mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a heat transfer portion and a lubricant portion comprising a compound of formula: wherein W is independently selected from the group consisting of H, F, Cl, Br and I; X is independently selected from the group consisting of H, F, Cl, Br, I, CW 3 and OR on the basis that at least one X is OR; R is independently selected from the group consisting of C (CH 2) m (CF 2) n Y and CW 2 C(CW 2 OC (CH 2) m (CF 2) n Y) 3; m is an integer from 0 to 2; n is an integer from 2 to 8; Y is C 3; and Z is independently selected from the group consisting of H, F, Cl, Br and I; wherein the heat transfer portion comprises one or more compounds selected from the group consisting of (hydro)fluoroolefins (HFOs), hydrofluorocarbons (HFCs), chlorofluorocarbons (CFCs), hydrochlorofluorocarbons (HCFCs), propane, propylene, n-butane and isobutane. W is independently selected from the group consisting of H, F, Cl, Br and I; X is independently selected from the group consisting of H, F, Cl, Br, I, CW 3 and OR on the basis that at least one X is OR; R is independently selected from the group consisting of C (CH 2) m (CF 2) n Y and CW 2 C(CW 2 OC (CH 2) m (CF 2) n Y) 3; m is an integer from 0 to 2; n is an integer from 2 to 8; Y is C 3; and Z is independently selected from the group consisting of H, F, Cl, Br and I; wherein the heat transfer portion comprises one or more compounds selected from the group consisting of (hydro)fluoroolefins (HFOs), hydrofluorocarbons (HFCs), chlorofluorocarbons (CFCs), hydrochlorofluorocarbons (HCFCs), propane, propylene, n-butane and isobutane.
Method for operating a microwave device, the microwave device comprising a cavity, multiple microwave modules for providing microwaves into said cavity, each microwave module comprising a control unit (3.1) adapted to control the generation of microwaves, and a master control entity adapted to control the microwave modules, the method comprising the steps of: - providing multiple sets of operation parameters, each set of operation parameters being associated with a certain microwave module; o synchronously transmitting, by the master control entity, the sets of operation parameters to the respective microwave modules and, by the microwave modules, immediately applying the set of operation parameters within the respective microwave module after receipt of said set of operation parameters; or, o by the master control entity, uploading the sets of operation parameters to the respective microwave modules and, by the microwave modules, applying the set of parameters within the respective microwave module after receipt of an acknowledge command or after expiry of a certain time period. - providing multiple sets of operation parameters, each set of operation parameters being associated with a certain microwave module; o synchronously transmitting, by the master control entity, the sets of operation parameters to the respective microwave modules and, by the microwave modules, immediately applying the set of operation parameters within the respective microwave module after receipt of said set of operation parameters; or, o by the master control entity, uploading the sets of operation parameters to the respective microwave modules and, by the microwave modules, applying the set of parameters within the respective microwave module after receipt of an acknowledge command or after expiry of a certain time period. o synchronously transmitting, by the master control entity, the sets of operation parameters to the respective microwave modules and, by the microwave modules, immediately applying the set of operation parameters within the respective microwave module after receipt of said set of operation parameters; or, o by the master control entity, uploading the sets of operation parameters to the respective microwave modules and, by the microwave modules, applying the set of parameters within the respective microwave module after receipt of an acknowledge command or after expiry of a certain time period.
A dry structural adhesive formulation for bonding together opposing surfaces comprising a mixture of a first polymeric material and a second polymeric material that is compatible with the first polymeric material the first polymeric material being thermohardenable at a first temperature, the second polymeric material being orientable and relaxable at a second temperature wherein the second temperature is lower than the first temperature wherein the formulation becomes oriented when deformed at the second temperature and forms a bond upon application of heat at the first temperature to cure the first polymeric material wherein the relaxation of the molecular orientation of the second polymeric material at the second temperature causes the adhesive formulation to increase its thickness and thereby contact an opposing surface and develop a bond with the opposing surface when heated to the first temperature.
