mhurhangee/ep-ind-claims huggingface dataset:
A ferroelectric device, the ferroelectric device being a non-volatile memory, comprising: an organic polymer substrate; a first electrode disposed on the organic polymer substrate; a ferroelectric layer disposed on and in contact with the first electrode; and a second electrode disposed on and in contact with the ferroelectric layer, wherein the first electrode and the second electrode are each an organic electrode comprising a doped electroconductive organic polymer, wherein the doped electroconductive organic polymer comprises: an intrinsically conductive organic polymer, and a dopant in an amount effective to increase the electroconductivity of the intrinsically conductive organic polymer by two orders of magnitude or more. an organic polymer substrate; a first electrode disposed on the organic polymer substrate; a ferroelectric layer disposed on and in contact with the first electrode; and a second electrode disposed on and in contact with the ferroelectric layer, wherein the first electrode and the second electrode are each an organic electrode comprising a doped electroconductive organic polymer, wherein the doped electroconductive organic polymer comprises: an intrinsically conductive organic polymer, and a dopant in an amount effective to increase the electroconductivity of the intrinsically conductive organic polymer by two orders of magnitude or more. an intrinsically conductive organic polymer, and a dopant in an amount effective to increase the electroconductivity of the intrinsically conductive organic polymer by two orders of magnitude or more.
Temperature calibration arrangement, comprising an enclosure having one or more inner surfaces and a calibrator block having one or more outer surfaces, wherein the calibrator block is positioned in the enclosure with the outer surfaces of the block positioned at a distance from the inner surfaces of the enclosure, the calibrator block having a longitudinal direction and a radial direction and being provided with a cavity suitable for receiving a temperature probe to be calibrated, wherein the enclosure is provided with an inlet for allowing gas to flow into the enclosure, past the outer surfaces of the calibrator block, wherein the enclosure is provided with an outlet for allowing the gas to flow out of the enclosure, wherein the inlet and optionally the outlet is provided with a shutter (3, 4) that is moveable between a first position wherein the inlet, respectively the outlet, is open to allow gas to flow through the inlet into the enclosure, respectively the outlet, to allow gas to flow out of the enclosure, and a second position in which the inlet, respectively the outlet, is closed preventing gas from flowing through the inlet into the enclosure, respectively the outlet, preventing gas from flowing out of the enclosure, wherein the enclosure comprises a front wall and an opposing back wall, both extending substantially in the radial direction, and one or more side walls substantially extending in the longitudinal direction and connecting the front and back walls, characterized in that the inlet is provided in the front wall and the outlet is provided in the back wall, and in that a fan is arranged near the inlet, upstream thereof, for causing gas to flow into the enclosure via the inlet when the inlet is open or for causing gas to flow past the exterior of the enclosure when the inlet is closed.
An apparatus comprising: (a) a shell (3, 41) having an inner wall and an outer wall; (b) at least two support members (7-29, 33, 35, 37), wherein the at least two support members extend through the inner wall and the outer wall of the shell; (c) a plurality of side supports (2, 4, 34, 36) proximal to the outer wall and coupled to the at least two support members; and (d) at least one stiffener (77, 87) coupling the inner wall (83, 89) and one or more of the at least two support members (85, 91). (a) a shell (3, 41) having an inner wall and an outer wall; (b) at least two support members (7-29, 33, 35, 37), wherein the at least two support members extend through the inner wall and the outer wall of the shell; (c) a plurality of side supports (2, 4, 34, 36) proximal to the outer wall and coupled to the at least two support members; and (d) at least one stiffener (77, 87) coupling the inner wall (83, 89) and one or more of the at least two support members (85, 91).
A method of analyzing a sample containing an analyte to be qualitatively and/or quantitatively determined, comprising a binding step and a washing step, wherein the binding step comprises: a) interacting the analyte with beads having a density m1; b) obtaining a structure of packed beads comprising quantifiable bead complexes having a density m2; and the washing step comprises: c) dispersing the packed beads in a liquid medium having a density d > m2 and m1; and d) separating the liquid medium and the beads comprising the quantifiable bead complexes. a) interacting the analyte with beads having a density m1; b) obtaining a structure of packed beads comprising quantifiable bead complexes having a density m2; and c) dispersing the packed beads in a liquid medium having a density d > m2 and m1; and d) separating the liquid medium and the beads comprising the quantifiable bead complexes.
