mhurhangee/ep-ind-claims huggingface dataset:
Sensor assembly, comprising a holding body and, arranged on the holding body, a housed semiconductor sensor element for rotational speed detection and/or position detection, wherein a cured encapsulation material completely covering the housed semiconductor sensor element is arranged on the holding body, wherein the housed semiconductor sensor element is adhesively bonded to a mounting surface of the holding body by means of an adhesive which is different from the encapsulation material, and the adhesive is arranged in a receiving space between the mounting surface and an underside, which faces the mounting surface, of the housed semiconductor sensor element, characterized in that the housed semiconductor sensor element has the outer edge region of its underside lying directly on a supporting surface, which surrounds the receiving space, of the holding body or on a supporting surface, which surrounds the receiving space, of a further component arranged on the holding body.
A burner surface plate comprising: a screen having a first surface; an unsintered composite layer of metal fibers and ceramic fibers vacuum cast to the first surface of the screen and having a thickness not greater than 12.7 mm (0.5 inches), wherein the composite layer is vacuum cast to the screen without using substantial amounts of polymer agents; and wherein the screen and the composite layer include a plurality of aligned apertures through the screen and unsintered composite layer. a screen having a first surface; an unsintered composite layer of metal fibers and ceramic fibers vacuum cast to the first surface of the screen and having a thickness not greater than 12.7 mm (0.5 inches), wherein the composite layer is vacuum cast to the screen without using substantial amounts of polymer agents; and wherein the screen and the composite layer include a plurality of aligned apertures through the screen and unsintered composite layer.
Method for controlling the regenerative braking of a vehicle equipped with a combustion engine and with at least one electric motor or with at least one electric motor, in which there is calculated a setpoint for the braking force applied by the power train to the wheel, including the regenerative braking effort, which setpoint is independent of the relationship there is between the degree to which the brake pedal is depressed and the braking effort applied to the wheels by the main brakes of the vehicle, in which the power train wheel braking setpoint (Fr_cons_brake) is defined by the relationship: Fr _ cons _ brake = Fr _ min _ 0 + β brake _ pdl * Fr _ min _ 1 − Fr _ min _ 0, where: - Fr_min_0 is the minimum effort that can be required of the power train with the foot off, - Fr_min_1 is the maximum level, in terms of absolute value, of the regenerative braking, and - β is a function of the position of the brake pedal, defined from the range [0; 100] to the range [0; 1], characterized in that the function is weighted so as to saturate at the level 1, starting out from an intermediate pedal position, so that all of the authorized regenerative braking becomes available once the brake pedal has been depressed beyond a certain point. - Fr_min_0 is the minimum effort that can be required of the power train with the foot off, - Fr_min_1 is the maximum level, in terms of absolute value, of the regenerative braking, and - β is a function of the position of the brake pedal, defined from the range [0; 100] to the range [0; 1], characterized in that
A computer-readable storage medium storing a trust activation module, the trust activation module containing instructions that, when executed by a processor, perform a method comprising: Creating an isolation execution environment that executes an application, said isolation execution environment separate from the trust activation module, determining whether the application is associated with a select privilege level for accessing a component having a select trust level and executing in an execution environment separate from the isolation execution environment, the component used to access a resource controlled by an operating system; configuring a broker process to execute the component when the component is associated with a partial trust level, said broker process operating in the execution environment separate from the isolation environment, wherein a partial trust level permits access to the component by a low privilege application through the broker process, a full trust level permits access to the component by high privilege applications only and a base trust level permits access to the component by any application. Creating an isolation execution environment that executes an application, said isolation execution environment separate from the trust activation module, determining whether the application is associated with a select privilege level for accessing a component having a select trust level and executing in an execution environment separate from the isolation execution environment, the component used to access a resource controlled by an operating system; configuring a broker process to execute the component when the component is associated with a partial trust level, said broker process operating in the execution environment separate from the isolation environment, wherein a partial trust level permits access to the component by a low privilege application through the broker process, a full trust level permits access to the component by high privilege applications only and a base trust level permits access to the component by any application.
Method for time-referencing measured values of a consumption meter, comprising the following steps: reading a measured value from a consumption meter, wherein the measured value represents the consumption measured by the consumption meter, transmitting the measured value via a long-range interface to a referencing server on a communications path between the consumption meter and the referencing server, wherein a gateway is arranged on the communications path, wherein the gateway changes the interface between a close-range interface and the long-range interface, receiving the measured value by means of the referencing server and time-referencing the measured values received by the referencing server by means of a referencing unit, wherein the referencing unit is provided with the time by a time entity, wherein timeouts and/or the number of retransmissions are determined in network nodes on the communications path such that it is possible to comply with a maximum transmission time on the communications path. reading a measured value from a consumption meter, wherein the measured value represents the consumption measured by the consumption meter, transmitting the measured value via a long-range interface to a referencing server on a communications path between the consumption meter and the referencing server, wherein a gateway is arranged on the communications path, wherein the gateway changes the interface between a close-range interface and the long-range interface, receiving the measured value by means of the referencing server and time-referencing the measured values received by the referencing server by means of a referencing unit, wherein the referencing unit is provided with the time by a time entity, wherein timeouts and/or the number of retransmissions are determined in network nodes on the communications path such that it is possible to comply with a maximum transmission time on the communications path.
