mhurhangee/ep-ind-claims huggingface dataset:
A structure being an MOS or a CMOS device comprising: a surfaced silicon wafer having a notch 22.5 degrees away from the plane of the silicon wafer, the notch defining a vertical reference axis lying above the plane of the upper surface of the wafer; a first freestanding semiconductor FET transistor body, etched from the wafer so as to have a vertical side wall comprising an n-type channel region laying along a first crystalline plane being the plane of the silicon wafer; a second freestanding semiconductor FET transistor body etched from the wafer so as to have a vertical side wall comprising a p-type channel region laying along a second crystalline plane being a plane of the silicon wafer; first and second conductors that overlay said n-type and p-type channel regions, respectively at non-orthonormal, non parallel angles with respect to said n-type and p-type channel regions; and wherein the conductors are gate electrodes of the transistors; and wherein the gate electrodes are rectangular and elongated in outline when viewed from above, and with the longer side of the rectangular outline oriented along a direction orthonormal to the reference axis. a surfaced silicon wafer having a notch 22.5 degrees away from the plane of the silicon wafer, the notch defining a vertical reference axis lying above the plane of the upper surface of the wafer; a first freestanding semiconductor FET transistor body, etched from the wafer so as to have a vertical side wall comprising an n-type channel region laying along a first crystalline plane being the plane of the silicon wafer; a second freestanding semiconductor FET transistor body etched from the wafer so as to have a vertical side wall comprising a p-type channel region laying along a second crystalline plane being a plane of the silicon wafer; first and second conductors that overlay said n-type and p-type channel regions, respectively at non-orthonormal, non parallel angles with respect to said n-type and p-type channel regions; and wherein the conductors are gate electrodes of the transistors; and wherein the gate electrodes are rectangular and elongated in outline when viewed from above, and with the longer side of the rectangular outline oriented along a direction orthonormal to the reference axis.
A method for cleaning the end outer surface of a generator conductor, in particular a turbo-generator conductor, wherein the conductor is a cylindrical conductor coupled to a first stator bar joint of the a generator; the method comprising the steps of: a) providing a portable device provided with a grinding tool; b) releasing the coupling between the first stator bar joint and the conductor; c) coupling the grinding device to the conductor, the conductor being still coupled to the generator; d) grinding the end outer surface of the conductor; characterized in that the method comprises also the steps of: e) replacing the first stator bar joint with a second stator bar joint having a cylindrical seat configured to be coupled with the grinded part of the conductor; f) coupling the grinded conductor to the cylindrical seat of the second stator bar joint. a) providing a portable device provided with a grinding tool; b) releasing the coupling between the first stator bar joint and the conductor; c) coupling the grinding device to the conductor, the conductor being still coupled to the generator; d) grinding the end outer surface of the conductor; characterized in that the method comprises also the steps of: e) replacing the first stator bar joint with a second stator bar joint having a cylindrical seat configured to be coupled with the grinded part of the conductor; f) coupling the grinded conductor to the cylindrical seat of the second stator bar joint.
A metal nitride material for a thermistor, consisting of a metal nitride represented by the general formula: Ti x Al y N z where 0.70 ≤ y/(x+y) ≤ 0.95, 0.4 ≤ z ≤ 0.5, and x+y+z = 1, wherein the crystal structure thereof is a hexagonal wurtzite-type single phase.
An arrangement comprising a device which can be used in conjunction with water in combination with at least one source emitting heat rays into the region of the device which can be used with water, wherein the heat ray-emitting source is a source for infrared rays, wherein the source is provided in a space adjoining at least one wall of the device which can be used with water, characterised in that the infrared ray-emitting source is displaceable in height and/or horizontally displaceable and/or displaceable in depth relative to a window in the wall between the source and the device which can be used with water.