A chuck device comprising: at least two first jaw members movable generally toward and away from one another, each first jaw member having a fixed gripping member and an opposed gripping member, said opposed gripping member being movable between an open position and a closed position, said fixed gripping member and said opposed gripping member being operable to grip and release a first end of a second jaw member having a second end thereof configured to grip an object, whereby gripping and releasing by the first jaw members is carried out in a tool-less manner, and wherein said opposed gripping member comprises a first end and a second end, characterized by said first end being pivotable whereby said opposed gripping member is movable between said open position and said closed position, said second end being a gripping end. at least two first jaw members movable generally toward and away from one another, each first jaw member having a fixed gripping member and an opposed gripping member, said opposed gripping member being movable between an open position and a closed position, said fixed gripping member and said opposed gripping member being operable to grip and release a first end of a second jaw member having a second end thereof configured to grip an object, whereby gripping and releasing by the first jaw members is carried out in a tool-less manner, and wherein said opposed gripping member comprises a first end and a second end, characterized by said first end being pivotable whereby said opposed gripping member is movable between said open position and said closed position, said second end being a gripping end.
Apparatus designed to determine the temperature of a medium in a tube or in a vessel, wherein the apparatus can be mounted or inserted in a tube or vessel wall, with a measuring tube projecting into the medium, said measuring tube being closed by a measuring tube floor at the end facing towards the medium, with a resistance-based temperature sensor as a main sensor and a thermoelectric voltage-based temperature sensor as a secondary sensor, wherein the main sensor and the secondary sensor transmit their measured values to an evaluation/transmitter unit, wherein the main sensor and the secondary sensor are arranged in the measuring tube in relation to the longitudinal axis of the measuring tube with a fixed offset in relation to one another, and the main sensor is mounted closer to the measuring tube floor than the secondary sensor, wherein the main sensor and the secondary sensor each has an electrical measuring circuit, said circuits being electrically isolated in relation to the measuring tube, wherein changes to the electrical isolation of the measuring circuits differently affect the measured values of the main sensor and of the secondary sensor, and wherein the evaluation/transmitter unit is designed to generate an error message concerning the integrity of the apparatus with regard to the electrical isolation if the value of the difference (|ΔT|) between the measured values of the main sensor and of the secondary sensor exceed a first predefined threshold (ΔT max) and wherein the apparatus is designed to correct a mounting error using the main sensor and the secondary sensor arranged along the longitudinal axis at an fixed offset in relation to one another.
A secure array access apparatus comprising: a storage that stores an array of concealed values [x' →] of an array x' → and an array of addresses a' → corresponding to respective elements of the array of concealed values [x' →]; a refresh unit that determines a concealed value of a parameter F, an array of concealed values [x^] of an array x^, and an array of public tags b^, where ρ is random permutation, the array x^ is an array generated by permutating the array x' → with the permutation ρ, a → is an array of addresses generated by permutating the array of addresses a' → with the permutation ρ, Tag F' is a function representing injection from an address to a tag with F' being a parameter, the parameter F is a random parameter, the array b^ is an array of public tags calculated from respective elements of the array of addresses a^ with the function Tag F, when an input is a concealed value, Tag executes each operation in Tag while keeping the input value concealed, and when the input is an array, Tag calculates each operation in Tag for each of the elements of the array; and an access unit that performs a desired access to an element of the array of concealed values [x^] corresponding to a tag that is calculated from an input concealed value [j] of an access position j with the function Tag and the concealed value of the parameter. a storage that stores an array of concealed values [x' →] of an array x' → and an array of addresses a' → corresponding to respective elements of the array of concealed values [x' →]; a refresh unit that determines a concealed value of a parameter F, an array of concealed values [x^] of an array x^, and an array of public tags b^, where ρ is random permutation, the array x^ is an array generated by permutating the array x' → with the permutation ρ, a → is an array of addresses generated by permutating the array of addresses a' → with the permutation ρ, Tag F' is a function representing injection from an address to a tag with F' being a parameter, the parameter F is a random parameter, the array b^ is an array of public tags calculated from respective elements of the array of addresses a^ with the function Tag F, when an input is a concealed value, Tag executes each operation in Tag while keeping the input value concealed, and when the input is an array, Tag calculates each operation in Tag for each of the elements of the array; and an access unit that performs a desired access to an element of the array of concealed values [x^] corresponding to a tag that is calculated from an input concealed value [j] of an access position j with the function Tag and the concealed value of the parameter.
