mhurhangee/ep-ind-claims huggingface dataset:
A device, comprising: at least one monochromatic light source configured to generate a first optical trap; an ensemble of particles disposed in the first optical trap, each particle of the ensemble of particles being excitable to a first Rydberg state and a second Rydberg state, the second Rydberg state having a blockade radius, each particle of the ensemble of particles being within the blockade radius of each other and within the blockade radius of an atomic qubit, the atomic qubit being a particle that is excitable to the second Rydberg state, the ensemble of particles having a first transmissivity at a first wavelength when neither any particle of the ensemble of particles nor the atomic qubit is in the second Rydberg state, the ensemble of particles having a second transmissivity at the first wavelength when the atomic qubit is in the second Rydberg state, the second transmissivity being lower than the first transmissivity; and a second monochromatic light source configured to drive each particle of the ensemble of particles into the first Rydberg state; a probe light source configured to direct a probe beam having the first wavelength to the ensemble of particles; and a photosensor configured to determine the state of the atomic qubit. at least one monochromatic light source configured to generate a first optical trap; an ensemble of particles disposed in the first optical trap, each particle of the ensemble of particles being excitable to a first Rydberg state and a second Rydberg state, the second Rydberg state having a blockade radius, each particle of the ensemble of particles being within the blockade radius of each other and within the blockade radius of an atomic qubit, the atomic qubit being a particle that is excitable to the second Rydberg state, the ensemble of particles having a first transmissivity at a first wavelength when neither any particle of the ensemble of particles nor the atomic qubit is in the second Rydberg state, the ensemble of particles having a second transmissivity at the first wavelength when the atomic qubit is in the second Rydberg state, the second transmissivity being lower than the first transmissivity; and each particle of the ensemble of particles being within the blockade radius of each other and within the blockade radius of an atomic qubit, the atomic qubit being a particle that is excitable to the second Rydberg state, the ensemble of particles having a first transmissivity at a first wavelength when neither any particle of the ensemble of particles nor the atomic qubit is in the second Rydberg state, the ensemble of particles having a second transmissivity at the first wavelength when the atomic qubit is in the second Rydberg state, the second transmissivity being lower than the first transmissivity; and a second monochromatic light source configured to drive each particle of the ensemble of particles into the first Rydberg state; a probe light source configured to direct a probe beam having the first wavelength to the ensemble of particles; and a photosensor configured to determine the state of the atomic qubit.
A method for producing nanofluids, the method comprising: mixing a base fluid with a dispersant and a metal oxide powder to form a primary mixture, wherein the primary mixture has a metal oxide concentration of 30-40 weight percentage, and dispersing the primary mixture to form a primary mixture slurry, wherein the base fluid is a heat transfer fluid, and wherein the metal oxide powder includes particles of size greater than 100nm; grinding the primary mixture slurry to obtain a concentrated nanoparticle suspension, wherein the dispersant is added to the primary mixture during the grinding after every pre-determined time period and wherein the primary mixture slurry concentration of metal oxide is kept between 30-40 weight percentage; diluting the concentrated nanoparticle suspension by adding the base fluid and the dispersant to produce a nanofluid; and dispersing the diluted nanoparticle suspension to obtain a stable nanofluid having increased heat transfer efficiency. mixing a base fluid with a dispersant and a metal oxide powder to form a primary mixture, wherein the primary mixture has a metal oxide concentration of 30-40 weight percentage, and dispersing the primary mixture to form a primary mixture slurry, wherein the base fluid is a heat transfer fluid, and wherein the metal oxide powder includes particles of size greater than 100nm; grinding the primary mixture slurry to obtain a concentrated nanoparticle suspension, wherein the dispersant is added to the primary mixture during the grinding after every pre-determined time period and wherein the primary mixture slurry concentration of metal oxide is kept between 30-40 weight percentage; diluting the concentrated nanoparticle suspension by adding the base fluid and the dispersant to produce a nanofluid; and dispersing the diluted nanoparticle suspension to obtain a stable nanofluid having increased heat transfer efficiency.