A nasal pharmaceutical formulation comprising an aqueous suspension of solid beclomethasone particles, said formulation comprises from 0.04% to 0.045% by weight of solid beclomethasone particles calculated on a dry basis; wherein the solid beclomethasone particles have the following particle size distribution profile: (i) 10% of the particles have a particle size of less than 0.3 μM (microns); (ii) 25% of the particles have a particle size of less than 0.6 μM (microns); (iii) 50% of the particles have a particle size of less than 1.1 μM (microns); (iv) 75% of the particles have a particle size of less than 1.8 μM (microns); (v) 90% of the particles have a particle size of less than 2.7 μM (microns); and (vi) 100% of the particles have a particle size of less than 6.0 μM (microns); for use in treating one or more symptoms of rhinitis wherein the formulation is administered intranasally to the nasal mucosa of an individual. (i) 10% of the particles have a particle size of less than 0.3 μM (microns); (ii) 25% of the particles have a particle size of less than 0.6 μM (microns); (iii) 50% of the particles have a particle size of less than 1.1 μM (microns); (iv) 75% of the particles have a particle size of less than 1.8 μM (microns); (v) 90% of the particles have a particle size of less than 2.7 μM (microns); and (vi) 100% of the particles have a particle size of less than 6.0 μM (microns);
An absorption agent comprising water, an amine compound, and an organic solvent, wherein a value obtained by subtracting a solubility parameter of the organic solvent from a solubility parameter of the amine compound is 1.1 (cal/cm 3) 1/2 or more and 4.2 (cal/cm 3) 1/2 or less, the solubility parameters being calculated according to Fedors method, the amine compound is 2-aminoethanol, 2-(2-aminoethoxy)ethanol, 2-(methylamino)ethanol or 2-(ethylamino)ethanol, the organic solvent is 1-butanol, 1-pentanol or diethyleneglycol diethyl ether, the amine compound is contained in an amount of 20% by mass or more and 40% by mass or less, the organic solvent is contained in an amount of 40% by mass or more and 60% by mass or less, and the absorption agent absorbs an acidic compound, and is phase-separated into a first phase containing the acidic compound in a high content and a second phase containing the acidic compound in a low content after the absorption agent absorbs the acidic compound.
A method of signalling an interception time period, the method comprising: storing during MIKEY-TICKET key exchange, within a repository accessible to a key management service 'KMS', at least one keying information used by the KMS to regenerate an encryption key; signalling a start_interception message from an ADMF to a CSCF to indicate starting of lawful interception; regenerating by the KMS the encryption key using the stored at least one keying information; intercepting the MIKEY-TICKET protected communication; and signalling a halt_message from the ADMF to the CSCF and the KMS to indicate halting of lawful interception. storing during MIKEY-TICKET key exchange, within a repository accessible to a key management service 'KMS', at least one keying information used by the KMS to regenerate an encryption key; signalling a start_interception message from an ADMF to a CSCF to indicate starting of lawful interception; regenerating by the KMS the encryption key using the stored at least one keying information; intercepting the MIKEY-TICKET protected communication; and signalling a halt_message from the ADMF to the CSCF and the KMS to indicate halting of lawful interception.
An electric machine, comprising an electric machine casing and an electric machine protective cover removably fitted to the electric machine casing, wherein multiple cooling fins are provided on the electric machine casing, the electric machine protective cover surrounds the cooling fins, and a flow-guiding channel is formed between the electric machine protective cover and the cooling fins, characterized in that the electric machine protective cover comprises: a body, adapted for movement in an axial direction of the electric machine; and a cleaning plate connected to the body, the cleaning plate being adapted for back-and-forth movement in the axial direction of the electric machine under the driving action of the body, wherein a cooling channel is formed between adjacent cooling fins among the cooling fins, and the cleaning plate has multiple protrusions; the shape of the protrusion fits the shape of the cooling channel, in order to permit insertion of the protrusion into the cooling channel. a body, adapted for movement in an axial direction of the electric machine; and a cleaning plate connected to the body, the cleaning plate being adapted for back-and-forth movement in the axial direction of the electric machine under the driving action of the body, wherein a cooling channel is formed between adjacent cooling fins among the cooling fins, and the cleaning plate has multiple protrusions; the shape of the protrusion fits the shape of the cooling channel, in order to permit insertion of the protrusion into the cooling channel.
Forced oscillation timepiece resonator mechanism arranged to oscillate at a natural frequency (ω0) and comprising, on the one hand, at least one oscillating member (26, 55), and on the other hand, means for maintaining the oscillations arranged to exert an impact and/or a force and/or a torque on said oscillating member (26, 55), wherein said oscillating member (26, 55) carries at least one oscillating regulator device whose natural frequency is a regulation frequency (ωR) that is comprised between 0.9 times and 1.1 times the value of an integer multiple of the natural frequency (ω0) of said resonator mechanism, said integer being greater than or equal to 2, characterized in that said regulator device includes, mounted to pivot freely on said oscillating member (26, 55), at least one secondary sprung balance with an eccentric unbalance relative to the secondary pivot axis about which said secondary sprung balance pivots.
