mhurhangee/patent-ind-claim-en huggingface dataset:
An air separation unit for an OBOGS comprising a housing having an inlet for receiving a wet inlet air and an outlet for outputting a dry product gas , the housing including an outer side wall and first, second and third annular walls to thereby define a series of concentric annular chambers within the housing , wherein: a. a first annular chamber is defined by the outer side wall and a first annular wall and is fluidly coupled to the inlet , the first annular chamber including a desiccant material configured to receive the wet inlet air and output a dried air ; b. an unfilled second annular chamber defined by the first annular wall and a second annular wall and fluidly coupled to the first annular chamber via a first passageway ; and c. a third annular chamber defined by the second annular wall and the third annular wall and fluidly coupled to the second annular chamber via a second passageway at a first end and the outlet at a second end, the third annular chamber configured to receive air separation material to selectively remove unwanted constituents from the dried air and output the dry product gas . a. a first annular chamber is defined by the outer side wall and a first annular wall and is fluidly coupled to the inlet , the first annular chamber including a desiccant material configured to receive the wet inlet air and output a dried air ; b. an unfilled second annular chamber defined by the first annular wall and a second annular wall and fluidly coupled to the first annular chamber via a first passageway ; and c. a third annular chamber defined by the second annular wall and the third annular wall and fluidly coupled to the second annular chamber via a second passageway at a first end and the outlet at a second end, the third annular chamber configured to receive air separation material to selectively remove unwanted constituents from the dried air and output the dry product gas .
A load lock for a substrate container having a housing that has a bottom , a ceiling as well as side walls and being intended for receiving flat substrates , wherein the load lock has a load chamber for receiving the substrate container that has a bottom , a ceiling , a rear wall , a front wall , a first side wall and a second side wall that connect the rear wall to the front wall , and wherein a carrier unit for receiving the substrate container is arranged in the load chamber , wherein the load chamber can be divided into a first part and a second part along a dividing plane (A, B, C, D) to open the load chamber , characterized in that the dividing plane (A, B, C, D) extends toward the rear wall offset from the front wall through the first side wall , the second side wall , the bottom and the ceiling of the load chamber .
A device comprising: at least one processor configured to receive at least one microphone signal from at least one microphone ; and at least one memory storing program code executable by at least one processor to perform operations comprising: identifying occurrence of a trigger sound in the at least one microphone signal; predicting probability of occurrence of a subsequent sound having a defined disturbance characteristic and satisfying a defined disturbance level in the at least one microphone signal following the occurrence of the trigger sound; when the probability of occurrence of the subsequent sound having the defined disturbance characteristic satisfies a remedial action rule, triggering a remedial action to be performed to mute the at least one microphone signal or to suppress the subsequent sound in the at least one microphone signal. at least one processor configured to receive at least one microphone signal from at least one microphone ; and at least one memory storing program code executable by at least one processor to perform operations comprising: identifying occurrence of a trigger sound in the at least one microphone signal; predicting probability of occurrence of a subsequent sound having a defined disturbance characteristic and satisfying a defined disturbance level in the at least one microphone signal following the occurrence of the trigger sound; when the probability of occurrence of the subsequent sound having the defined disturbance characteristic satisfies a remedial action rule, triggering a remedial action to be performed to mute the at least one microphone signal or to suppress the subsequent sound in the at least one microphone signal. identifying occurrence of a trigger sound in the at least one microphone signal; predicting probability of occurrence of a subsequent sound having a defined disturbance characteristic and satisfying a defined disturbance level in the at least one microphone signal following the occurrence of the trigger sound; when the probability of occurrence of the subsequent sound having the defined disturbance characteristic satisfies a remedial action rule, triggering a remedial action to be performed to mute the at least one microphone signal or to suppress the subsequent sound in the at least one microphone signal.
Use of a brazing material for brazing a brazed plate heat exchanger comprising a number of heat exchanger plates of stainless steel being provided with a pressed pattern of ridges and grooves adapted to provide contact points between neighbouring heat exchanger plates, such that the heat exchanger plates are kept on a distance from one another and such that interplate flow channels for media to exchange heat are formed between the heat exchanger plates, the brazing material comprising a brazing alloy comprising at least one melting point depressing element in the form of Silicon, Boron, Phosphorous and/or Manganese, and metals resembling the composition of the heat exchanger plates, characterized in that the brazing material comprises a mixture between grains of a melting brazing material having solidus and liquidus temperatures lower than the brazing temperature and a non-melting brazing material having solidus and liquidus temperatures above the brazing temperature, wherein the ratio between the melting and non-melting brazing materials is such that an alloy formed by the melting and non-melting brazing materials has a solidus temperature lower than the brazing temperature and a liquidus temperature higher than the brazing temperature, and wherein the melting brazing material grains comprise boron as a melting point lowering element.
