
A modular tool (19A, 19B, 19C, 19D) for installing a platform into a tower section of a wind turbine tower, comprising a first body element, a second body element, wherein each body element (21, 22) has a first base plate, on which the tower section rests in use of the modular tool (19A, 19B, 19C, 19D), and a second base plate, which rests on a foundation in use of the modular tool (19A, 19B, 19C, 19D), wherein the base plates (23, 24) are spaced apart from each other and are arranged parallel to each other, and at least one connecting beam (53 - 55) that detachable connects the body elements (21, 22) to each other and that defines a width (w) of a gap between the body elements (21, 22); characterised in that the modular tool, further comprises pivotable adjustment devices (73 - 76) on which the tower section rests in use of the modular tool (19A, 19B, 19C, 19D), and in that each adjustment device (73 - 76) comprises an adjustable bolt that can be received in a flange of the tower section.
A hydraulic control device (1; 1a) that controls a hydraulic pressure of oil supplied for operating a power transmission device including a belt-type continuously variable transmission mechanism and a clutch, the hydraulic control device (1; 1a), comprising: a hydraulic path including at least a first hydraulic passage and a second hydraulic passage; the hydraulic control device (1; 1a) being characterized in that an electric pump is disposed on the hydraulic path and is configured to supply oil to the belt-type continuously variable transmission mechanism through the first and second passages (36a, 36b) of the hydraulic path based on motor driving; an accumulator (44; 84) fluidly connected to the hydraulic path downstream from the electric pump and the first and second hydraulic passages (36a, 36b) and configured to accumulate oil inside by using the oil supplied by the electric pump, and supply the oil to the clutch by discharging the accumulated oil through the hydraulic path; and a check valve disposed on the hydraulic path between the accumulator (44;84) and the first and second hydraulic passages (36a, 36b) configured to prevent oil discharged from the accumulator (44;84) from flowing upstream in the hydraulic path. a hydraulic path including at least a first hydraulic passage and a second hydraulic passage; the hydraulic control device (1; 1a) being characterized in that an electric pump is disposed on the hydraulic path and is configured to supply oil to the belt-type continuously variable transmission mechanism through the first and second passages (36a, 36b) of the hydraulic path based on motor driving; an accumulator (44; 84) fluidly connected to the hydraulic path downstream from the electric pump and the first and second hydraulic passages (36a, 36b) and configured to accumulate oil inside by using the oil supplied by the electric pump, and supply the oil to the clutch by discharging the accumulated oil through the hydraulic path; and a check valve disposed on the hydraulic path between the accumulator (44;84) and the first and second hydraulic passages (36a, 36b) configured to prevent oil discharged from the accumulator (44;84) from flowing upstream in the hydraulic path.
Electrical outlet (100, 200, 300, 400) for providing electrical power, the electrical outlet (100, 200, 300, 400) comprising: a carrier, at least one phase input (102, 202) arranged on the carrier and at least one phase pin (103, 203, 213) arranged on the carrier, at least one neutral input (104, 204) arranged on the carrier and at least one neutral pin (105, 205, 214) arranged on the carrier and electrically coupled to the at least one neutral input (104, 204), a switch (106, 206, 215, 306, 315, 406, 415) for every phase input (102, 202) that is electrically arranged between the respective phase input (102, 202) and the corresponding phase pin (103, 203, 213), and characterized by a deactivation unit (107, 207, 307, 407) configured to monitor the correct mechanical installation of the electrical outlet (100, 200, 300, 400), e.g. in a respective wall box or in the housing of an electrical equipment, and configured to control the switches (106, 206, 215, 306, 315, 406, 415) to open if the electrical outlet (100, 200, 300, 400) is not correctly mechanically installed. a carrier, at least one phase input (102, 202) arranged on the carrier and at least one phase pin (103, 203, 213) arranged on the carrier, at least one neutral input (104, 204) arranged on the carrier and at least one neutral pin (105, 205, 214) arranged on the carrier and electrically coupled to the at least one neutral input (104, 204), a switch (106, 206, 215, 306, 315, 406, 415) for every phase input (102, 202) that is electrically arranged between the respective phase input (102, 202) and the corresponding phase pin (103, 203, 213), and characterized by a deactivation unit (107, 207, 307, 407) configured to monitor the correct mechanical installation of the electrical outlet (100, 200, 300, 400), e.g. in a respective wall box or in the housing of an electrical equipment, and configured to control the switches (106, 206, 215, 306, 315, 406, 415) to open if the electrical outlet (100, 200, 300, 400) is not correctly mechanically installed.
A device, comprising: an electronic component positioned on a base; and, a structural component surrounding the electronic component to provide at least a portion of a shield can around the electronic component; the structural component having a first thickness (D 1) defined between opposing first and second surfaces and an inwardly facing tab, and, wherein the inwardly facing tab defines an upper surface extending downwardly from the first surface, an offset lower surface extending upwardly from the second surface past at least a portion of the upper surface, and a surface connecting the upper surface and the offset lower surface and having a second thickness (D 5) that is less than the first thickness (D 1); wherein the second thickness (D 5) is measured at a narrowest point between the upper surface and the lower surface and the second thickness (D 5) is less than 0.25 x the first thickness (D 1). an electronic component positioned on a base; and, a structural component surrounding the electronic component to provide at least a portion of a shield can around the electronic component; the structural component having a first thickness (D 1) defined between opposing first and second surfaces and an inwardly facing tab, and, wherein the inwardly facing tab defines an upper surface extending downwardly from the first surface, an offset lower surface extending upwardly from the second surface past at least a portion of the upper surface, and a surface connecting the upper surface and the offset lower surface and having a second thickness (D 5) that is less than the first thickness (D 1); wherein the second thickness (D 5) is measured at a narrowest point between the upper surface and the lower surface and the second thickness (D 5) is less than 0.25 x the first thickness (D 1).
A computing system (20; 30; 40; 50; 60) comprising: a plurality of functional blocks (200; 300; 400) each functional block including a functional unit (204; 304; 404; 501; 700), and a magnetoresistive random access memory, MRAM, block (206; 306; 406; 503; 601; 702) coupled to the functional unit, the MRAM block configured to store an operational state of the functional unit (204; 304; 404; 501; 700) during a standby state of the functional block including the functional unit; wherein the computer system is adapted to place one of the functional blocks in a standby state when another of the functional blocks is in a power on state. a plurality of functional blocks (200; 300; 400) each functional block including a functional unit (204; 304; 404; 501; 700), and a magnetoresistive random access memory, MRAM, block (206; 306; 406; 503; 601; 702) coupled to the functional unit, the MRAM block configured to store an operational state of the functional unit (204; 304; 404; 501; 700) during a standby state of the functional block including the functional unit; wherein the computer system is adapted to place one of the functional blocks in a standby state when another of the functional blocks is in a power on state.