mhurhangee/patent-ind-claim-en huggingface dataset:
Safety contact device for recognition of two cables, which belong to one another, of a solar cell series circuit, comprising at least one first measuring electrode with a tip for application to the core of a first cable, with a base body with a cable mount for introduction and retention of at least one of the cables, wherein the measuring electrode is guided within the base body by guide means and can be brought in the direction of the cable mount and/or of the cable, wherein the cable mount is arranged coaxially with the movement axis through the measuring electrode so that the tip of the measuring electrode always meets the metallic core of the first cable, wherein the guide means comprise a spring by which the measuring electrode is resiliently mounted, wherein the measuring electrode is movable against a restoring force so that the cable can be pushed into the cable mount until the measuring electrode bears under pressure against the metallic core , and the measuring electrode offers a resiliently movable resistance to the cable during pushing in, wherein associated with the cable mount are locking means which press against the casing of the cable and thereby fix the cable in the cable mount by friction couple.
Insert module for placing in a lining of a traffic tunnel, wherein the insert module is slidable in a recess provided in the lining and comprises a pre-assembled functional element and a wall , wall on which the functional element is placed, characterized in that the wall is a wall plate , wherein the ratio of the thickness of the wall plate to the maximal height of the wall plate is between 1:10 and 1:20, preferably between 1:15 and 1:20 and particularly preferably between 1:18 and 1:20.
An air-conditioning system (A, A1, A2, A3) comprising: an air-conditioning apparatus (B) in which two or more indoor units are connected to at least one outdoor unit ; a conveying fan configured to convey conditioned air; and control means configured to control the air-conditioning apparatus (B) and the conveying fan on a basis of a preset target evaporating temperature, wherein a temperature sensor configured to measure a temperature of the air-conditioned space and a humidity sensor configured to measure a humidity of the air-conditioned space are provided in each of the indoor units or in the air-conditioned space , each of the indoor units configured to perform thermo-ON or thermo-OFF in accordance with the temperature of an air-conditioned space which is measured by the temperature sensor , and the control means configured to reset an upper limit of the target evaporating temperature when: a control determination temperature difference which is a difference between a set temperature and the temperature of the air-conditioned space is within a predetermined range; the humidity of the air-conditioned space measured by the humidity sensor is equal to or lower than a predetermined value; and a thermo-ON indoor unit and a thermo-OFF indoor unit are present together in the same air-conditioned space . an air-conditioning apparatus (B) in which two or more indoor units are connected to at least one outdoor unit ; a conveying fan configured to convey conditioned air; and control means configured to control the air-conditioning apparatus (B) and the conveying fan on a basis of a preset target evaporating temperature, wherein a temperature sensor configured to measure a temperature of the air-conditioned space and a humidity sensor configured to measure a humidity of the air-conditioned space are provided in each of the indoor units or in the air-conditioned space , each of the indoor units configured to perform thermo-ON or thermo-OFF in accordance with the temperature of an air-conditioned space which is measured by the temperature sensor , and the control means configured to reset an upper limit of the target evaporating temperature when: a control determination temperature difference which is a difference between a set temperature and the temperature of the air-conditioned space is within a predetermined range; the humidity of the air-conditioned space measured by the humidity sensor is equal to or lower than a predetermined value; and a thermo-ON indoor unit and a thermo-OFF indoor unit are present together in the same air-conditioned space .
A system comprising: a battery pack having multiple lithium ion cells connected in series; a charger adapted to charge the battery pack ; characterized in that the system further comprises: a controller configured to: monitor a voltage of the battery pack as a whole during charging of the battery pack; calculate a rate of change of the voltage of the battery pack with respect to a state of charge of the battery pack, dV/dSOC, based on the monitored voltage, without calculating dV/dSOC on a cell-by-cell basis; compare a magnitude of the calculated rate dV/dSOC with a predetermined rate dV/dSOC associated with the battery pack; and terminate charging of the battery pack based on the result of the comparison. a battery pack having multiple lithium ion cells connected in series; a charger adapted to charge the battery pack ; characterized in that the system further comprises: a controller configured to: monitor a voltage of the battery pack as a whole during charging of the battery pack; calculate a rate of change of the voltage of the battery pack with respect to a state of charge of the battery pack, dV/dSOC, based on the monitored voltage, without calculating dV/dSOC on a cell-by-cell basis; compare a magnitude of the calculated rate dV/dSOC with a predetermined rate dV/dSOC associated with the battery pack; and terminate charging of the battery pack based on the result of the comparison. monitor a voltage of the battery pack as a whole during charging of the battery pack; calculate a rate of change of the voltage of the battery pack with respect to a state of charge of the battery pack, dV/dSOC, based on the monitored voltage, without calculating dV/dSOC on a cell-by-cell basis; compare a magnitude of the calculated rate dV/dSOC with a predetermined rate dV/dSOC associated with the battery pack; and terminate charging of the battery pack based on the result of the comparison.
