mhurhangee/ep-ind-claims huggingface dataset:
A Fabry-Perot sensor comprising: a base; a cavity formed between the base and a pressure sensitive diaphragm, and closed by the base and the pressure sensitive diaphragm; the pressure sensitive diaphragm fixed to the base, wherein the pressure sensitive diaphragm has at least one local areas, each of the at least one local areas has a doping substance doped into a base material of the pressure sensitive diaphragm to generate stresses, any of the at least one local areas does not extend the entire thickness of the pressure sensitive diaphragm, and the pressure sensitive diaphragm exhibits a wavy structure under the action of the stresses generated by doping; and a fiber optic configured to conduct a light signal, wherein one end of the fiber optic is fixed to a fiber optic mounting portion of the base, and the fiber optic mounting portion is located at an end of the base opposite the cavity. a base; a cavity formed between the base and a pressure sensitive diaphragm, and closed by the base and the pressure sensitive diaphragm; the pressure sensitive diaphragm fixed to the base, wherein the pressure sensitive diaphragm has at least one local areas, each of the at least one local areas has a doping substance doped into a base material of the pressure sensitive diaphragm to generate stresses, any of the at least one local areas does not extend the entire thickness of the pressure sensitive diaphragm, and the pressure sensitive diaphragm exhibits a wavy structure under the action of the stresses generated by doping; and a fiber optic configured to conduct a light signal, wherein one end of the fiber optic is fixed to a fiber optic mounting portion of the base, and the fiber optic mounting portion is located at an end of the base opposite the cavity.
An animal collar comprising: a belt extending from a first end to a second end, wherein an outer surface of the belt is continuously smooth from the second end of the belt to at least a midpoint between the first end and the second end of the belt; and a buckle connected to the first end of the belt, wherein the buckle comprises: a body defining a passage extending therethrough for receiving the second end of the belt therein; and a deflectable tab connected to the body and configured to deflect towards and away from the passage, wherein the deflectable tab comprises a tooth; wherein the buckle is configured to automatically release the belt when the belt is subjected to a force that exceeds a threshold force, without permanently deforming or destroying the collar, characterised in that the tooth extends into the passage for engagement with the belt, wherein the tab is biased towards an initial, undeflected position such that, when the second end of the belt is inserted into the passage, the tooth exhibits a frictional force on the belt sufficient to inhibit sliding of the belt up to the threshold force. a belt extending from a first end to a second end, wherein an outer surface of the belt is continuously smooth from the second end of the belt to at least a midpoint between the first end and the second end of the belt; and a buckle connected to the first end of the belt, wherein the buckle comprises: a body defining a passage extending therethrough for receiving the second end of the belt therein; and a deflectable tab connected to the body and configured to deflect towards and away from the passage, wherein the deflectable tab comprises a tooth; wherein the buckle is configured to automatically release the belt when the belt is subjected to a force that exceeds a threshold force, without permanently deforming or destroying the collar, characterised in that a body defining a passage extending therethrough for receiving the second end of the belt therein; and a deflectable tab connected to the body and configured to deflect towards and away from the passage, wherein the deflectable tab comprises a tooth; wherein the buckle is configured to automatically release the belt when the belt is subjected to a force that exceeds a threshold force, without permanently deforming or destroying the collar, characterised in that
System for an artificial perspective simulating the continued roadway in a light testing tunnel, wherein at least one screen (15, 15') is arranged on the wall at the end of the light testing tunnel, the length (dt) of which is less than 80 m, characterized in that shapes of objects of various light and reflective materials that simulate the continued roadway are provided on the screen (15, 15').
A system comprising: a focused ion beam column coupled to receive a gas and configured to generate a focused ion beam with or from the gas at a second, relatively high electrical potential, such that the focused ion beam column receives the gas at a relatively high electrical potential; and a gas delivery system (122, 222, 422) configured to be held at a first, relatively low potential and coupled to provide the gas to the focused ion column, characterized in that the system includes a gas delivery conduit (130, 232, 332, 432, 532) extending between the first, relatively low and the second, relatively high electrical potentials, wherein the gas delivery conduit is formed into a tilted helical shape so that a gas flowing through the gas delivery conduit experiences an electric field reversal through each winding of the gas delivery conduit. a focused ion beam column coupled to receive a gas and configured to generate a focused ion beam with or from the gas at a second, relatively high electrical potential, such that the focused ion beam column receives the gas at a relatively high electrical potential; and a gas delivery system (122, 222, 422) configured to be held at a first, relatively low potential and coupled to provide the gas to the focused ion column, characterized in that the system includes a gas delivery conduit (130, 232, 332, 432, 532) extending between the first, relatively low and the second, relatively high electrical potentials, wherein the gas delivery conduit is formed into a tilted helical shape so that a gas flowing through the gas delivery conduit experiences an electric field reversal through each winding of the gas delivery conduit.
