mhurhangee/patent-ind-claim-en huggingface dataset:
A drive unit including a motor such as a bypass turbojet engine , and a nacelle comprising on the outside around an annular flow path of fresh air, from the upstream, an air inlet, lateral front cowls , a thrust reverser comprising thrust reverser cascades and movable rear cowls, the lateral front cowls surrounding the thrust reverser cascades of the thrust reverser when it is closed, and the movable rear cowls moving back with these cascades to open the thrust reverser, the motor including lifting points forming resistant hooking points intended to receive handling clevises allowing lifting and transporting the drive unit, the drive unit being such that the lifting points are two upper lifting points disposed on the motor, each on one side of the motor radially behind the lateral front cowls above the horizontal diameter (D) of the drive unit, and such that each lateral front cowl includes a removable hatch which is movable between a closed position in which the hatch is flush with said cowl and an open position in which the hatch opens the access to an upper lifting point , disposed radially outward of the upper lifting point on its side.
A method of enabling a Cloud Radio Access Network, C-RAN,- compatible central unit, CU, to modify at least one dynamic Transport Network Layer Association, TNLA, in communication with a C-RAN-compatible distributed unit, DU, comprising: communicating, by the CU to the DU, assigned first weight factor associated with a first TNLA and assigned second weight factor associated with a second TNLA, wherein at least one of i) the assigned first weight factor associated with the first TNLA indicates required selection, and ii) the assigned second weight factor for the second TNLA indicates required non-selection; updating, by the DU, the first and second weight factors for the first and second TNLAs, respectively; and automatically selecting, by the DU, the first TNLA for any new UE requiring service, characterized in that : the first TNLA is the TNLA to be retained, and the second TNLA is the TNLA to be deleted; and the number of UEs assigned to the second TNLA is reduced to zero after a period of time based on the assigned first and second weight factors. communicating, by the CU to the DU, assigned first weight factor associated with a first TNLA and assigned second weight factor associated with a second TNLA, wherein at least one of i) the assigned first weight factor associated with the first TNLA indicates required selection, and ii) the assigned second weight factor for the second TNLA indicates required non-selection; updating, by the DU, the first and second weight factors for the first and second TNLAs, respectively; and automatically selecting, by the DU, the first TNLA for any new UE requiring service, characterized in that : the first TNLA is the TNLA to be retained, and the second TNLA is the TNLA to be deleted; and the number of UEs assigned to the second TNLA is reduced to zero after a period of time based on the assigned first and second weight factors. the first TNLA is the TNLA to be retained, and the second TNLA is the TNLA to be deleted; and the number of UEs assigned to the second TNLA is reduced to zero after a period of time based on the assigned first and second weight factors.
Airlock with a housing which has a front inlet opening , a rear outlet opening and an airlock shaft extending therebetween, which is passed through by a transport device , which is connected to workpiece carriers such that workpieces arranged thereon can be transported through the airlock shaft , wherein - the transport device is at least indirectly connected to partition walls arranged transversely to the direction of transport , the partition walls each delimiting workpiece chambers to the front and rear, characterized in that - the airlock shaft has at least one first gas inlet opening and at least one first gas outlet opening , which open into a workpiece chamber within the airlock shaft , so that an inert gas can be introduced into the workpiece chamber through the gas inlet opening , the inert gas flowing through the workpiece chamber from the gas inlet opening to the gas outlet opening . - the transport device is at least indirectly connected to partition walls arranged transversely to the direction of transport , the partition walls each delimiting workpiece chambers to the front and rear, - the airlock shaft has at least one first gas inlet opening and at least one first gas outlet opening , which open into a workpiece chamber within the airlock shaft , so that an inert gas can be introduced into the workpiece chamber through the gas inlet opening , the inert gas flowing through the workpiece chamber from the gas inlet opening to the gas outlet opening .
A sensor module for a portable, substance testing system, the sensor module including: a light source , configured to illuminate a lateral flow test strip of the portable substance testing system; a filter , comprising a plurality of apertures, configured to filter out light from the lateral flow test strip; and a sensor , for sensing the filtered light, and providing one or more signals indicative of an output of the test strip; wherein the filter comprises a plurality of layers, wherein the layers are formed of stainless steel and the apertures are formed from apertures in each of the layers, and the apertures are aligned to form elongate apertures . a light source , configured to illuminate a lateral flow test strip of the portable substance testing system; a filter , comprising a plurality of apertures, configured to filter out light from the lateral flow test strip; and a sensor , for sensing the filtered light, and providing one or more signals indicative of an output of the test strip; wherein the filter comprises a plurality of layers, wherein the layers are formed of stainless steel and the apertures are formed from apertures in each of the layers, and the apertures are aligned to form elongate apertures .
Process for manufacturing containers from at least one preform made of thermoplastic material, said process comprising a step of transforming said preform into a container consisting in using a unit for moulding formed containers by blow moulding or stretch-blow moulding, and successively comprising the following steps: - a first step, consisting in treating at least the inside of said preform using hydrogen peroxide (H 2 O 2 ) ; - a second step, consisting in heating a body of said preform at a moulding temperature to enable the subsequent transformation thereof into a container; characterized in that it comprises a third step, prior to the transformation step, which third step consists in treating said preform with plasma to reduce the concentration of hydrogen peroxide (H 2 O 2 ) residues. - a first step, consisting in treating at least the inside of said preform using hydrogen peroxide (H 2 O 2 ) ; - a second step, consisting in heating a body of said preform at a moulding temperature to enable the subsequent transformation thereof into a container;
A compound, wherein the compound is Compound 1 of formula or an enantiomer, mixture of enantiomers, tautomer, isotopolog, or pharmaceutically acceptable salt thereof.