A thermal detection system for detecting a thermal profile of an optical window of an airborne platform or vehicle that contains a sensor system having optical elements, the thermal detection system comprising: a thermal imager configured to be arranged within the airborne platform or vehicle and to image a portion of the optical window, wherein the portion of the optical window coincides with an optical path of the sensor system; and a processor that is in communication with the thermal imager and configured to receive images of the portion of the optical window to determine a thermal gradient of the portion of the optical window, wherein the processor is configured to apply corrections to the optical elements of the sensor system using the thermal gradient. a thermal imager configured to be arranged within the airborne platform or vehicle and to image a portion of the optical window, wherein the portion of the optical window coincides with an optical path of the sensor system; and a processor that is in communication with the thermal imager and configured to receive images of the portion of the optical window to determine a thermal gradient of the portion of the optical window, wherein the processor is configured to apply corrections to the optical elements of the sensor system using the thermal gradient.
A laser amplifier comprising: a planar optical waveguide for laser amplification; and an input optical system for inputting signal light to be amplified by said laser amplifier to a core layer of the planar optical waveguide, wherein the input optical system includes: a collimating lens for converting output light from a signal light source into parallel light; an anamorphic prism for converting output light from the collimating lens into parallel light having a reduced beam width in a first direction; and a cylindrical lens for collecting output light from the anamorphic prism in a second direction, and output light from the cylindrical lens is input to the core layer, as the signal light having been collected in the second direction and to be propagated inside the core layer without changing the beam width in the first direction, and wherein the planar optical waveguide has a laminated structure including an upper clad layer , the core layer , and a lower clad layer , the first direction is set to be orthogonal to a lamination direction in the laminated structure, and the second direction is set to be parallel to the lamination direction in the laminated structure. a collimating lens for converting output light from a signal light source into parallel light; an anamorphic prism for converting output light from the collimating lens into parallel light having a reduced beam width in a first direction; and a cylindrical lens for collecting output light from the anamorphic prism in a second direction, and output light from the cylindrical lens is input to the core layer, as the signal light having been collected in the second direction and to be propagated inside the core layer without changing the beam width in the first direction, and wherein the planar optical waveguide has a laminated structure including an upper clad layer , the core layer , and a lower clad layer , the first direction is set to be orthogonal to a lamination direction in the laminated structure, and the second direction is set to be parallel to the lamination direction in the laminated structure.
A composition comprising: Albizia julibrissin bark extract; Evodia rutaecarpa fruit extract; hydrolyzed soy flour; sea whip extract; and a dermatologically acceptable vehicle. Albizia julibrissin bark extract; Evodia rutaecarpa fruit extract; hydrolyzed soy flour; sea whip extract; and a dermatologically acceptable vehicle.
A method, comprising: depositing a photoresist material on and between light emitting diode (LED) dies on a carrier substrate ; applying light through the carrier substrate towards the LED dies and the deposited photoresist material , responsive to depositing the photoresist material ; a portion of the light incident on the LED dies being absorbed by the LED dies to retain soluble first portions of the photoresist material on the LED dies ; exposing portions of photoresist material between the LED dies to another portion of the light to render second portions of the photoresist material between the LED insoluble; removing the first portions of photoresist material , responsive to applying the light ; depositing an elastomeric material on each LED die and between the second portions of photoresist, responsive to removing the first portions; and removing the second portions of the photoresist material responsive to depositing the elastomeric material , the elastomeric material forming elastomeric interface layers , which facilitate adhesion with a pick-up head , on the LED dies . depositing a photoresist material on and between light emitting diode (LED) dies on a carrier substrate ; applying light through the carrier substrate towards the LED dies and the deposited photoresist material , responsive to depositing the photoresist material ; a portion of the light incident on the LED dies being absorbed by the LED dies to retain soluble first portions of the photoresist material on the LED dies ; exposing portions of photoresist material between the LED dies to another portion of the light to render second portions of the photoresist material between the LED insoluble; removing the first portions of photoresist material , responsive to applying the light ; depositing an elastomeric material on each LED die and between the second portions of photoresist, responsive to removing the first portions; and removing the second portions of the photoresist material responsive to depositing the elastomeric material , the elastomeric material forming elastomeric interface layers , which facilitate adhesion with a pick-up head , on the LED dies .