A belt for measuring temperature of an object, the belt comprising: - at least one measurement sensor , - a strip having a circumference intended to surround the object, - a device for clamping the strip around the object, characterized in that the temperature sensor is mounted on an individual heat-insulating support , displaceable in a guiding direction toward the object (OBJ) between and relatively to at least two heat-insulating pads which are intended to abut against the object from a first high position, in which the sensor is at a non-zero distance from the object along the guiding direction when the belt is attached around the object, to a second low position, in which when the belt is attached around the object the sensor is applied against the object, the pads being attached to the strip . - at least one measurement sensor , - a strip having a circumference intended to surround the object, - a device for clamping the strip around the object,
A 3D panel, comprising: a first substrate; a second substrate; and liquid crystals filled between the first substrate and the second substrate, wherein both the first substrate and the second substrate are provided with a common electrode and a signal electrode, the first substrate comprises, in sequence from top to bottom, a first base substrate , a first common electrode , a first common electrode lead , a first insulation layer , a first signal electrode lead , a second insulation layer and a first signal electrode ; and the second substrate comprises, in sequence from bottom to top, a second base substrate , a second common electrode , a second common electrode lead , a third insulation layer , a second signal electrode lead , a fourth insulation layer and a second signal electrode , wherein the first signal electrode is arranged to face the second signal electrode , and both the first signal electrode and the second signal electrode are composed of a plurality of stripped electrodes, and an arrangement direction of the stripped electrodes in the first signal electrode is interlaced with that of the stripped electrodes in the second signal electrode , the plurality of stripped electrodes in the first signal electrode are evenly arranged and have a first period; the plurality of stripped electrodes in the second signal electrode are evenly arranged and have a second period which is different from the first period. a first substrate; a second substrate; and liquid crystals filled between the first substrate and the second substrate, wherein both the first substrate and the second substrate are provided with a common electrode and a signal electrode, the first substrate comprises, in sequence from top to bottom, a first base substrate , a first common electrode , a first common electrode lead , a first insulation layer , a first signal electrode lead , a second insulation layer and a first signal electrode ; and the second substrate comprises, in sequence from bottom to top, a second base substrate , a second common electrode , a second common electrode lead , a third insulation layer , a second signal electrode lead , a fourth insulation layer and a second signal electrode , wherein the first signal electrode is arranged to face the second signal electrode , and both the first signal electrode and the second signal electrode are composed of a plurality of stripped electrodes, and an arrangement direction of the stripped electrodes in the first signal electrode is interlaced with that of the stripped electrodes in the second signal electrode , the plurality of stripped electrodes in the first signal electrode are evenly arranged and have a first period; the plurality of stripped electrodes in the second signal electrode are evenly arranged and have a second period which is different from the first period.
Chassis component for a motor vehicle, the chassis component having a core module with at least one first load-conducting element , at least one second load-conducting element and at least one load transfer element connecting the at least one first load-conducting element and the at least one second load-conducting element , and an overmoulding , characterized in that at least one load transfer element comprises unidirectionally arranged continuous fibres and at least one load transfer element comprises bidirectionally or multidirectionally arranged continuous fibres.
A method for surface-modifying an object made of nylon, the method comprising: step 1 of forming polymerization initiation points on a surface of the object; and step 2 of radically polymerizing a monomer starting from the polymerization initiation points by irradiation with ultraviolet light having a wavelength of 300 to 400 nm to grow polymer chains on the surface of the object so that a modification layer having a thickness of 70 to 1,200 nm is formed on the surface, wherein the monomer is a halogen-containing and nitrogen-containing monomer. step 1 of forming polymerization initiation points on a surface of the object; and step 2 of radically polymerizing a monomer starting from the polymerization initiation points by irradiation with ultraviolet light having a wavelength of 300 to 400 nm to grow polymer chains on the surface of the object so that a modification layer having a thickness of 70 to 1,200 nm is formed on the surface, wherein the monomer is a halogen-containing and nitrogen-containing monomer.
