mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchanger device for a refrigeration system for exchanging heat between air and a heat transfer medium, said heat exchanger device comprising an exchanger unit which can be flowed onto by the air and which can be flowed through by the heat transfer medium, wherein at least one flow guiding apparatus is provided which influences the flow (S 1 ) of the incoming air and which supports a flow onto marginal regions (R) of a cross-section of the exchanger unit which is flowed onto, wherein, in the flow direction (S 1 ) of the incoming air, the flow guiding apparatus is arranged upstream and laterally outside of the cross-section of the exchanger unit which is flowed onto, wherein the cross-section of the exchanger unit which is flowed onto is not covered by the flow guiding apparatus , characterized in that the flow guiding apparatus is at least sectionally formed at a drip tray , which is provided in the installation position of the heat exchanger device to collect condensate formed at the exchanger unit , and/or at an optional intermediate metal sheet which is provided between the exchanger unit and the drip tray for collecting the condensate and which is configured to collect ice falling down from the exchanger unit.
An x-ray detector , comprising: a housing, including a cover removably fastened on a flange of a flanged base and forming a seal therebetween, the flanged base including a bottom surface and the flange surrounding a perimeter of the bottom surface ; and an x-ray imager positioned on the bottom surface , the x-ray imager including a scintillator and an image sensor , wherein the seal encloses the x-ray imager in the housing, and is positioned nonadjacently to surfaces in contact with the x-ray imager, characterized in that the seal comprises a hollow cross-section of material and the hollow cavity within the seal is evacuated or filled with an inert dry gas. a housing, including a cover removably fastened on a flange of a flanged base and forming a seal therebetween, the flanged base including a bottom surface and the flange surrounding a perimeter of the bottom surface ; and an x-ray imager positioned on the bottom surface , the x-ray imager including a scintillator and an image sensor , wherein the seal encloses the x-ray imager in the housing, and is positioned nonadjacently to surfaces in contact with the x-ray imager, characterized in that the seal comprises a hollow cross-section of material and the hollow cavity within the seal is evacuated or filled with an inert dry gas.
A surgical snare comprising: a flexible actuator shaft comprising an outer sleeve and an inner push rod mounted within and slidable relative to the outer sleeve ; an end cap mounted at a distal end of the outer sleeve ; a nibless loop of wire connected to a distal end of the inner push rod , wherein the end cap includes a passageway for receiving the nibless loop of wire , whereby the inner push rod is operable to retract the nibless loop of wire into the end cap , wherein either: the surgical snare further comprises a catheter , wherein the flexible actuator shaft is slidably mounted in the catheter to deploy the end cap at a distal end thereof; and/or the outer sleeve forms a catheter that is slidably receivable in an instrument channel of a surgical scoping device ; and whereby the end cap includes a reaction surface at its distal end against which the nibless loop of wire bears when fully retracted into the end cap , the reaction surface includes a groove for receiving the nibless loop of wire when fully retracted into the end cap , and characterised in that the reaction surface has a blade mounted thereon, and wherein a distal edge of the blade is located proximally to a distal end of the catheter . a flexible actuator shaft comprising an outer sleeve and an inner push rod mounted within and slidable relative to the outer sleeve ; an end cap mounted at a distal end of the outer sleeve ; a nibless loop of wire connected to a distal end of the inner push rod , wherein the end cap includes a passageway for receiving the nibless loop of wire , whereby the inner push rod is operable to retract the nibless loop of wire into the end cap , wherein either: the surgical snare further comprises a catheter , wherein the flexible actuator shaft is slidably mounted in the catheter to deploy the end cap at a distal end thereof; and/or the outer sleeve forms a catheter that is slidably receivable in an instrument channel of a surgical scoping device ; and whereby the surgical snare further comprises a catheter , wherein the flexible actuator shaft is slidably mounted in the catheter to deploy the end cap at a distal end thereof; and/or the outer sleeve forms a catheter that is slidably receivable in an instrument channel of a surgical scoping device ; and whereby the end cap includes a reaction surface at its distal end against which the nibless loop of wire bears when fully retracted into the end cap , the reaction surface includes a groove for receiving the nibless loop of wire when fully retracted into the end cap , and characterised in that the reaction surface has a blade mounted thereon, and wherein a distal edge of the blade is located proximally to a distal end of the catheter .