A secondary disconnect assembly for an electrical switching apparatus, said secondary disconnect assembly comprising: a terminal block mount having a number of first mounting features (280,290,292); characterised by at least one terminal block including a number of second mounting features (480,490,492) and a number of receptacles (410,412), said second mounting features (480,490,492) cooperating with said first mounting features (280,290,292) to properly align, mount and stabilize said terminal block on said terminal block mount; and at least one accessory plug including a number of contact alignment features (540,542,550,552) structured to align and guide said accessory plug into a corresponding one of the receptacles (410,412). a terminal block mount having a number of first mounting features (280,290,292); characterised by at least one terminal block including a number of second mounting features (480,490,492) and a number of receptacles (410,412), said second mounting features (480,490,492) cooperating with said first mounting features (280,290,292) to properly align, mount and stabilize said terminal block on said terminal block mount; and at least one accessory plug including a number of contact alignment features (540,542,550,552) structured to align and guide said accessory plug into a corresponding one of the receptacles (410,412).
Surveillance camera comprising - an optical sensor, - an actuator arranged to adjust a field of view of the optical sensor in such a way that the field of view can be adjusted respectively at least into one surveillance region and at least into an inactive region which is spatially disjunctive at least in parts with respect to the surveillance region, wherein - the actuator adjusts the field of view between the surveillance region and the inactive region depending on an external control signal, characterized in that - a position of the actuator for capturing the surveillance region and a position of the actuator for capturing the inactive region can be parameterized by a user. - an optical sensor, - an actuator arranged to adjust a field of view of the optical sensor in such a way that the field of view can be adjusted respectively at least into one surveillance region and at least into an inactive region which is spatially disjunctive at least in parts with respect to the surveillance region, wherein - the actuator adjusts the field of view between the surveillance region and the inactive region depending on an external control signal, - a position of the actuator for capturing the surveillance region and a position of the actuator for capturing the inactive region can be parameterized by a user.
An interrupt controller comprising: circuitry coupled to receive interrupts from one or more devices (64A-64B) in a system; and an interrupt router coupled to the circuitry and configured to select a processor (60A; 60B) from a plurality of processors (60A-60B) in the system for a first received interrupt, and wherein the interrupt router is configured to cause an interrupt to be signalled to the selected processor (60A; 60B), wherein the interrupt router is configured to monitor a status of the plurality of processors (60A-60B) and to select the selected processor (60A; 60B) responsive to the status, wherein the interrupt router is further configured to initialize a timeout counter in response to signalling the interrupt to the selected processor (60A; 60B), characterized by: the interrupt router is configured to select another processor (60A; 60B) for the interrupt responsive to detecting expiration of the timeout counter without a response from the selected processor (60A; 60B), and wherein the interrupt router is configured to view the selected processor (60A; 60B) as non-responsive in response to detecting expiration of the timeout counter for the interrupt without a response from the selected processor (60A; 60B), and wherein the interrupt router is configured to identify the non-responsive processor (60A; 60B) as less preferred for selection for a subsequent interrupt. circuitry coupled to receive interrupts from one or more devices (64A-64B) in a system; and an interrupt router coupled to the circuitry and configured to select a processor (60A; 60B) from a plurality of processors (60A-60B) in the system for a first received interrupt, and wherein the interrupt router is configured to cause an interrupt to be signalled to the selected processor (60A; 60B), wherein the interrupt router is configured to monitor a status of the plurality of processors (60A-60B) and to select the selected processor (60A; 60B) responsive to the status, wherein the interrupt router is further configured to initialize a timeout counter in response to signalling the interrupt to the selected processor (60A; 60B), characterized by: the interrupt router is configured to select another processor (60A; 60B) for the interrupt responsive to detecting expiration of the timeout counter without a response from the selected processor (60A; 60B), and wherein the interrupt router is configured to view the selected processor (60A; 60B) as non-responsive in response to detecting expiration of the timeout counter for the interrupt without a response from the selected processor (60A; 60B), and wherein the interrupt router is configured to identify the non-responsive processor (60A; 60B) as less preferred for selection for a subsequent interrupt.