Method for external monitoring of power electronics, wherein the power electronics are actuated by means of first control electronics and the method is carried out by independent, second control electronics, having the steps of: determining a parameter that correlates to the behaviour of the power electronics; determining the difference between the determined parameter and a target value; actuating the power electronics by means of the second control electronics if the amount of the difference exceeds a threshold, wherein the step of actuation of the power electronics by means of the second control electronics comprises the specification of a control requirement to the first control electronics, wherein the control requirement comprises a specification of a torque to the power electronics or a requirement to place the power electronics in a safe state, wherein the second control electronics are arranged inside a housing of a control device, characterized in that the control device is inherently safe and independent of the power electronics, wherein the control device therefore comprises a second microprocessor for independently monitoring the control device. determining a parameter that correlates to the behaviour of the power electronics; determining the difference between the determined parameter and a target value; actuating the power electronics by means of the second control electronics if the amount of the difference exceeds a threshold, wherein the step of actuation of the power electronics by means of the second control electronics comprises the specification of a control requirement to the first control electronics, wherein the control requirement comprises a specification of a torque to the power electronics or a requirement to place the power electronics in a safe state, wherein the second control electronics are arranged inside a housing of a control device, characterized in that the control device is inherently safe and independent of the power electronics, wherein the control device therefore comprises a second microprocessor for independently monitoring the control device.
A device for use in microgravity environments, the device comprising: a first member for supporting a user; a second member, attached to the first member, comprising a counterbalance portion; wherein the first member and the second member are each moveable, and operable to slide with respect to each other in opposite directions, between a first position and a second position; wherein the device is operable such that between the first and second positions, the combined centre of mass of the device and its user remains substantially fixed; and characterised in that the mass of the counterbalance portion is variable for balancing the mass of the first member and the user with the mass of the second member. a first member for supporting a user; a second member, attached to the first member, comprising a counterbalance portion; wherein the first member and the second member are each moveable, and operable to slide with respect to each other in opposite directions, between a first position and a second position; wherein the device is operable such that between the first and second positions, the combined centre of mass of the device and its user remains substantially fixed; and characterised in that the mass of the counterbalance portion is variable for balancing the mass of the first member and the user with the mass of the second member.
A home appliance comprising: a memory to store diagnostic data; a communication unit to exchange data with a mobile terminal; a sound output unit; and a controller that in response to reception of a diagnostic data request through the communication unit is configured to: control the sound output unit to output sound corresponding to the diagnostic data stored in the memory, characterized in that: the sound output unit includes an inverter comprising a plurality of switching elements (Sa, Sb, Sc) and is configured to convert DC power into AC power by switching of the switching elements (Sa, Sb, Sc) and to supply the AC power to a three-phase synchronous motor, and the sound output unit using the inverter and the motor to output sound; wherein the controller is configured to vary a volume of the output sound according to a distance from the home appliance to the mobile terminal and to vary a switching frequency of each switching element of the inverter and to control sound corresponding to the varied switching frequency to be outputted, wherein the controller is configured to vary a level of current flowing in the motor so as to vary a volume of the output sound. a memory to store diagnostic data; a communication unit to exchange data with a mobile terminal; a sound output unit; and a controller that in response to reception of a diagnostic data request through the communication unit is configured to: control the sound output unit to output sound corresponding to the diagnostic data stored in the memory, characterized in that: the sound output unit includes an inverter comprising a plurality of switching elements (Sa, Sb, Sc) and is configured to convert DC power into AC power by switching of the switching elements (Sa, Sb, Sc) and to supply the AC power to a three-phase synchronous motor, and the sound output unit using the inverter and the motor to output sound; the sound output unit includes an inverter comprising a plurality of switching elements (Sa, Sb, Sc) and is configured to convert DC power into AC power by switching of the switching elements (Sa, Sb, Sc) and to supply the AC power to a three-phase synchronous motor, and the sound output unit using the inverter and the motor to output sound; wherein the controller is configured to vary a volume of the output sound according to a distance from the home appliance to the mobile terminal and to vary a switching frequency of each switching element of the inverter and to control sound corresponding to the varied switching frequency to be outputted, wherein the controller is configured to vary a level of current flowing in the motor so as to vary a volume of the output sound.