Electric motor, having a stator which is composed of individual segments arranged in the circumferential direction and which is pushed into a hole-like recess of the motor housing that has been machined as a bore, wherein each individual segment comprises a laminated core, around which a winding is provided and on the axial end regions of which end caps (12, 30) are provided, wherein the winding is produced by means of a winding wire, wherein an end cap comprises at least one dome, in particular for bounding the region of the winding, wherein a wire inlet channel for diverting the winding wire is provided in the foot region of the dome, wherein grooves are provided on the end cap, characterized in that the distance of one groove from the radially subsequent groove and the diameter of curvature of the respective groove are smaller than the winding wire diameter, wherein a retaining ring is pushed onto the stator and has snap-in connection regions which each secure an individual segment in a manner connected by a form fit, wherein the stator together with the retaining ring is pushed into the recess of the motor housing, wherein, while the stator made from individual segments and held together by retaining rings is being pushed in, an elevated temperature of approximately 150°C to 300°C of the motor housing is provided as joining temperature, wherein the retaining ring is made of plastic which does not yet melt at the joining temperature but also no longer has its nominal strength, wherein regions of the retaining ring that protrude radially beyond the bore are compressed in the recess between the stator and the motor housing and are smeared along the axial direction in order to achieve a lubricating effect and thus to protect the bore against the sharp edges of the laminated core, wherein an additional retaining function is achieved by potting the stator with potting compound, since the retaining function of the motor housing is not sufficient on its own.
Plural-use drop-by-drop dispenser for sterile liquid product, particularly for collyrium or other medicinal product, comprising a vial for containment of the liquid product and a connector provided with a valve device which is normally hermetically closed by an elastically deformable closing element which can be opened by axial external push for controlled drop-by-drop dispensing of the liquid product contained inside the vial and is successively automatically hermetically reclosable at the stop of said external push, and a cartridge with tubular tang and sterilizing filter which can be handled so that said tubular tang can be pushed from outside against said elastically deformable element for its opening for drop-by-drop dispensing of the liquid product and can be successively extracted from said elastically deformable element for its hermetic reclosure at the end of dispensing, characterized in that said cartridge is provided with an end filter-holding bottom element provided with a drop-by-drop dispensing spout, possibly in antimicrobic material, with elastically flexible converging lips, which open under pressure of the liquid product during dispensing operation and automatically elastically hermetically reclose at the end of the dispensing operation.
A maintenance support system comprising: a maintenance server that is configured to: obtain pulse information transmitted from plural automatic analysis devices each of which includes a mechanism driven by a pulse motor (103, 104, 106, 110-113) and transmitting means (117, 118) for transmitting the pulse information as pulse information including two out of a driving pulse value set for driving the pulse motor, a consumed pulse quantity that is a quantity of pulses having been consumed during actual driving of the pulse motor, and a remaining pulse quantity that is obtained by subtracting the consumed pulse quantity from the driving pulse value; accumulate at least the consumed pulse quantities; determine whether or not an obtained consumed pulse quantity of a pulse motor deviates, by a predetermined deviation rate or more, from an average consumed pulse quantity that is an average value of the accumulated consumed pulse quantities; and determine that the pulse motor is in an abnormal tendency when it is determined that the obtained consumed pulse quantity of the pulse motor deviates, by the predetermined deviation rate or more, from the average consumed pulse quantity. obtain pulse information transmitted from plural automatic analysis devices each of which includes a mechanism driven by a pulse motor (103, 104, 106, 110-113) and transmitting means (117, 118) for transmitting the pulse information as pulse information including two out of a driving pulse value set for driving the pulse motor, a consumed pulse quantity that is a quantity of pulses having been consumed during actual driving of the pulse motor, and a remaining pulse quantity that is obtained by subtracting the consumed pulse quantity from the driving pulse value; accumulate at least the consumed pulse quantities; determine whether or not an obtained consumed pulse quantity of a pulse motor deviates, by a predetermined deviation rate or more, from an average consumed pulse quantity that is an average value of the accumulated consumed pulse quantities; and determine that the pulse motor is in an abnormal tendency when it is determined that the obtained consumed pulse quantity of the pulse motor deviates, by the predetermined deviation rate or more, from the average consumed pulse quantity.