A multiple-pane insulating glazing unit having a between-pane space, the multiple-pane insulating glazing unit comprising a pane having a surface coated with a low-emissivity coating, said surface of said pane being exposed to said between-pane space, the low-emissivity coating comprising, in sequence moving outwardly from said surface of said pane, a dielectric base coat comprising oxide film, nitride film, or oxynitride film, a first infrared-reflective layer, a first nickel-aluminum blocker layer in contact with the first infrared-reflective layer, a dielectric middle coat comprising an oxide film in contact with the first nickel-aluminum blocker layer, a second infrared-reflective layer, a second nickel-aluminum blocker layer in contact with the second infrared-reflective layer, and a dielectric top coat comprising an oxide film in contact with the second nickel-aluminum blocker layer, the first and second infrared-reflective layers each comprising silver, the first and second nickel-aluminum blocker layers having a combined thickness of from 90 Å to 165 Å, wherein the low-emissivity coating has only two silver-containing infrared-reflective layers and the multiple-pane insulating glazing unit has a visible transmittance of between 0.3 and 0.5, the first and second nickel-aluminum blocker layers deposited in metallic form so as to consist of nickel, aluminum, and titanium as deposited.
System for purifying air, comprising: - an air purifier with a control unit and a filtration unit controlled by the control unit , - a portable module of the wireless autonomous module type, comprising means for storing electrical energy and integrating at least one portable air sensor arranged to be able to be: - coupled to the air purifier , or - uncoupled from the air purifier , the portable module comprising a man-machine interface and/or the system for purifying air further comprises a multimedia portable electronic device, arranged to form a portable man-machine interface and arranged to display measurements of the portable air sensor, the control unit being arranged to receive from said at least one man-machine interface , an instruction to control the filtration unit according to at least: - one coupled operating mode considering a return of measurements from the coupled portable air sensor, and - one uncoupled operating mode not considering a return of measurements from the uncoupled portable air sensor, where in the uncoupled operating mode of the air purifier , the man-machine interface of the portable module and/or of the multimedia portable electronic device, is arranged to display measurements from the uncoupled portable air sensor. - an air purifier with a control unit and a filtration unit controlled by the control unit , - a portable module of the wireless autonomous module type, comprising means for storing electrical energy and integrating at least one portable air sensor arranged to be able to be: - coupled to the air purifier , or - uncoupled from the air purifier , - coupled to the air purifier , or - uncoupled from the air purifier , the portable module comprising a man-machine interface and/or the system for purifying air further comprises a multimedia portable electronic device, arranged to form a portable man-machine interface and arranged to display measurements of the portable air sensor, the control unit being arranged to receive from said at least one man-machine interface , an instruction to control the filtration unit according to at least: - one coupled operating mode considering a return of measurements from the coupled portable air sensor, and - one uncoupled operating mode not considering a return of measurements from the uncoupled portable air sensor, - one coupled operating mode considering a return of measurements from the coupled portable air sensor, and - one uncoupled operating mode not considering a return of measurements from the uncoupled portable air sensor, where in the uncoupled operating mode of the air purifier , the man-machine interface of the portable module and/or of the multimedia portable electronic device, is arranged to display measurements from the uncoupled portable air sensor.
A method for configuring an integrated ultrasound and photoacoustic imaging probe , including providing at least a portion of an optical fiber bundle within said probe, the at least portion being bifurcated into two optical fiber bundle branches having a light output end, and being provided positioned within the probe with said light output end at an inset distance from an output face of the probe, and each optical fiber bundle branch comprising sub-bundles having ends located at said light output end, each defining an output aperture having a size , said method being characterized by comprising the steps of: selecting an imaging depth (S310); estimating optical properties of a body tissue in a path of said photoacoustic imaging (S320); estimating a divergence rate of a laser beam (S330), said laser beam to be utilized in photoacoustic imaging optimized for said imaging depth; calculating an optimal incident beam size (S340) on the skin of a patient based on the optical properties of body tissue and said imaging depth; computing (S350), based on the calculated optimal beam size and the estimated divergence rate, the sub-bundle aperture size and the inset distance within said probe; and configuring said at least a portion within the probe based on the computed aperture size and the computed inset distance . selecting an imaging depth (S310); estimating optical properties of a body tissue in a path of said photoacoustic imaging (S320); estimating a divergence rate of a laser beam (S330), said laser beam to be utilized in photoacoustic imaging optimized for said imaging depth; calculating an optimal incident beam size (S340) on the skin of a patient based on the optical properties of body tissue and said imaging depth; computing (S350), based on the calculated optimal beam size and the estimated divergence rate, the sub-bundle aperture size and the inset distance within said probe; and configuring said at least a portion within the probe based on the computed aperture size and the computed inset distance .