A permanent magnet type concentrated winding motor that includes a stator (Sr) and a rotor (Rr) having a plurality of magnetic poles, wherein the rotor (Rr) has magnetic poles (PM1 to PM22) that are configured to have magnetized permanent magnets, and the number of the magnetic poles (PM1 to PM22) is M, the stator (Sr) has teeth (T1 to T18) around which coils (U11, U12, U13, U21, U22, U23, V11, V12, V13, V21, V22, V23, W11, W12, W13, W21, W22 and W23) are wound in a concentrated manner and which are circumferentially arranged at equal intervals, and the number of the teeth (T1 to T18) is N, and being characterised in that the number of the poles M is equal to (18±4)n, and the number of the teeth N is equal to 18n wherein n is an integer and n ≥ 1, an armature winding formed by the coils (U11, U12, U13, U21, U22, U23, V11, V12, V13, V21, V22, V23, W11, W12, W13, W21, W22 and W23) and wound around each of the teeth is divided into a m number of 3-phase armature windings (AW1 and AW2) that form parallel circuits wherein m is an even number that is 2 or greater, and is a divisor of 2n, and a 1-phase circuit of each of the 3-phase armature windings (AW1 and AW2) that form the parallel circuits is configured to have a 6n/m number of coils connected in series with each other.
A reverse power connection preventing circuit for a circuit breaker, which circuit breaker comprising a positive input terminal, a negative input terminal and a switch on mechanism configured to control the circuit breaker to be closed or open when being manipulated, the reverse power connection preventing circuit comprising a diode and an actuation unit that are connected in series, and further comprising a current limiting resistor connected in series to the diode and the actuation unit, wherein the diode and the actuation unit that are connected in series are configured to connect the positive input terminal and the negative input terminal of the circuit breaker; a positive electrode of the diode points to the negative wiring terminal of the circuit breaker, and a negative electrode of the diode points to the positive input terminal of the circuit breaker; and the actuation unit is configured to prevent closing of the circuit breaker when the diode is conducted, and/or is configured to perform an alarm prompt when the diode is conducted; and characterised in that the actuation unit is specifically configured to lock the switch on mechanism when the diode is conducted. the diode and the actuation unit that are connected in series are configured to connect the positive input terminal and the negative input terminal of the circuit breaker; a positive electrode of the diode points to the negative wiring terminal of the circuit breaker, and a negative electrode of the diode points to the positive input terminal of the circuit breaker; and the actuation unit is configured to prevent closing of the circuit breaker when the diode is conducted, and/or is configured to perform an alarm prompt when the diode is conducted; and characterised in that the actuation unit is specifically configured to lock the switch on mechanism when the diode is conducted.
An apparatus for reducing replays in an out-of-order processor, the apparatus comprising: a first reservation station, configured to dispatch a first load micro instruction, and configured to detect and indicate on a hold bus if said first load micro instruction is a specified load micro instruction directed to retrieve an operand from one of a plurality of prescribed resources other than on-core cache memory; a second reservation station, coupled to said hold bus, configured to dispatch one or more younger micro instructions therein that depend on said first load micro instruction for execution after a first number of clock cycles following dispatch of said first load micro instruction, and if it is indicated on said hold bus that said first load micro instruction is said specified load micro instruction, said second reservation station is configured to stall dispatch of said one or more younger micro instructions until said first load micro instruction has retrieved said operand, and is configured to preclude assertion of any indications that would otherwise result in a replay event; and said plurality of prescribed resources, comprising: a system memory that is accessed via a memory bus, said system memory comprising one or more page tables, configured to store one or more mappings between virtual addresses and physical addresses. a first reservation station, configured to dispatch a first load micro instruction, and configured to detect and indicate on a hold bus if said first load micro instruction is a specified load micro instruction directed to retrieve an operand from one of a plurality of prescribed resources other than on-core cache memory; a second reservation station, coupled to said hold bus, configured to dispatch one or more younger micro instructions therein that depend on said first load micro instruction for execution after a first number of clock cycles following dispatch of said first load micro instruction, and if it is indicated on said hold bus that said first load micro instruction is said specified load micro instruction, said second reservation station is configured to stall dispatch of said one or more younger micro instructions until said first load micro instruction has retrieved said operand, and is configured to preclude assertion of any indications that would otherwise result in a replay event; and said plurality of prescribed resources, comprising: a system memory that is accessed via a memory bus, said system memory comprising one or more page tables, configured to store one or more mappings between virtual addresses and physical addresses.