A method for one-step capillary isoelectric focusing (cIEF) and chemical mobilization, the method comprising: (a) partially filling the anode end of a separation capillary for cIEF, first, with a length of a catholyte solution, then second, with a mixture comprising an ampholyte and analytes followed by an anolyte solution, wherein the cathode end of the separation capillary is interfaced to an electrokinetically pumped nanoelectrospray emitter on a mass spectrometer; (b) directing flow of an acidic sheath electrolyte solution and the anolyte solution toward the nanoelectrospray emitter, wherein the anolyte solution feeds into the nanoelectrospray emitter by flowing out from the cathode end of the separation capillary; (c) applying a voltage to the anode and cathode ends of the separation capillary; (d) inducing isoelectric focusing of the analytes and concomitant chemical mobilization of the analytes toward the cathode end of the separation capillary by allowing the catholyte to be consumed by the acidic sheath flow electrolyte, which then then acts as a chemical mobilization solution; and (e) forming a nanoelectrospray, wherein the acidic sheath electrolyte solution ensheaths focused analytes of step (d) flowing out the cathode end of the separation capillary; wherein first a pH gradient is established by the catholyte solution and the anolyte solution to induce isoelectric focusing of the analytes in the mixture, and as the catholyte solution is titrated to lower pH by the acidic sheath electrolyte solution the focused analytes are chemically mobilized, then electrokinetically pumped toward the mass spectrometer by the acidic sheath electrolyte solution, thereby forming the nanoelectrospray. (a) partially filling the anode end of a separation capillary for cIEF, first, with a length of a catholyte solution, then second, with a mixture comprising an ampholyte and analytes followed by an anolyte solution, wherein the cathode end of the separation capillary is interfaced to an electrokinetically pumped nanoelectrospray emitter on a mass spectrometer; (b) directing flow of an acidic sheath electrolyte solution and the anolyte solution toward the nanoelectrospray emitter, wherein the anolyte solution feeds into the nanoelectrospray emitter by flowing out from the cathode end of the separation capillary; (c) applying a voltage to the anode and cathode ends of the separation capillary; (d) inducing isoelectric focusing of the analytes and concomitant chemical mobilization of the analytes toward the cathode end of the separation capillary by allowing the catholyte to be consumed by the acidic sheath flow electrolyte, which then then acts as a chemical mobilization solution; and (e) forming a nanoelectrospray, wherein the acidic sheath electrolyte solution ensheaths focused analytes of step (d) flowing out the cathode end of the separation capillary;
A nasal respiratory interface comprising: a frame having a front surface , a rear surface , and an aperture extending from the front surface to the rear surface , the frame having an oval form with a truncated height portion; a seal for a nasal pillow , the seal attached to the frame ; and a yoke having a front surface and a rear surface, the yoke configured to couple the frame to a headgear system, wherein the yoke comprises a recessed surface , wherein the frame comprises a recessed wall and a shelf , and wherein the recessed wall of the frame is configured to mate with the recessed surface of the yoke , wherein a central portion (FC) of the yoke extends partially around the aperture and has a vertical height that is less than that of two lateral apexes (A1, A2) between which the central portion (FC) spans. a frame having a front surface , a rear surface , and an aperture extending from the front surface to the rear surface , the frame having an oval form with a truncated height portion; a seal for a nasal pillow , the seal attached to the frame ; and a yoke having a front surface and a rear surface, the yoke configured to couple the frame to a headgear system, wherein the yoke comprises a recessed surface , wherein the frame comprises a recessed wall and a shelf , and wherein the recessed wall of the frame is configured to mate with the recessed surface of the yoke , wherein a central portion (FC) of the yoke extends partially around the aperture and has a vertical height that is less than that of two lateral apexes (A1, A2) between which the central portion (FC) spans.
A process for preparing potassium-promoted Fe 2+ (Fe 3+ y Al 3+ 1-y ) 2 O 4 [0.3≤y≤0.7] silica-containing pellets, comprising subjecting colloidal silica to gelation in the presence of Fe 2+ (Fe 3+ y Al 3+ 1-y ) 2 O 4 spinel particles, converting the gelled material into pellets and adding potassium to said pellets.
A method for the automated driving of a motor vehicle , by means of at least one camera and an evaluation unit for evaluating the data captured by the camera , wherein by means of the camera lane markings are captured and traffic lanes are determined therefrom, characterized in that changes in the lane markings , which would lead to determining a new traffic lane , are observed over a predefined distance (d grenz1 , d grenz2 ), wherein the new traffic lane is adopted only if the changed lane marking has been captured over a predefined distance (d grenz1 , d grenz2 ), wherein the distance (d grenz1 , d grenz2 ) is selected differently for the adoption of a traffic lane for a left and a right traffic lane.