A medical imaging system to image an internal area of an object, the system comprising: a scan unit configured to scan the object to image the internal area of the object; a patient table to convey the object to the scan unit; an imaging unit mounted on at least one surface of the scan unit; a mobile display device configured to display the image of the object captured by the imaging unit; and an input device docked with the mobile display device by wire or wirelessly; a control unit configured to control at least one of the scan unit and the patient table using the mobile display device and the input device docked with the mobile display device; wherein, when a control command signal for a movement of the patient table is input to the input device, the control unit controls the patient table such that the patient table is moved in response to the control command signal. a scan unit configured to scan the object to image the internal area of the object; a patient table to convey the object to the scan unit; an imaging unit mounted on at least one surface of the scan unit; a mobile display device configured to display the image of the object captured by the imaging unit; and an input device docked with the mobile display device by wire or wirelessly; a control unit configured to control at least one of the scan unit and the patient table using the mobile display device and the input device docked with the mobile display device; wherein, when a control command signal for a movement of the patient table is input to the input device, the control unit controls the patient table such that the patient table is moved in response to the control command signal.
Automotive electronic control unit programmed to real-time estimate vehicle mass based on a vehicle acceleration signal from an accelerometer, a vehicle speed signal, and other signals representing a vehicle propulsive/resistive torque; wherein vehicle mass is estimated: a1. when the vehicle is in motion, a2. compensating for accelerometric disturbances due to: a21. vehicle dynamic pitch (2.4); and a22. accelerometric components due to vehicle lateral dynamics (2.5); and a3. based on a recursive least square algorithm with forgetting factor inputted with a compensated vehicle acceleration signal, and a4. at different low gears, to estimate vehicle mass and associated variance for each gear (2.1, 2.2, 2.3), and a5. based on vehicle mass estimations and corresponding variances for each gear, and a6. minimizing uncertainties on propulsive/resistive torque due to gear efficiency and rolling resistance. a1. when the vehicle is in motion, a2. compensating for accelerometric disturbances due to: a21. vehicle dynamic pitch (2.4); and a22. accelerometric components due to vehicle lateral dynamics (2.5); and a21. vehicle dynamic pitch (2.4); and a22. accelerometric components due to vehicle lateral dynamics (2.5); and a3. based on a recursive least square algorithm with forgetting factor inputted with a compensated vehicle acceleration signal, and a4. at different low gears, to estimate vehicle mass and associated variance for each gear (2.1, 2.2, 2.3), and a5. based on vehicle mass estimations and corresponding variances for each gear, and a6. minimizing uncertainties on propulsive/resistive torque due to gear efficiency and rolling resistance.
A wireless device charger configured to produce an alternating magnetic field, thereby inducing an alternating electrical current within a capture coil of a personal electronic device proximate to the wireless device charger, said wireless device charger comprising: a source coil having a ferrite element configured to generate the alternating magnetic field; a housing formed of a thermally conductive material in thermal communication with the ferrite element; an air movement device configured to produce an air flow across a surface of the housing flowing from an air inlet to an air outlet, thereby reducing a housing temperature; characterized in that the surface of the housing defines a plurality of fins extending along the housing in a direction of the air flow, wherein at least one fin in the plurality of fins has a non-symmetric surface, thereby creating turbulence in the air flow. a source coil having a ferrite element configured to generate the alternating magnetic field; a housing formed of a thermally conductive material in thermal communication with the ferrite element; an air movement device configured to produce an air flow across a surface of the housing flowing from an air inlet to an air outlet, thereby reducing a housing temperature; characterized in that the surface of the housing defines a plurality of fins extending along the housing in a direction of the air flow, wherein at least one fin in the plurality of fins has a non-symmetric surface, thereby creating turbulence in the air flow.
An IC chip comprising: a pad connected to a first transmission line outside the chip; a signal line, one end of which is connected to the pad; a termination resistor connected to the other end of the signal line and configured to terminate the first transmission line; a reception-side input unit circuit configured to receive a signal transmitted from a transmission-side via the first transmission line; and a capacitor inserted between a node of the signal line and the termination resistor and an input terminal of the reception-side input unit circuit, characterized in that a length from the node of the signal line and the termination resistor to the input terminal of the reception-side input unit circuit is shorter than a wavelength of a maximum frequency component of a signal handled by the reception-side input unit circuit. a pad connected to a first transmission line outside the chip; a signal line, one end of which is connected to the pad; a termination resistor connected to the other end of the signal line and configured to terminate the first transmission line; a reception-side input unit circuit configured to receive a signal transmitted from a transmission-side via the first transmission line; and a capacitor inserted between a node of the signal line and the termination resistor and an input terminal of the reception-side input unit circuit, characterized in that a length from the node of the signal line and the termination resistor to the input terminal of the reception-side input unit circuit is shorter than a wavelength of a maximum frequency component of a signal handled by the reception-side input unit circuit.