A method for manufacturing a functionalized, stiffened, lightened anisotropic sandwich panel integrating mechanical and thermal functions, consisting in performing the following steps: • manufacturing the lower skin (15, 16, 17, 26) to selected dimensions. made of metal or composite material with a filled thermoplastic matrix, • raising, simultaneously with the construction of the lower skin, the core (18, 19, 20) made of the same materials as the lower skin (15, 16, 17, 26), to selected dimensions, in varying shapes and geometries, whether juxtaposed or not, and in varying densities, • raising, simultaneously with the construction of the core (18, 19, 20), the densified areas (180, 190, 200, 290) or solid areas (21, 22, 23) ensuring mechanical junctions, to selected dimensions and in varying densities, • raising, simultaneously with the construction of the core (18, 19, 20) and the densified areas (180, 190, 200, 290) or massive areas (21, 22, 23, 28), heat pipes or heat sinks (24, 24bis, 27), to selected dimensions, of varying shapes, in their planes and outside their planes, so as to obtain a functionalized core, • raising, simultaneously with the construction of the lower skin and the functionalized core, the upper skin, to selected dimensions, made of the same materials and alloys as the lower skin (15, 16, 17, 26), so as to obtain the functionalized anisotropic sandwich panel. • manufacturing the lower skin (15, 16, 17, 26) to selected dimensions. made of metal or composite material with a filled thermoplastic matrix, • raising, simultaneously with the construction of the lower skin, the core (18, 19, 20) made of the same materials as the lower skin (15, 16, 17, 26), to selected dimensions, in varying shapes and geometries, whether juxtaposed or not, and in varying densities, • raising, simultaneously with the construction of the core (18, 19, 20), the densified areas (180, 190, 200, 290) or solid areas (21, 22, 23) ensuring mechanical junctions, to selected dimensions and in varying densities, • raising, simultaneously with the construction of the core (18, 19, 20) and the densified areas (180, 190, 200, 290) or massive areas (21, 22, 23, 28), heat pipes or heat sinks (24, 24bis, 27), to selected dimensions, of varying shapes, in their planes and outside their planes, so as to obtain a functionalized core, • raising, simultaneously with the construction of the lower skin and the functionalized core, the upper skin, to selected dimensions, made of the same materials and alloys as the lower skin (15, 16, 17, 26), so as to obtain the functionalized anisotropic sandwich panel.
The compound 1-(1-methyl-1 H -pyrazol-4-yl)-N-((1 R,5 S,7 S)-9-methyl-3-oxa-9-azabicyclo[3.3.1]-nonan-7-yl)-1 H -indole-3-carboxamide or a pharmaceutically acceptable salt thereof.
A molding composition comprising a) at least one polyoxymethylene, b) at least one coupling agent, c) at least one reinforcing fiber, d) one or more tribological modifier and e) optionally at least one formaldehyde scavenger wherein the coupling agent is a polyisocyanate. a) at least one polyoxymethylene, b) at least one coupling agent, c) at least one reinforcing fiber, d) one or more tribological modifier and e) optionally at least one formaldehyde scavenger wherein the coupling agent is a polyisocyanate.
A method for producing metal oxide nanocrystals, comprising: continuously flowing, into a continuous flow path, one or a plurality of nanocrystal precursor solutions each comprising one or more nanocrystal precursors dissolved in a non-polar solvent; directing a segmenting gas into the continuous flow path to create a segmented reaction flow; flowing the segmented reaction flow into a thermal processor; heating the segmented reaction flow in the thermal processor to create a product flow; and collecting metal oxide nanocrystals from the product flow. continuously flowing, into a continuous flow path, one or a plurality of nanocrystal precursor solutions each comprising one or more nanocrystal precursors dissolved in a non-polar solvent; directing a segmenting gas into the continuous flow path to create a segmented reaction flow; flowing the segmented reaction flow into a thermal processor; heating the segmented reaction flow in the thermal processor to create a product flow; and collecting metal oxide nanocrystals from the product flow.
A vane machine for the expansion or compression of gaseous media, such as air, exhaust gases from an internal combustion engine, vaporous media or a mixture thereof, with a housing which has a cylindrical space and also an inlet port and an outlet port in the cylindrical space, with a shaft displaced in parallel or arranged eccentrically with respect to the center axis of the housing, at least one first and one second circular disk (102, 103; 401, 402) arranged so as to be offset in parallel with respect to one another on the shaft, slides (104 to 115) guided by the circular disks and displaceable in the direction of the inner wall of the housing, a vane cell being formed in each case by the participation of two adjacent slides (108, 109; 109a;...) of the adjacent region of the inner wall of the housing, and the volume of the vane cells in the region of the inlet port differing from the volume of the vane cells in the region of the outlet port, characterised in that each of the circular disks (102, 103; 401, 402) has a plurality of circular-arcuate slots (201 to 212), each of the slides has a circular-arcuate configuration at least at its end facing the housing of the vane machine, the circular-arcuate part of each slide moves at least in a circular-arcuate slot of a first circular disk and in a circular-arcuate slot of a second circular disk, and each slide (104 to 115) is guided in each case by at least two holding arms (110, 310, 320) on a portion of a circular path and in at least two of the circular-arcuate slots (201 to 212).