Method for assembling a slat , for an aircraft wing, comprising: - providing a skin and a plurality of stiffeners ; - assembling the stiffeners to the skin obtaining a skin sub-assembly ; - providing a spar and a plurality of lugs as metallic or composite components; - assembling the lugs to the spar obtaining a spar sub-assembly; - assembling the spar sub-assembly to the skin sub-assembly to obtain the slat . - providing a skin and a plurality of stiffeners ; - assembling the stiffeners to the skin obtaining a skin sub-assembly ; - providing a spar and a plurality of lugs as metallic or composite components; - assembling the lugs to the spar obtaining a spar sub-assembly; - assembling the spar sub-assembly to the skin sub-assembly to obtain the slat .
A coupling assembly comprising: a first coupling end operably connectable to a first shaft ; a second coupling end operably connectable to a second shaft ; and a coupling body disposed between and operably connected to the first coupling end and to the second coupling end, the coupling body including at least two spring segments that are annular about the coupling assembly axis, with adjacent spring segments connected via one or more connecting ribs , allowing relative motion between the first coupling end and the second coupling end along a coupling assembly axis, characterized in that the coupling body is of a plastic material, and at least one of the first coupling end and the second coupling end is disposed in a coupling body recess so as not to protrude from the coupling body . a first coupling end operably connectable to a first shaft ; a second coupling end operably connectable to a second shaft ; and a coupling body disposed between and operably connected to the first coupling end and to the second coupling end, the coupling body including at least two spring segments that are annular about the coupling assembly axis, with adjacent spring segments connected via one or more connecting ribs , allowing relative motion between the first coupling end and the second coupling end along a coupling assembly axis, characterized in that the coupling body is of a plastic material, and at least one of the first coupling end and the second coupling end is disposed in a coupling body recess so as not to protrude from the coupling body .
A method for detecting a condition of a pump assembly or a pump assembly part, with the following method steps: a) recording a video sequence of the pump assembly which is in operation, or at least a part thereof, and b) determining the condition of the pump assembly or a part thereof, by means of changes in pictures of the video sequence, characterised in that the speed of changes between pixels or pixel groups of successive pictures of the video sequence are determined, and the determining of the condition of the pump assembly is effected on the basis of the determined speeds of changes. a) recording a video sequence of the pump assembly which is in operation, or at least a part thereof, and b) determining the condition of the pump assembly or a part thereof, by means of changes in pictures of the video sequence, characterised in that the speed of changes between pixels or pixel groups of successive pictures of the video sequence are determined, and the determining of the condition of the pump assembly is effected on the basis of the determined speeds of changes.
An electronic device comprising: a memory ; a display configured to detect a force input based on an external pressure; and a processor electrically coupled with the memory and the display , wherein the processor is configured to: execute an application that is operable corresponding to the force input; control to store history information in the memory on use of the electronic device , wherein the history information is related to an input field , to which the force input is applied, on an execution screen of the application; filter multiple options of the history information according to attributes of the input field ; and if the pressure of the force input is a preset pressure or more, control to output via the display a window including a plurality of areas and output the filtered multiple options of the history information to the areas, wherein the plurality of areas include a first area of image data and a second area of text data, and wherein the image data and the text data have been recently copied and stored in a clipboard. a memory ; a display configured to detect a force input based on an external pressure; and a processor electrically coupled with the memory and the display , wherein the processor is configured to: execute an application that is operable corresponding to the force input; control to store history information in the memory on use of the electronic device , wherein the history information is related to an input field , to which the force input is applied, on an execution screen of the application; filter multiple options of the history information according to attributes of the input field ; and if the pressure of the force input is a preset pressure or more, control to output via the display a window including a plurality of areas and output the filtered multiple options of the history information to the areas, wherein the plurality of areas include a first area of image data and a second area of text data, and wherein the image data and the text data have been recently copied and stored in a clipboard. execute an application that is operable corresponding to the force input; control to store history information in the memory on use of the electronic device , wherein the history information is related to an input field , to which the force input is applied, on an execution screen of the application; filter multiple options of the history information according to attributes of the input field ; and if the pressure of the force input is a preset pressure or more, control to output via the display a window including a plurality of areas and output the filtered multiple options of the history information to the areas, wherein the plurality of areas include a first area of image data and a second area of text data, and wherein the image data and the text data have been recently copied and stored in a clipboard.