A method for normalizing combustion in a power production process, the method comprising: providing a variable fuel into a combustor (120, 220), the variable fuel having a composition that varies during operation of the power production process; combusting the variable fuel in the combustor (120, 220) with an oxidant to provide a combustor exhaust stream; passing the combustor exhaust stream through a turbine to generate power; and implementing at least one control function such that one or both of a temperature and a mass flow of the combustor exhaust stream exiting the combustor (120, 220) varies by no greater than 10% as the composition of the variable fuel varies during operation of the power production process, wherein one or both of the following conditions applies: the oxidant is a mixture of oxygen and a diluent, and the at least one control function includes varying a ratio of the oxygen to the diluent in the oxidant as the composition of the variable fuel varies during operation of the power production process; the variable fuel provided to the combustor is blended with a diluent which includes carbon dioxide, and the at least one control function includes varying a ratio of the diluent to the variable fuel that is combusted in the combustor (120, 220). providing a variable fuel into a combustor (120, 220), the variable fuel having a composition that varies during operation of the power production process; combusting the variable fuel in the combustor (120, 220) with an oxidant to provide a combustor exhaust stream; passing the combustor exhaust stream through a turbine to generate power; and implementing at least one control function such that one or both of a temperature and a mass flow of the combustor exhaust stream exiting the combustor (120, 220) varies by no greater than 10% as the composition of the variable fuel varies during operation of the power production process, wherein one or both of the following conditions applies: the oxidant is a mixture of oxygen and a diluent, and the at least one control function includes varying a ratio of the oxygen to the diluent in the oxidant as the composition of the variable fuel varies during operation of the power production process; the variable fuel provided to the combustor is blended with a diluent which includes carbon dioxide, and the at least one control function includes varying a ratio of the diluent to the variable fuel that is combusted in the combustor (120, 220). the oxidant is a mixture of oxygen and a diluent, and the at least one control function includes varying a ratio of the oxygen to the diluent in the oxidant as the composition of the variable fuel varies during operation of the power production process; the variable fuel provided to the combustor is blended with a diluent which includes carbon dioxide, and the at least one control function includes varying a ratio of the diluent to the variable fuel that is combusted in the combustor (120, 220).
A computer-executed method for IEEE 802.15.4 devices based on an active carrier sense based carrier-sense multiple access with collision avoidance, ACS-CSMA/CA, control program and standard CSMA/CA control program (226, 228) for coexistence of an IEEE 802.15.4 network composing of IEEE 802.15.4 devices (206, 207, 210) and IEEE 802.11 network composing of IEEE 802.11 devices (201, 202) sharing frequency spectra between the networks, wherein the computer-executed method is provided on an IEEE 802.15.4 device, the computer-executed method causes a processor of the IEEE 802.15.4 device to perform steps that comprise: estimating a severity of IEEE 802.11 interference based on a severity estimation metric; selecting the ACS-CSMA/CA control program based on the estimated severity, wherein the ACS-CSMA/CA control program is configured to perform: dynamically updating a maximum number of backoffs, macMaxCSMABackoffs, based on the estimated severity; determining if a number of backoffs, NB, exceeds the updated macMaxCSMABackoffs; and performing consecutive CCA operation to continuously detect channel status; and transmitting frames when the detected channel status is an idle state or incrementing number of retransmissions, NR, when the detected channel status is a busy state. estimating a severity of IEEE 802.11 interference based on a severity estimation metric; selecting the ACS-CSMA/CA control program based on the estimated severity, wherein the ACS-CSMA/CA control program is configured to perform: dynamically updating a maximum number of backoffs, macMaxCSMABackoffs, based on the estimated severity; determining if a number of backoffs, NB, exceeds the updated macMaxCSMABackoffs; and performing consecutive CCA operation to continuously detect channel status; and dynamically updating a maximum number of backoffs, macMaxCSMABackoffs, based on the estimated severity; determining if a number of backoffs, NB, exceeds the updated macMaxCSMABackoffs; and performing consecutive CCA operation to continuously detect channel status; and transmitting frames when the detected channel status is an idle state or incrementing number of retransmissions, NR, when the detected channel status is a busy state.
A method for displaying and/or outputting a system-initiated help for operating a device allocated to a vehicle, the method comprising using an operating facility to input or select at least alphanumeric characters and/or symbols, the characters and symbols being assemblable to form a group of characters or a function group and being displayable in at least one input field on a first display device, at least one help information for at least one operation action being visually displayable for a user on a first or second display device and/or being acoustically outputtable by a loudspeaker, characterized in that in a first step, a recognition process is carried out to recognize with a predeterminable degree of probability whether a space will or must be input by the user as a next input action, and in a second step, when it is recognized that a space will or must be input by the user, a help is displayed to the user on the first or second display device and/or is output by the loudspeaker, the help comprising the help information providing assistance on how a space can be input at the operating facility by an operating action.