A controller configured to control the programming of a data word into a programmable memory device, wherein the programmable memory device comprises a pin for a pulse width control signal configured to digitally control a default programming time interval for writing the data word into the programmable memory device and a pin for a data signal indicative of the data word which is to be programmed; wherein the controller is configured to - set digital control signals (201, 202, 203, 204) for programming the data word into the programmable memory device; wherein the digital control signals comprise the data signal and the pulse width control signal; - subsequent to setting the digital control signals, increase a device supply voltage for the programmable memory device from a default operation level to a programming level, in order to write the data word into the programmable memory device; - subsequent to a programming time interval, decrease the device supply voltage from the programming level to the default operation level; and - subsequent to decreasing the device supply voltage, reset the pulse width control signal. - set digital control signals (201, 202, 203, 204) for programming the data word into the programmable memory device; wherein the digital control signals comprise the data signal and the pulse width control signal; - subsequent to setting the digital control signals, increase a device supply voltage for the programmable memory device from a default operation level to a programming level, in order to write the data word into the programmable memory device; - subsequent to a programming time interval, decrease the device supply voltage from the programming level to the default operation level; and - subsequent to decreasing the device supply voltage, reset the pulse width control signal.
Process for producing a ceramic heat shield for a gas turbine and having the steps of: - providing an aluminium oxide-containing ceramic body; and - producing a surface layer of the ceramic body containing yttrium aluminium garnet as reaction coating material, characterized in that the reaction coating former contains yttrium nitrate. - providing an aluminium oxide-containing ceramic body; and - producing a surface layer of the ceramic body containing yttrium aluminium garnet as reaction coating material,
A bone fixation implant configured for insertion into a femoral head, comprising: an elongated implant shaft (130;...; 930) extending from a proximal end to a distal end along a central longitudinal axis and including a first channel extending from the proximal end to a side opening formed in a side wall of the implant shaft along a first axis and further comprising a second channel extending longitudinally through the implant shaft from the proximal end to the distal end along a second axis, the second channel configured to receive a guide wire therethrough to guide insertion of the implant shaft into a bone, characterized in that the first and second channel axes enclose an angle of one of 5°, 6°, 7.5° and 8°.
Thermal energy storage device comprising a heat-transfer fluid thermal energy exchanger and an enclosure filled with phase change material wherein is immersed said exchanger, tubes, plates comprising openings for tubes through which are arranged the tubes, at least some plates having reliefs acting as plate spacers making it possible to stack the plates in contact on top of one another by maintaining between two juxtaposed plates, a space characterised in that the plates are perforated.
An electronic device comprising: a display including a plurality of regions; a plurality of transceiver corresponding to the plurality of regions; and at least one processor configured to: display, on the plurality of regions of the display, a first content associated with a first application, detect a second electronic device by using a first transceiver from among the plurality of transceivers, identify a first region corresponding to the first transceiver, from among the plurality of regions, receive, from the second electronic device, information regarding a second content associated with a second application, and display the second content on the first region, and the first content on remaining regions except for the first region from among the plurality of regions. a display including a plurality of regions; a plurality of transceiver corresponding to the plurality of regions; and at least one processor configured to: display, on the plurality of regions of the display, a first content associated with a first application, detect a second electronic device by using a first transceiver from among the plurality of transceivers, identify a first region corresponding to the first transceiver, from among the plurality of regions, receive, from the second electronic device, information regarding a second content associated with a second application, and display the second content on the first region, and the first content on remaining regions except for the first region from among the plurality of regions. display, on the plurality of regions of the display, a first content associated with a first application, detect a second electronic device by using a first transceiver from among the plurality of transceivers, identify a first region corresponding to the first transceiver, from among the plurality of regions, receive, from the second electronic device, information regarding a second content associated with a second application, and display the second content on the first region, and the first content on remaining regions except for the first region from among the plurality of regions.
Method for predicting topography information (BN, K_roll, K_tract) for a vehicle, having the following method steps: - assigning in each case at least one item of topography information (BN, K_roll, K_tract) to different driving positions (P_akt, P_praed) of the vehicle, - determining a future driving position (P_praed), - querying at least one item of topography information (BN, K_roll, K_tract) assigned to the determined future driving position (P_praed), characterized in that the future driving position (P_praed) is determined - on the basis of a cell (26_akt) representing the current driving position (P_akt) of the vehicle, or - on the basis of a cell (26_N) arranged adjacent to the cell (26_akt) representing the current driving position (P_akt) of the vehicle. - assigning in each case at least one item of topography information (BN, K_roll, K_tract) to different driving positions (P_akt, P_praed) of the vehicle, - determining a future driving position (P_praed), - querying at least one item of topography information (BN, K_roll, K_tract) assigned to the determined future driving position (P_praed), characterized in that the future driving position (P_praed) is determined - on the basis of a cell (26_akt) representing the current driving position (P_akt) of the vehicle, or - on the basis of a cell (26_N) arranged adjacent to the cell (26_akt) representing the current driving position (P_akt) of the vehicle.