A device for electrically disintegrating cell structures, having - an electrode unit comprising an electrode head and an electrode body ; - a chamber in which the electrode body is disposed, the chamber comprising a wall , said wall being electrically conductive in segments or entirely and being electrically insulated from the electrode body , and the chamber comprising an inlet for receiving fluid comprising cell structures, - a high-voltage source disposed in the electrode head and adapted for generating an electrical field by means of applying an electrical voltage between the electrode body and the wall , and - an electronic control unit interacting with the high-voltage source in order to modify the electrical field, characterized in that the electronic control unit comprises a controller having a first processor for determining a resonant frequency, and comprises a driver unit having a second processor for actuating the high-voltage source , wherein the driver unit is set up for controlling at least one of the following: - frequency, - pulse duration, and - amplitude of the voltage of the high-voltage source , and wherein the high-voltage source comprises a measurement coil connected to the electronic control unit and a high-voltage coil wound about the same core. - an electrode unit comprising an electrode head and an electrode body ; - a chamber in which the electrode body is disposed, the chamber comprising a wall , said wall being electrically conductive in segments or entirely and being electrically insulated from the electrode body , and the chamber comprising an inlet for receiving fluid comprising cell structures, - a high-voltage source disposed in the electrode head and adapted for generating an electrical field by means of applying an electrical voltage between the electrode body and the wall , and - an electronic control unit interacting with the high-voltage source in order to modify the electrical field, - frequency, - pulse duration, and - amplitude
A transient elastography probe including: - a probe body ; - an ultrasonic transducer configured to generate an ultrasonic beam along an axis, the ultrasonic beam being generated from a face of the ultrasonic transducer intended to be in contact with the body of a patient; - a vibrator located inside the probe body and arranged to induce movement of the ultrasonic transducer along a predefined axis; the ultrasonic transducer being mounted to the vibrator so that the predefined axis and the axis of the ultrasonic beam are coincident, the probe further including a sealing membrane snugly fitting the external contours of the ultrasonic transducer , characterised in that said membrane covers the face of the ultrasonic transducer . - a probe body ; - an ultrasonic transducer configured to generate an ultrasonic beam along an axis, the ultrasonic beam being generated from a face of the ultrasonic transducer intended to be in contact with the body of a patient; - a vibrator located inside the probe body and arranged to induce movement of the ultrasonic transducer along a predefined axis; the ultrasonic transducer being mounted to the vibrator so that the predefined axis and the axis of the ultrasonic beam are coincident, the probe further including a sealing membrane snugly fitting the external contours of the ultrasonic transducer , characterised in that said membrane covers the face of the ultrasonic transducer .
A method of analysing the quality of a welding area (WA) of an absorbent sanitary article, said welding area (WA) being generated by means of a welding station of a production line by generating a plurality of welding spots (WS) in said welding area (WA) according to a welding pattern, wherein said production line comprises a camera and a processing circuit operatively connected to said camera for monitoring said welding area (WA) via said camera , wherein said camera provides a sequence of images (IMG), and wherein a given area of the pixel data of said images (IMG) corresponds to said welding area (WA), the method comprising executing via said processing circuit the steps of: - during a learning step wherein a plurality of welding operations are performed both with sufficient quality and with insufficient quality, monitoring via said camera the welding area (WA) generated for each welding operation; - during a training step , processing the pixel data of said welding areas (WA) monitored during said learning step for training a classifier configured to estimate a welding quality as a function of respective pixel data of a welding area (WA); and - during a normal welding operating step - monitoring via said camera a welding area (WA) generated by a welding operation, - estimating via said classifier the respective welding quality (S), and - in case the estimated welding qualities (S) for a given number of consecutive welding areas (WA) indicate an insufficient quality of said given number of consecutive welding areas (WA), generating a warning signal, which is provided to a visual and/or acoustic signalling device, and/or stopping said production line. - during a learning step wherein a plurality of welding operations are performed both with sufficient quality and with insufficient quality, monitoring via said camera the welding area (WA) generated for each welding operation; - during a training step , processing the pixel data of said welding areas (WA) monitored during said learning step for training a classifier configured to estimate a welding quality as a function of respective pixel data of a welding area (WA); and - during a normal welding operating step - monitoring via said camera a welding area (WA) generated by a welding operation, - estimating via said classifier the respective welding quality (S), and - in case the estimated welding qualities (S) for a given number of consecutive welding areas (WA) indicate an insufficient quality of said given number of consecutive welding areas (WA), generating a warning signal, which is provided to a visual and/or acoustic signalling device, and/or stopping said production line. - monitoring via said camera a welding area (WA) generated by a welding operation, - estimating via said classifier the respective welding quality (S), and - in case the estimated welding qualities (S) for a given number of consecutive welding areas (WA) indicate an insufficient quality of said given number of consecutive welding areas (WA), generating a warning signal, which is provided to a visual and/or acoustic signalling device, and/or stopping said production line.