A resin rotating body comprising a resin ring and a metallic bush which is fitted to an inner circumferential surface of the resin ring and rotation preventing means for connecting the resin ring and the metallic bush and preventing relative rotation between the resin ring and the metallic bush do not rotate with respect to each other is provided on an outer circumferential surface of the metallic bush, and wherein the resin ring is molded by heating and compressing an element body in which a plurality of sheet-shaped resins manufactured by sheet making are stacked in layers in an axial direction and a diameter of the inner circumferential surface is formed to be substantially the same diameter as the outer circumferential surface of the metallic bush, the metallic bush is integrally connected to the resin ring by being press-fitted to the inner circumferential surface of the element body along the axial direction, characterized in that the rotation preventing means are projections which are provided radially along the outer circumferential surface of the metallic bush and projections are provided only at a position eccentric in the axial direction from a center in the axial direction of the metallic bush, the projections are each formed into a reverse taper shape which is wider toward an outside from the outer circumferential surface of the metallic bush and projections are provided in a row radially along the outer circumferential surface of the metallic bush along a circumferential direction and a cross-sectional shape of each protrusion along the axial direction and a cross-sectional shape of each protrusion in a direction orthogonal to the axial direction are a reverse taper shape.
Method of communicating a long-term-secure classical message M between distant parties A and B by sharing a short-term-secure classical key K between A and B and by using a public quantum channel and a classical authenticated channel; characterized in that it further comprises the steps of: - sharing a short-term-secure key K between A and B over the classical authenticated channel; - encoding the classical message M at A into a quantum state, using the short-term-secure key K and sending the quantum state to B over the quantum channel; - decoding reliably the message M at B, using K and the quantum state received at the output of the quantum channel; wherein the step of encoding the message M at A comprises a step of optically encoding the message M into a product of n quantum coherent states of light, with a total photon number equal to alpha^2; wherein the step of encoding at A the message M into a product of n quantum coherent states of light comprises a step of modulating each coherent state at A in phase and/or in amplitude. - sharing a short-term-secure key K between A and B over the classical authenticated channel; - encoding the classical message M at A into a quantum state, using the short-term-secure key K and sending the quantum state to B over the quantum channel; - decoding reliably the message M at B, using K and the quantum state received at the output of the quantum channel;
A porting manifold (109, 209) configured to be at least partially disposed within a shaft channel of a transmission shaft, comprising a control pressure path configured to be in fluid communication with one or more hydraulic ports of the shaft; a lubrication flow path configured to be in fluid communication with one or more lubrication holes of the shaft, wherein the control pressure path and the lubrication flow path are fluidly isolated in the porting manifold (109, 209); characterized in that the one or more hydraulic ports of the shaft are in fluid communication with a hydraulic cavity defined between a backstop and a piston disposed on the shaft; and wherein the lubrication flow path: is in fluid communication,via at least one lubrication hole of the one or more lubrication holes defined through the shaft and through the backstop, with a lubrication cavity between a back side of the backstop and a balance dam fixed to the piston and disposed around a portion of the backstop. a control pressure path configured to be in fluid communication with one or more hydraulic ports of the shaft; a lubrication flow path configured to be in fluid communication with one or more lubrication holes of the shaft, wherein the control pressure path and the lubrication flow path are fluidly isolated in the porting manifold (109, 209); characterized in that the one or more hydraulic ports of the shaft are in fluid communication with a hydraulic cavity defined between a backstop and a piston disposed on the shaft; and wherein the lubrication flow path: is in fluid communication,via at least one lubrication hole of the one or more lubrication holes defined through the shaft and through the backstop, with a lubrication cavity between a back side of the backstop and a balance dam fixed to the piston and disposed around a portion of the backstop.
Oil-in water formulation comprising a) at least one polyvinyl alcohol and a non-ionic ethoxylated emulsifier, wherein the at least one polyvinyl alcohol has a DIN 53015 viscosity of 1 to 60 mPa.s and a DIN EN ISO 3681 ester number between 40 and 450 and the nonionic ethoxylated emulsifier is an alkanol ethoxylate or an ethylene oxide/propylene oxide block copolymer, b) at least one nonaqueous solvent, c) at least one burning salt, d) at least one insecticidal active substance, wherein the at least one insecticidal active substance is a pyrethroid, and e) water. a) at least one polyvinyl alcohol and a non-ionic ethoxylated emulsifier, wherein the at least one polyvinyl alcohol has a DIN 53015 viscosity of 1 to 60 mPa.s and a DIN EN ISO 3681 ester number between 40 and 450 and the nonionic ethoxylated emulsifier is an alkanol ethoxylate or an ethylene oxide/propylene oxide block copolymer, b) at least one nonaqueous solvent, c) at least one burning salt, d) at least one insecticidal active substance, wherein the at least one insecticidal active substance is a pyrethroid, and e) water.