An electroosmotic pump, comprising: at least a fluid pathway part (19, 19') formed in a line shape; a membrane having a porous structure and being in the fluid pathway part (19, 19'); characterized by a first electrode having porosity, being in the fluid pathway part (19, 19') and disposed on the membrane, the first electrode comprising a first insulating porous support and a first electrochemical reaction material coated on the first insulating porous support; and a second electrode having porosity, being in the fluid pathway part (19, 19') and disposed on the membrane, the second electrode comprising a second insulating porous support and a second electrochemical reaction material coated on the second insulating porous support, wherein the first electrochemical reaction material is substantially uniformly distributed on the first insulating porous support, wherein the second electrochemical reaction material is substantially uniformly distributed on the second insulating porous support, and wherein fluid in the fluid pathway part (19, 19') is moved through the membrane, the first electrode and the second electrode. at least a fluid pathway part (19, 19') formed in a line shape; a membrane having a porous structure and being in the fluid pathway part (19, 19'); characterized by a first electrode having porosity, being in the fluid pathway part (19, 19') and disposed on the membrane, the first electrode comprising a first insulating porous support and a first electrochemical reaction material coated on the first insulating porous support; and a second electrode having porosity, being in the fluid pathway part (19, 19') and disposed on the membrane, the second electrode comprising a second insulating porous support and a second electrochemical reaction material coated on the second insulating porous support, wherein the first electrochemical reaction material is substantially uniformly distributed on the first insulating porous support, wherein the second electrochemical reaction material is substantially uniformly distributed on the second insulating porous support, and wherein fluid in the fluid pathway part (19, 19') is moved through the membrane, the first electrode and the second electrode.
An integrated process for continuously preparing 1,4-butanediol, which comprises the following stages: reacting formaldehyde with acetylene in the presence of a copper catalyst at a pH of from 5 to 8 and a molar ratio of formaldehyde to acetylene of at most 2:1, intermediately buffering the resulting butynediol-containing aqueous mixture for from 0.1 to 100 h, hydrogenating the mixture obtained after the intermediate buffering and distilling the hydrogenation product obtained in stage III to obtain 1,4-butanediol, where the reaction effluent from stage is conducted directly into the intermediate buffering and acetylene, formaldehyde, water and byproducts are removed in at least one distillation stage (IIa) after the intermediate buffering and where intermediate buffering is understood to mean a region which is spatially separate from the reactor of stage and the hydrogenation reactors of stage and may be any vessel, a tank, a stirred apparatus or a pipeline in which the reaction effluent remains for the inventive residence time. reacting formaldehyde with acetylene in the presence of a copper catalyst at a pH of from 5 to 8 and a molar ratio of formaldehyde to acetylene of at most 2:1, intermediately buffering the resulting butynediol-containing aqueous mixture for from 0.1 to 100 h, hydrogenating the mixture obtained after the intermediate buffering and distilling the hydrogenation product obtained in stage III to obtain 1,4-butanediol,
An assembling method of a vehicular air-conditioning apparatus including various equipment, which is required for air conditioning a vehicle, mounted in a vehicular-air-conditioner frame on a production line, the assembling method of the vehicular air-conditioning apparatus comprising the steps of: modularizing a compressor and auxiliary equipment of the compressor, among the various equipment, by combining the compressor and the auxiliary equipment off the production line; and incorporating the compressor and the auxiliary equipment, which has been modularized, into assembly work on the production line as a compressor module, wherein the auxiliary equipment is at least a refrigerant gas-liquid separator, a check valve for preventing backflow of the refrigerant, a drying device for removing moisture content in the refrigerant, a solenoid valve for controlling a flow rate of refrigerant, a filter for filtering the refrigerant, and refrigerant pipes connected to the compressor and the auxiliary equipment by brazing, and wherein the compressor module includes a sectionally groove-shaped support having a flange on both ends, and the compressor is disposed on a base plate of the support, wherein the solenoid valve and other auxiliary equipment that need support are secured to a mounting member provided to the support. modularizing a compressor and auxiliary equipment of the compressor, among the various equipment, by combining the compressor and the auxiliary equipment off the production line; and incorporating the compressor and the auxiliary equipment, which has been modularized, into assembly work on the production line as a compressor module, wherein the auxiliary equipment is at least a refrigerant gas-liquid separator, a check valve for preventing backflow of the refrigerant, a drying device for removing moisture content in the refrigerant, a solenoid valve for controlling a flow rate of refrigerant, a filter for filtering the refrigerant, and refrigerant pipes connected to the compressor and the auxiliary equipment by brazing, and wherein the compressor module includes a sectionally groove-shaped support having a flange on both ends, and the compressor is disposed on a base plate of the support, wherein the solenoid valve and other auxiliary equipment that need support are secured to a mounting member provided to the support.