A method of determining a concentration of a target material in a sample, the method comprising: mixing the sample with reagent 1, said reagent 1 comprising (i) an enzyme which is activated by the target material and (ii) at least one substrate of the enzyme, thereby causing the activated enzyme to act on the substrate to produce an enzyme reaction product 1; separately mixing the sample with reagent 2, said reagent 2 comprising (i) a same enzyme which is activated by the target material, (ii) same at least one substrate of the enzyme, and (iii) a capturing material specifically capturing the target material, thereby binding at least part of the target material to the capturing material and causing the activated enzyme to act on the substrate to produce an enzyme reaction product 2; measuring characteristics of the enzyme reaction product 1 and of the enzyme reaction product 2; obtaining a difference value between the measured characteristics of the enzyme reaction product 1 and the measured characteristics of the enzyme reaction product 2; and determining the concentration of the target material included in the sample using the calculated difference value. mixing the sample with reagent 1, said reagent 1 comprising (i) an enzyme which is activated by the target material and (ii) at least one substrate of the enzyme, thereby causing the activated enzyme to act on the substrate to produce an enzyme reaction product 1; separately mixing the sample with reagent 2, said reagent 2 comprising (i) a same enzyme which is activated by the target material, (ii) same at least one substrate of the enzyme, and (iii) a capturing material specifically capturing the target material, thereby binding at least part of the target material to the capturing material and causing the activated enzyme to act on the substrate to produce an enzyme reaction product 2; measuring characteristics of the enzyme reaction product 1 and of the enzyme reaction product 2; obtaining a difference value between the measured characteristics of the enzyme reaction product 1 and the measured characteristics of the enzyme reaction product 2; and determining the concentration of the target material included in the sample using the calculated difference value.
An estimation device (4, 6, 15) comprising: a first acquisition unit that is configured to acquire SOCs at a start and an end in charge, discharge, or floating charge of an energy storage device (2, 3); a storage that is configured to store a plurality of degradation coefficients corresponding to a plurality of SOC ranges; an identification unit that is configured to identify a corresponding degradation coefficient from the plurality of degradation coefficients stored in the storage based on the SOCs at the start and the end acquired by the first acquisition unit; and an estimation unit that is configured to estimate degradation of the energy storage device (2, 3) based on the degradation coefficient identified by the identification unit; characterized in that the storage is configured to store the plurality of degradation coefficients corresponding to the plurality of SOC ranges obtained by dividing SOCs of 0 to 100% at different intervals, and the identification unit is configured to identify the degradation coefficient of an SOC range including the SOCs at the start and end acquired by the first acquisition unit and having a smallest range width in the plurality of SOC ranges. a first acquisition unit that is configured to acquire SOCs at a start and an end in charge, discharge, or floating charge of an energy storage device (2, 3); a storage that is configured to store a plurality of degradation coefficients corresponding to a plurality of SOC ranges; an identification unit that is configured to identify a corresponding degradation coefficient from the plurality of degradation coefficients stored in the storage based on the SOCs at the start and the end acquired by the first acquisition unit; and an estimation unit that is configured to estimate degradation of the energy storage device (2, 3) based on the degradation coefficient identified by the identification unit; characterized in that the storage is configured to store the plurality of degradation coefficients corresponding to the plurality of SOC ranges obtained by dividing SOCs of 0 to 100% at different intervals, and the identification unit is configured to identify the degradation coefficient of an SOC range including the SOCs at the start and end acquired by the first acquisition unit and having a smallest range width in the plurality of SOC ranges.
A system for mixing a fluid in a tank having a floating roof, the system comprising: a mixer assembly having a motor, a shaft, and an impeller; a housing disposed in a side wall of the tank, the housing having sufficient volume to contain the impeller; and wherein the mixer assembly has a first conformation and a second conformation, in the first conformation the impeller is disposed in a main portion of the tank and configured to mix the fluid in response to rotation of the impeller via the motor and shaft, in the second conformation the impeller '22) is disposed in the housing and out of the main portion of the tank; characterized in an actuator configured to retract the mixer assembly and draw the impeller into the housing, a sensor, and a controller, said controller being configured to receive signals from the sensor and to send signals to the actuator to modulate the actuator in response to signals from the sensor in order to automatically draw said impeller into said second configuration in response to the roof falling below a predetermined minimum level. a mixer assembly having a motor, a shaft, and an impeller; a housing disposed in a side wall of the tank, the housing having sufficient volume to contain the impeller; and wherein the mixer assembly has a first conformation and a second conformation, in the first conformation the impeller is disposed in a main portion of the tank and configured to mix the fluid in response to rotation of the impeller via the motor and shaft, in the second conformation the impeller '22) is disposed in the housing and out of the main portion of the tank; characterized in an actuator configured to retract the mixer assembly and draw the impeller into the housing, a sensor, and a controller,