A system for use with a loading dock station, comprising: a docking station control unit; and a remote control unit communicatively coupled to the docking station control unit, the remote control unit being programmed with computer readable instructions that, when executed, cause the remote control unit to: receive an authorization request from the docking station control unit, the authorization request requesting authorization to deviate from a workflow protocol; display the authorization request to a user; receive an authorization input from the user; and transmit an authorization signal to the docking station control unit in response to receiving the authorization input from the user, the authorization signal permitting the docking station control unit to proceed with the requested deviation from the workflow protocol. a docking station control unit; and a remote control unit communicatively coupled to the docking station control unit, the remote control unit being programmed with computer readable instructions that, when executed, cause the remote control unit to: receive an authorization request from the docking station control unit, the authorization request requesting authorization to deviate from a workflow protocol; display the authorization request to a user; receive an authorization input from the user; and transmit an authorization signal to the docking station control unit in response to receiving the authorization input from the user, the authorization signal permitting the docking station control unit to proceed with the requested deviation from the workflow protocol. receive an authorization request from the docking station control unit, the authorization request requesting authorization to deviate from a workflow protocol; display the authorization request to a user; receive an authorization input from the user; and transmit an authorization signal to the docking station control unit in response to receiving the authorization input from the user, the authorization signal permitting the docking station control unit to proceed with the requested deviation from the workflow protocol.
Luggage compartment for a passenger transport vehicle, having a shutter for an access opening of the luggage compartment, wherein the shutter is unrollable, in the manner of a roller shutter, in a closing direction of the shutter from a roller arranged in the upper region of the access opening of the luggage compartment and has slats that each extend in a transverse direction of the luggage compartment and two mutually opposite flexible U-profiles that are respectively arranged and designed to guide the slats , wherein the slat that is located furthest in the closing direction (A) of the shutter is fixed laterally to both U-profiles , while the other slats are slidably guided in the U-profiles , the slats , in order to take up a closed position, are held individually at spacings from immediately adjacent slats by means of a holding rope extending in the closing direction, and the holding rope , in the closed position of the slats , is able to be locked to the roller by means of a locking device in order to close the access opening of the luggage compartment, and, in order to take up a fire protection position, is unlockable such that the slats form a closed formation under the effect of gravity. the shutter is unrollable, in the manner of a roller shutter, in a closing direction of the shutter from a roller arranged in the upper region of the access opening of the luggage compartment and has slats that each extend in a transverse direction of the luggage compartment and two mutually opposite flexible U-profiles that are respectively arranged and designed to guide the slats , wherein the slat that is located furthest in the closing direction (A) of the shutter is fixed laterally to both U-profiles , while the other slats are slidably guided in the U-profiles , the slats , in order to take up a closed position, are held individually at spacings from immediately adjacent slats by means of a holding rope extending in the closing direction, and the holding rope , in the closed position of the slats , is able to be locked to the roller by means of a locking device in order to close the access opening of the luggage compartment, and, in order to take up a fire protection position, is unlockable such that the slats form a closed formation under the effect of gravity.
Control device for driving a bipolar switchable power semiconductor component , wherein the control device is designed to apply an electrical voltage (U) to a gate terminal of the power semiconductor component and, in order to turn off the power semiconductor component (U), to reduce the electrical voltage (U) from a first voltage value (U B+ ) to a second voltage value (U B- ), wherein the control device is designed, in order to turn off the power semiconductor component , firstly to reduce the electrical voltage (U) from the first voltage value (U B+ ) to a desaturation value (U sat ) and then to reduce the electrical voltage (U) from the desaturation value (U sat ) to the second voltage value (U B- ) , the desaturation value (U sat ) being greater than a pinch-off voltage (U P ) of the power semiconductor component , wherein the control device has a first switch (S1) for applying the electrical voltage (U) with the first voltage value (U B+ ) to the gate terminal and a second switch (S2) for applying the electrical voltage (U) with the second voltage value (U B- ) to the gate terminal, characterized in that the control device is designed to activate the first switch (S1) and/or the second switch (S2) periodically and to set the electrical voltage (U) to the desaturation value (U sat ) by specifying a duty cycle for the activation of the first switch (S1) and/or of the second switch (S2), the control device has a measuring unit for measuring a collector current (I C ) at a collector terminal of the power semiconductor component and the control device is designed to determine the desaturation value (U sat ) on the basis of the collector current (I C ).