A hybrid vehicle control method for controlling a hybrid vehicle comprising an electric power source , a vehicle electrical equipment and a drive motor to which electric power is supplied from the electric power source , whereby the vehicle electrical equipment and the drive motor are electrically connected to the electric power source via at least a shared harness ; the control method being characterized in that : when a temperature of the harness is equal to or greater than a predetermined temperature, upper limit values of electric power supplied from the electric power source to the vehicle electrical equipment and the drive motor are both reduced; and a degree of reduction in the upper limit value for the vehicle electrical equipment is greater than a degree of reduction in the upper limit value for the drive motor . when a temperature of the harness is equal to or greater than a predetermined temperature, upper limit values of electric power supplied from the electric power source to the vehicle electrical equipment and the drive motor are both reduced; and a degree of reduction in the upper limit value for the vehicle electrical equipment is greater than a degree of reduction in the upper limit value for the drive motor .
A method for low-nitrogen-oxide combustion of a gaseous fuel in the combustion chamber of a combustion engine with internal mixture formation, comprising: - injecting of a first gas quantity during the suction process; - compression of the gas-air mixture; - injecting a second gas quantity starting during or at the end of compression, wherein the first gas quantity and the second gas quantity are selected such that a predetermined value of NOx emission is not exceeded; - igniting of the gas-air mixture, - combusting of the total gas quantity from the first gas quantity and second gas quantity , wherein the first gas quantity is combusted premixed, and the second gas quantity is predominantly converted in a mixture-controlled combustion, wherein in the case of dynamic load increases, the second gas quantity is increased and the first gas quantity is reduced, and in the case of dynamic load decreases, above all the first gas quantity is reduced, and wherein in the case of dynamic load increases or load decreases, a change in the first gas quantity and/or the second gas quantity occurs under the boundary condition of not exceeding a predetermined value of THC emission. - injecting of a first gas quantity during the suction process; - compression of the gas-air mixture; - injecting a second gas quantity starting during or at the end of compression, wherein the first gas quantity and the second gas quantity are selected such that a predetermined value of NOx emission is not exceeded; - igniting of the gas-air mixture, - combusting of the total gas quantity from the first gas quantity and second gas quantity , wherein the first gas quantity is combusted premixed, and the second gas quantity is predominantly converted in a mixture-controlled combustion, wherein
A luminaire comprising: a waveguide suspended distal to a mounting element and spaced apart therefrom, said waveguide having a first surface facing the mounting element and a second surface facing away from the mounting element, and an edge between the first and the second surfaces; at least one coupling cavity extending into the waveguide from the first surface toward the second surface at a particular location; a LED component associated with the waveguide so as to emit light into the at least one coupling cavity; and first and second caps assemblies coupled to the waveguide and wherein the first cap assembly is positioned adjacent the first surface and the second cap assembly is positioned adjacent the second surface opposite the first cap assembly ; wherein the first and second caps assemblies are disposed at the location of the at least one coupling cavity ; wherein a combination of the waveguide and the first and second caps assemblies encloses the at least one LED within the at least one respective cavity; wherein the first cap assembly is coupled to the mounting element; and a structure secures the first cap assembly to the mounting element ; and wherein the second cap assembly is coupled to a second optical element spaced apart from the waveguide such that the second cap assembly is disposed between the waveguide and the second optical element . a waveguide suspended distal to a mounting element and spaced apart therefrom, said waveguide having a first surface facing the mounting element and a second surface facing away from the mounting element, and an edge between the first and the second surfaces; at least one coupling cavity extending into the waveguide from the first surface toward the second surface at a particular location; a LED component associated with the waveguide so as to emit light into the at least one coupling cavity; and first and second caps assemblies coupled to the waveguide and wherein the first cap assembly is positioned adjacent the first surface and the second cap assembly is positioned adjacent the second surface opposite the first cap assembly ; wherein the first and second caps assemblies are disposed at the location of the at least one coupling cavity ; wherein a combination of the waveguide and the first and second caps assemblies encloses the at least one LED within the at least one respective cavity; wherein the first cap assembly is coupled to the mounting element; and a structure secures the first cap assembly to the mounting element ; and wherein the second cap assembly is coupled to a second optical element spaced apart from the waveguide such that the second cap assembly is disposed between the waveguide and the second optical element .
A turbine section for a gas turbine engine , comprising: a turbine ; and an inner liner and an outer liner aft of the turbine , a support structure including a fairing wherein at least one of the inner and outer liners floats with radial play on the support structure, and each of the inner liner , outer liner and fairing are ceramic-based. a turbine ; and an inner liner and an outer liner aft of the turbine , a support structure including a fairing wherein at least one of the inner and outer liners floats with radial play on the support structure, and each of the inner liner , outer liner and fairing are ceramic-based.