A cleaner head for a vacuum cleaner , the cleaner head being configured to apply suction to a horizontal surface (S) to be cleaned by the vacuum cleaner, wherein the cleaner head comprises: first and second agitator elements each being mounted for rotation about a respective axis (R1, R2), and wherein: each agitator element comprises a first, free end and a second end , characterised in that the first and second agitator elements are cantilevered from opposing sides of a hub portion of the cleaner head at their respective second ends , whereby each agitator element has a shape which tapers towards the first end in a direction along the axis of rotation (R1, R2), and each agitator element is arranged such that the position of the axis (R1, R2) at the first end of each agitator element is further forwards than the position of the axis (R1, R2) at the second end of each agitator element . each agitator element comprises a first, free end and a second end , characterised in that the first and second agitator elements are cantilevered from opposing sides of a hub portion of the cleaner head at their respective second ends , whereby each agitator element has a shape which tapers towards the first end in a direction along the axis of rotation (R1, R2), and each agitator element is arranged such that the position of the axis (R1, R2) at the first end of each agitator element is further forwards than the position of the axis (R1, R2) at the second end of each agitator element .
A method comprising: transmitting, by a wireless access network node, scheduling information assigning an uplink resource for a user equipment, UE; detecting, at the wireless access network node, whether the UE has not transmitted using the assigned uplink resource; determining, based on the detecting, that the UE has failed a Listen-Before-Talk, LBT, check at the UE; in response to the determining that the UE has failed the LBT check, performing, by the wireless access network node, a backoff process on behalf of the UE; and when the backoff process ends, further scheduling, by the wireless access network node, an uplink resource for the UE. transmitting, by a wireless access network node, scheduling information assigning an uplink resource for a user equipment, UE; detecting, at the wireless access network node, whether the UE has not transmitted using the assigned uplink resource; determining, based on the detecting, that the UE has failed a Listen-Before-Talk, LBT, check at the UE; in response to the determining that the UE has failed the LBT check, performing, by the wireless access network node, a backoff process on behalf of the UE; and when the backoff process ends, further scheduling, by the wireless access network node, an uplink resource for the UE.
A method of compensating for a flexure of a baseplate of a seismic vehicle used in a seismic survey, comprising the steps of: a) providing a baseplate comprising: i) a plate body that is substantially planar and having a bottom surface and a top surface; ii) an array of load cells mounted near said bottom surface of the plate body so that the load cells can measure a plurality of forces the baseplate applies to the ground; iii) a plurality of actuators mounted above the top surface of the plate body and capable of reversibly contacting said top surface of said plate body; iv) a central processing unit (CPU) operably coupled to said actuators and said load cells; v) wherein said CPU is arranged to control the actuation of said plurality of actuators to compensate for flexure, when a flexure in said plate body is detected with said load cells ; b) detecting a position and a degree of a flexure in said plate body or a differential force or both; characterised by c) calculating a compensating matrix that comprises the magnitude and position of forces to be exerted on the plate body to compensate for said flexure or differential force or both; d) executing the compensating matrix through the plurality of actuators to compensate for said flexure or differential force or both. a) providing a baseplate comprising: i) a plate body that is substantially planar and having a bottom surface and a top surface; ii) an array of load cells mounted near said bottom surface of the plate body so that the load cells can measure a plurality of forces the baseplate applies to the ground; iii) a plurality of actuators mounted above the top surface of the plate body and capable of reversibly contacting said top surface of said plate body; iv) a central processing unit (CPU) operably coupled to said actuators and said load cells; v) wherein said CPU is arranged to control the actuation of said plurality of actuators to compensate for flexure, when a flexure in said plate body is detected with said load cells ; i) a plate body that is substantially planar and having a bottom surface and a top surface; ii) an array of load cells mounted near said bottom surface of the plate body so that the load cells can measure a plurality of forces the baseplate applies to the ground; iii) a plurality of actuators mounted above the top surface of the plate body and capable of reversibly contacting said top surface of said plate body; iv) a central processing unit (CPU) operably coupled to said actuators and said load cells; v) wherein said CPU is arranged to control the actuation of said plurality of actuators to compensate for flexure, when a flexure in said plate body is detected with said load cells ; b) detecting a position and a degree of a flexure in said plate body or a differential force or both; characterised by c) calculating a compensating matrix that comprises the magnitude and position of forces to be exerted on the plate body to compensate for said flexure or differential force or both; d) executing the compensating matrix through the plurality of actuators to compensate for said flexure or differential force or both.