An orthokeratology lens designating method comprising a database building process, a patient data acquiring process, a patient stage data acquiring process, and a lens designating process, said database building process comprising repeating a trial process in which a mounting process of mounting an orthokeratology lens on a cornea at a position centering on a pupil of a patient whose head is in an erect state, an image information acquiring process of continuously or intermittently acquiring images of the orthokeratology lens moving on the cornea, a movement data detecting process of detecting a movement speed and a movement direction of the orthokeratology lens from the acquired image information are sequentially performed on a plurality of orthokeratology lenses, and a selection process of determining whether or not data of the acquired movement speed and movement direction is within a certain range, and when the data is within the certain range, selecting a lens as the orthokeratology lens to be used for the patient in order to build a lens database and assigning the selected orthokeratology lens as a registered lens, by storing registered patient data that includes at least registered cornea D data, out of registered lens correction D data having lens correction D data of the registered lens at a contact portion with the cornea, the registered cornea D data having D data of the cornea at the contact portion before mounting the registered lens, registered corneal diameter data having corneal diameter data of the patient, and registered pupil diameter data having pupil diameter data of the patient, and registration stage data having data that indicates in which stage of a plurality of correction stages, including first, second, and later stages, the registered lens is mounted on the cornea; the patient data acquiring process of acquiring patient data including at least patient cornea D data, out of the patient cornea D data having D data of a patient's cornea to be corrected, patient corneal diameter data having data of a corneal diameter, and patient pupil diameter data having data of a pupil diameter; the patient stage data acquiring process of acquiring patient stage data that indicates which stage of a plurality of correction stages the present mounting of an orthokeratology lens corresponds to, on the patient's cornea to be corrected; and the lens designating process of retrieving the registered lens having the registered cornea D data that is the closest to the acquired patient cornea D data and the same registration stage data as the patient stage data in the lens database, and designating the retrieved registered lens as an orthokeratology lens to be used for the patient.
Auto-injector for delivering a liquid medicament, the auto-injector comprising an elongate housing having a loading bay configured to receive a packaged syringe, wherein the loading bay is configured to be laterally accessible for inserting or removing the packaged syringe, wherein a sliding door is slidably arranged over the housing in a manner to reveal the loading bay in a distal position and to cover the loading bay in a proximal position, wherein the packaged syringe comprises a syringe with a hollow injection needle and a stopper for sealing the syringe and displacing the liquid medicament, wherein a drive spring is arranged for advancing the syringe and the needle in proximal direction for needle insertion into an injection site and for injecting the medicament through the needle, characterized in that the drive spring is arranged in the housing, wherein the sliding door exhibits a door rack gear in mesh with a drive gear which is in mesh with a drive reset rack such that the sliding door and the drive reset rack translate in opposite directions, wherein the drive reset rack is arranged to compress the drive spring on translation in distal direction.
A rheometer die, comprising: a surface having a center; and at least one radial groove extending into the surface, the at least one groove defining at least a portion of a sample-holding chamber constructed and arranged to hold a sample, the at least one groove defining a first zone having sidewalls which taper generally towards the center, and a second zone with sidewalls which taper generally towards the center, where the second zone is positioned closer to the center than the first zone, the sidewalls (54, 58) of the first and second zones (52, 56) defining a transition region between the first zone and the second zone, at least one of the sidewalls (54, 58) having a non-linear portion defining the transition region, which includes an expansion area to accommodate movement of the sample into the second zone as the sample shrinks. a surface having a center; and at least one radial groove extending into the surface, the at least one groove defining at least a portion of a sample-holding chamber constructed and arranged to hold a sample, the at least one groove defining a first zone having sidewalls which taper generally towards the center, and a second zone with sidewalls which taper generally towards the center, where the second zone is positioned closer to the center than the first zone, the sidewalls (54, 58) of the first and second zones (52, 56) defining a transition region between the first zone and the second zone, at least one of the sidewalls (54, 58) having a non-linear portion defining the transition region, which includes an expansion area to accommodate movement of the sample into the second zone as the sample shrinks.