Method for evaluating a force for demoulding a tyre from a mould, consisting in measuring the force for demoulding a material from a mould specimen and a control test specimen, said method including: - a step of choosing a mould specimen, - a step of choosing a reference material, - a step of measuring the force F 0 for demoulding the reference material from the mould specimen, - a step of determining the force M 0 for demoulding the reference material from the control test specimen, - a step of selecting a material to be measured, - a step of determining the force M for demoulding the material from the control test specimen, - a step of calculating the ratio of the forces M 0 for demoulding the reference material and M for demoulding the material from the control test specimen so as to define a coefficient C of material impact, - a step of calculating the force F for demoulding the material such that F = C x F 0. - a step of choosing a mould specimen, - a step of choosing a reference material, - a step of measuring the force F 0 for demoulding the reference material from the mould specimen, - a step of determining the force M 0 for demoulding the reference material from the control test specimen, - a step of selecting a material to be measured, - a step of determining the force M for demoulding the material from the control test specimen, - a step of calculating the ratio of the forces M 0 for demoulding the reference material and M for demoulding the material from the control test specimen so as to define a coefficient C of material impact, - a step of calculating the force F for demoulding the material such that F = C x F 0.
A door operator, comprising: a door operator housing; a door driver for opening and closing a door; a controller including a microprocessor, the microprocessor connected to and controlling the door driver; a graphical user interface embedded in the door operator during production and hidden under a cover which serves to surround and enclose the components of the door operator, and accessible by removal of the cover or at least a portion of the door operator housing, the graphical user interface comprising a pixel display screen (72") capable of graphics and augmented with a planar touch select overlay being the user input device coupled to the microprocessor to display information stored in the controller and to allow the microprocessor to receive instructions selected from the display screen (72") by a user; a memory module coupled to the microprocessor, the memory module storing code executed by the microprocessor, wherein the microprocessor under control of the code displays to the user various menu items on the graphical user interface display screen (72") and enables the user to select among the menu items using the display screen (72") with touch select input such that the microprocessor derives a control signal; and circuitry configured to receive the control signal from the microprocessor and to carry the control signal to the door driver. a door operator housing; a door driver for opening and closing a door; a controller including a microprocessor, the microprocessor connected to and controlling the door driver; a graphical user interface embedded in the door operator during production and hidden under a cover which serves to surround and enclose the components of the door operator, and accessible by removal of the cover or at least a portion of the door operator housing, the graphical user interface comprising a pixel display screen (72") capable of graphics and augmented with a planar touch select overlay being the user input device coupled to the microprocessor to display information stored in the controller and to allow the microprocessor to receive instructions selected from the display screen (72") by a user; a memory module coupled to the microprocessor, the memory module storing code executed by the microprocessor, wherein the microprocessor under control of the code displays to the user various menu items on the graphical user interface display screen (72") and enables the user to select among the menu items using the display screen (72") with touch select input such that the microprocessor derives a control signal; and circuitry configured to receive the control signal from the microprocessor and to carry the control signal to the door driver.
A method for notifying wavelength service information, comprising: obtaining and storing wavelength service information of an existing service at an optical cross source after connecting the optical cross source and an optical cross sink according to optical cross-connection information of the existing service, wherein the wavelength service information comprises a light wavelength, a signal rate and a modulation code pattern; transferring the wavelength service information from the optical cross source to the optical cross sink according to the optical cross-connection information; and inserting, at the optical cross sink, the wavelength service information into a link management protocol message and sending the link management protocol message to a receiving site, so that the receiving site receives and stores the wavelength service information, in order to select a wavelength path for a new service according to the light wavelength, the signal rate and the modulation code pattern that are in the wavelength service information. obtaining and storing wavelength service information of an existing service at an optical cross source after connecting the optical cross source and an optical cross sink according to optical cross-connection information of the existing service, wherein the wavelength service information comprises a light wavelength, a signal rate and a modulation code pattern; transferring the wavelength service information from the optical cross source to the optical cross sink according to the optical cross-connection information; and inserting, at the optical cross sink, the wavelength service information into a link management protocol message and sending the link management protocol message to a receiving site, so that the receiving site receives and stores the wavelength service information, in order to select a wavelength path for a new service according to the light wavelength, the signal rate and the modulation code pattern that are in the wavelength service information.