A terminal-based wakelock control method, for a terminal with an Android operating system, the method comprising: obtaining a first application program that runs in the background; determining whether the first application program meets a preset filter criterion; selecting a first application program that does not meet the preset filter criterion, as a second application program; saving characteristic information of a wakelock held by the second application program and a service called by the second application program, wherein the wakelock prevents the terminal from entering a sleep state and the characteristic information comprises an identifier corresponding to the second application program; forcibly releasing the wakelock held by the second application program and the service called by the second application program; and setting the second application program to an agent lock state, wherein, when the second application program is set to the agent lock state, if a wakelock application request, a wakelock change request, or a wakelock deletion request for the second application program and the service called by the second application program is received, the corresponding characteristic information is changed, but the corresponding request is not specifically executed. obtaining a first application program that runs in the background; determining whether the first application program meets a preset filter criterion; selecting a first application program that does not meet the preset filter criterion, as a second application program; saving characteristic information of a wakelock held by the second application program and a service called by the second application program, wherein the wakelock prevents the terminal from entering a sleep state and the characteristic information comprises an identifier corresponding to the second application program; forcibly releasing the wakelock held by the second application program and the service called by the second application program; and setting the second application program to an agent lock state, wherein, when the second application program is set to the agent lock state, if a wakelock application request, a wakelock change request, or a wakelock deletion request for the second application program and the service called by the second application program is received, the corresponding characteristic information is changed, but the corresponding request is not specifically executed.
Apparatus for processing data comprising: processing circuitry (108, 112, 114, 116) to perform processing operations specified by a sequence of program instructions; an instruction decoder to decode said sequence of program instructions to generate control signals to control said processing circuitry to perform said processing operations; wherein said instruction decoder comprises branch-future instruction decoding circuitry to decode a branch-future instruction, said branch-future instruction having a programmable parameter associated with a branch target address and further programmable branch point data parameter indicative of a predetermined instruction following said branch-future instruction within said sequence of program instructions; and said processing circuitry comprises branch control circuitry controlled by said branch-future instruction decoding circuitry and responsive to said branch point data to trigger a branch to processing of program instructions starting from a branch target instruction corresponding to said branch target address when processing of said sequence of program instructions reaches said predetermined instruction, wherein when said branch control circuitry triggers said branch, said branch target instruction follows an instruction immediately preceding said predetermined instruction in said sequence of program instructions, and an operation specified by said branch-future instruction and an operation specified by said instruction immediately preceding said predetermined instruction are performed contiguously by said processing circuitry. processing circuitry (108, 112, 114, 116) to perform processing operations specified by a sequence of program instructions; an instruction decoder to decode said sequence of program instructions to generate control signals to control said processing circuitry to perform said processing operations; wherein said instruction decoder comprises branch-future instruction decoding circuitry to decode a branch-future instruction, said branch-future instruction having a programmable parameter associated with a branch target address and further programmable branch point data parameter indicative of a predetermined instruction following said branch-future instruction within said sequence of program instructions; and said processing circuitry comprises branch control circuitry controlled by said branch-future instruction decoding circuitry and responsive to said branch point data to trigger a branch to processing of program instructions starting from a branch target instruction corresponding to said branch target address when processing of said sequence of program instructions reaches said predetermined instruction, wherein when said branch control circuitry triggers said branch, said branch target instruction follows an instruction immediately preceding said predetermined instruction in said sequence of program instructions, and an operation specified by said branch-future instruction and an operation specified by said instruction immediately preceding said predetermined instruction are performed contiguously by said processing circuitry.
A turbocharger turbine wheel comprising: a hub (252, 465, 570, 670) that comprises a rotational axis, a backdisk (480, 680) and a nose (470, 575), wherein the rotational axis defines an axial coordinate (z) in a cylindrical coordinate system that comprises a radial coordinate (r) and an azimuthal coordinate (□) in a direction of intended rotation about the rotational axis; and blades (254, 490, 590, 690, 790) that extend outwardly from the hub, wherein each of the blades comprises a hub profile (596, 796), a shroud edge, a leading edge (591, 791), a trailing edge (599, 799), a pressure side, and a suction side, wherein the hub profile comprises a global maximum radius and a global minimum radius, and wherein, between the global maximum radius and the global minimum radius, in an axial direction from the backdisk to the nose, the hub profile comprises a local minimum radius at a first axial coordinate position and a local maximum radius at a second axial coordinate position, characterized in that, a radial dimension of the hub is smaller at the local minimum radius as compared to a radial dimension of the hub at the local maximum radius, and the first axial coordinate position is less than an axial co-ordinate position of a free tip of the leading edge of one of the blades. a hub (252, 465, 570, 670) that comprises a rotational axis, a backdisk (480, 680) and a nose (470, 575), wherein the rotational axis defines an axial coordinate (z) in a cylindrical coordinate system that comprises a radial coordinate (r) and an azimuthal coordinate (□) in a direction of intended rotation about the rotational axis; and blades (254, 490, 590, 690, 790) that extend outwardly from the hub, wherein each of the blades comprises a hub profile (596, 796), a shroud edge, a leading edge (591, 791), a trailing edge (599, 799), a pressure side, and a suction side, wherein the hub profile comprises a global maximum radius and a global minimum radius, and wherein, between the global maximum radius and the global minimum radius, in an axial direction from the backdisk to the nose, the hub profile comprises a local minimum radius at a first axial coordinate position and a local maximum radius at a second axial coordinate position, characterized in that, a radial dimension of the hub is smaller at the local minimum radius as compared to a radial dimension of the hub at the local maximum radius, and the first axial coordinate position is less than an axial co-ordinate position of a free tip of the leading edge of one of the blades.
A method for materially bonding a first metallic component, which comprises a first surface region, with a second metallic component, which comprises a second surface region, wherein the two surface regions (5, 7) face one another, and wherein at least one of the two components (2, 3) is a sintered component, wherein prior to the formation of the material connection between the two components (2, 3) with one another at least in the surface region of the sintered component, in which the material connection is formed, the density is increased, characterized in that for the production of the compacted surface region the latter is produced with an excess.
A method for controlling the propulsion of a vehicle comprising an electric motogenerator and an accelerator pedal and a relating sensor connected thereto for detecting an inclination of the accelerator pedal, wherein a torque curve (EMTrq) delivered/absorbed by the electric motogenerator is a function (F(AccPed%, p)) of two variables, wherein a first variable coincides with said inclination of said accelerator pedal and a second variable coincides with an actual momentum (p) of the hybrid vehicle, wherein said torque curve has a partial derivative, in respect to said inclination of the accelerator pedal (AccPed%), linear in a relating entire domain (0% - 100%) and said domain is continuous between a condition of complete release (0%) of the accelerator pedal and a condition of total lowering (100%) of the accelerator pedal.
Corynebacterium sp. suitable for producing L-amino acids, comprising a fructokinase gene from Escherichia sp. operably linked to a gene expression unit, wherein the fructokinase gene is cscK or mak from Escherichia sp.
A grease for a refrigerating machine oil, comprising: an acyclic hydrocarbon oil having a kinematic viscosity of 1,500 to 25,000 mm 2 /s measured at 40°C based on JIS K 2283, a number average molecular weight of 500 to 3,000, and having a unit represented by a general formula: -(CH 2 -C(CH 3) 2)-; and a polyethylene resin or a polypropylene resin, having a melting point of 270°C or less, wherein an unworked penetration of the grease is 100 to 340 at 25°C based on JIS K 2220, wherein the content of the acyclic hydrocarbon oil with respect to a total mass of the grease is 93% to 96% by mass and the content of the polyethylene resin or the polypropylene resin with respect to the total mass of the grease is 4% to 7% by mass in a case where the kinematic viscosity of the hydrocarbon oil is 20,000 mm 2 /s or higher, and wherein the content of the acyclic hydrocarbon oil with respect to the total mass of the grease is 90% to 95% by mass and the content of the polyethylene resin or the polypropylene resin with respect to the total mass of the grease is 5% to 10% by mass in a case where the kinematic viscosity of the hydrocarbon oil is lower than 20,000 mm 2 /s. an acyclic hydrocarbon oil having a kinematic viscosity of 1,500 to 25,000 mm 2 /s measured at 40°C based on JIS K 2283, a number average molecular weight of 500 to 3,000, and having a unit represented by a general formula: -(CH 2 -C(CH 3) 2)-; and a polyethylene resin or a polypropylene resin, having a melting point of 270°C or less, wherein an unworked penetration of the grease is 100 to 340 at 25°C based on JIS K 2220, wherein the content of the acyclic hydrocarbon oil with respect to a total mass of the grease is 93% to 96% by mass and the content of the polyethylene resin or the polypropylene resin with respect to the total mass of the grease is 4% to 7% by mass in a case where the kinematic viscosity of the hydrocarbon oil is 20,000 mm 2 /s or higher, and wherein the content of the acyclic hydrocarbon oil with respect to the total mass of the grease is 90% to 95% by mass and the content of the polyethylene resin or the polypropylene resin with respect to the total mass of the grease is 5% to 10% by mass in a case where the kinematic viscosity of the hydrocarbon oil is lower than 20,000 mm 2 /s.