A composition, comprising: a. at least one cooling compound; and b. at least one potentiating agent that comprises a mixture comprising methyl acetate and at least one other potentiating agent selected from the group consisting of: (+)-methyl -cis-3-oxo-2-pentyl-1-cyclopentaneacetate, n-(1-propylbutyl)-1,3-benzodioxole-5-carboxamide, phloretin, ferulic acid, a cyclohexanecarboxylic acid, a mixture comprising (+-)-4-[(3,3-dimethyl-2-oxiranyl)methoxy]-7H-furo[3,2-g]chromen-7-one, (+-)-4-(2,3-dihydroxy-3-methylbutoxy)-7H-furo[3,2-g]chromen-7-one, 5,7-dimethoxy-2H-chromen-2-one, and (+-)-9- [(3,3 -dimethyl-2-oxiranyl)methoxy] -4-methoxy-7H-furo[3,2-g]chromen-7-one, at least one polymethoxy flavonoid, 3-(1-((3,5-dimethylisoxazol-4-yl)methyl)-1H-pyrazol-4-yl)-1-(3-hydroxybenzyl)imidazolidine-2,4-dione, and combinations thereof; wherein the mixture is present in the composition in an amount sufficient to increase the intensity of flavor of the at least one cooling compound and increase the intensity of the cooling sensation of the at least one cooling compound, when a subject is contacted with the composition, and wherein the amount sufficient of the mixture is from 0.02 to 10,000 ppm. a. at least one cooling compound; and b. at least one potentiating agent that comprises a mixture comprising methyl acetate and at least one other potentiating agent selected from the group consisting of: (+)-methyl -cis-3-oxo-2-pentyl-1-cyclopentaneacetate, n-(1-propylbutyl)-1,3-benzodioxole-5-carboxamide, phloretin, ferulic acid, a cyclohexanecarboxylic acid, a mixture comprising (+-)-4-[(3,3-dimethyl-2-oxiranyl)methoxy]-7H-furo[3,2-g]chromen-7-one, (+-)-4-(2,3-dihydroxy-3-methylbutoxy)-7H-furo[3,2-g]chromen-7-one, 5,7-dimethoxy-2H-chromen-2-one, and (+-)-9- [(3,3 -dimethyl-2-oxiranyl)methoxy] -4-methoxy-7H-furo[3,2-g]chromen-7-one, at least one polymethoxy flavonoid, 3-(1-((3,5-dimethylisoxazol-4-yl)methyl)-1H-pyrazol-4-yl)-1-(3-hydroxybenzyl)imidazolidine-2,4-dione, and combinations thereof; wherein the mixture is present in the composition in an amount sufficient to increase the intensity of flavor of the at least one cooling compound and increase the intensity of the cooling sensation of the at least one cooling compound, when a subject is contacted with the composition, and wherein the amount sufficient of the mixture is from 0.02 to 10,000 ppm.
A lamp assembly, comprising: a reflector defining a light reflecting area; a LED assembly disposed within said light reflecting area, said LED assembly including at least one LED operable to emit a light in response to a flow of a LED current (I LED) through said at least one LED; at least one optical power sensor operable to sense an emission of the light by said at least one LED; and a LED driver circuit, said LED driver circuit in electrical communication with said LED assembly to control the flow of the LED current (I LED) through said at least one LED as a function of a sensing of the emission of the light by said at least one optical power sensor, characterized in that the at least one optical power sensor is included in said LED assembly, and the lamp assembly further comprises a heat sink defining a circuit housing area and in that the LED driver circuit is disposed within said circuit housing area and in that the LED assembly is in thermal communication with said heat sink via thermal conductors (56, 57) to dissipate heat away from said LED assembly. a reflector defining a light reflecting area; a LED assembly disposed within said light reflecting area, said LED assembly including at least one LED operable to emit a light in response to a flow of a LED current (I LED) through said at least one LED; at least one optical power sensor operable to sense an emission of the light by said at least one LED; and a LED driver circuit, said LED driver circuit in electrical communication with said LED assembly to control the flow of the LED current (I LED) through said at least one LED as a function of a sensing of the emission of the light by said at least one optical power sensor, the at least one optical power sensor is included in said LED assembly, and the lamp assembly further comprises a heat sink defining a circuit housing area and in that the LED driver circuit is disposed within said circuit housing area and in that the LED assembly is in thermal communication with said heat sink via thermal conductors (56, 57) to dissipate heat away from said LED assembly.