A radar image processing method comprising: acquiring captured images from radars synchronized with each other to perform beamforming on a same point at a same time; synthesizing the captured images; and generating a high-resolution image based on the synthesized images, characterized by synthesizing the captured images based on at least one overlapping area of the captured images wherein an angle range of the overlapping area satisfies a predetermined condition. acquiring captured images from radars synchronized with each other to perform beamforming on a same point at a same time; synthesizing the captured images; and generating a high-resolution image based on the synthesized images, characterized by synthesizing the captured images based on at least one overlapping area of the captured images wherein an angle range of the overlapping area satisfies a predetermined condition.
A method performed by a wireless communication station , for facilitating positioning determination in a Wi-Fi communication network , the Wi-Fi communication network comprising the wireless communication station and an access point that is in wireless communication with the wireless communication station , the method comprising: sending , to the access point , a request to start a position-related determination procedure; sending , to the access point , information of a first plurality of frequency bands over which the wireless communication station is able to communicate; receiving second information from the access point , the second information being related to a second number of frequency bands over which the access point is able to communicate and comprising an instruction to the wireless communication station to trigger start of the position-related determination procedure over the at least one of the third number of frequency bands that occurs in both the first plurality of frequency bands and the second number of frequency bands, and triggering start of the position-related determination procedure based on the received second information. sending , to the access point , a request to start a position-related determination procedure; sending , to the access point , information of a first plurality of frequency bands over which the wireless communication station is able to communicate; receiving second information from the access point , the second information being related to a second number of frequency bands over which the access point is able to communicate and comprising an instruction to the wireless communication station to trigger start of the position-related determination procedure over the at least one of the third number of frequency bands that occurs in both the first plurality of frequency bands and the second number of frequency bands, and triggering start of the position-related determination procedure based on the received second information.
A wound dressing assembly comprising: a. an extensible absorbent body having a longitudinally extending center line , a transversely extending centerline (t) and a periphery (p), the absorbent body, having a first surface , a second surface and an elastic modulus, the second surface being opposite the first surface; b. a positioning adhesive contacting at least a portion of the second surface of the absorbent body; c. a backing layer having an elastic modulus, the backing layer adhered to the second surface of the absorbent body by the positioning adhesive wherein the elastic modulus of the absorbent body is equal to or lower than the elastic modulus of the backing layer; wherein the elastic modulus is calculated by obtaining "stretch" measurements in accordance with a modified version of ASTM D882, Standard Test Method for Tensile Properties of Thin Plastic Sheeting (ASTM International, West Conshohocken, PA, 2016), using a grip distance of 50mm and an initial strain rate of 10mm/mm ∗ min, once a load-extension curve is generated as described in ASTM D882, the elastic modulus is determined by drawing a tangent to the initial linear portion of the load-extension curve, selecting any point on this tangent and dividing the tensile stress by the corresponding strain. a. an extensible absorbent body having a longitudinally extending center line , a transversely extending centerline (t) and a periphery (p), the absorbent body, having a first surface , a second surface and an elastic modulus, the second surface being opposite the first surface; b. a positioning adhesive contacting at least a portion of the second surface of the absorbent body; c. a backing layer having an elastic modulus, the backing layer adhered to the second surface of the absorbent body by the positioning adhesive wherein the elastic modulus of the absorbent body is equal to or lower than the elastic modulus of the backing layer; wherein the elastic modulus is calculated by obtaining "stretch" measurements in accordance with a modified version of ASTM D882, Standard Test Method for Tensile Properties of Thin Plastic Sheeting (ASTM International, West Conshohocken, PA, 2016), using a grip distance of 50mm and an initial strain rate of 10mm/mm ∗ min, once a load-extension curve is generated as described in ASTM D882, the elastic modulus is determined by drawing a tangent to the initial linear portion of the load-extension curve, selecting any point on this tangent and dividing the tensile stress by the corresponding strain.
A method for converting input image data for a hybrid image-projection system that includes a first projector and a second projector , the input image data representing a two-dimensional input image, the method comprising: dividing, with a processor , the image into regions based on the content of the input image, determining a parameter for each region, decomposing, with the processor, the input image data into a first image component using the parameter; computing, with the processor, a difference between a desired superimposed image and the first image component to produce a second image component, wherein the first image component is orthogonal or quasi-orthogonal with the second image component; analyzing, with the processor, the second image component with respect to a normalized maximum threshold of the second projector to determine a pixel having a value that exceeds the normalized maximum threshold; modifying, with the processor, the first image component and the second image component until the value of the pixel is at or below the normalized maximum threshold to form a modified first image component and a modified second image component; displaying the modified first image component by the first projector; and displaying the modified second image component by the second projector, the modified second image component being superimposed on the modified first image component to produce a final superimposed 2D version of the 2D image. dividing, with a processor , the image into regions based on the content of the input image, determining a parameter for each region, decomposing, with the processor, the input image data into a first image component using the parameter; computing, with the processor, a difference between a desired superimposed image and the first image component to produce a second image component, wherein the first image component is orthogonal or quasi-orthogonal with the second image component; analyzing, with the processor, the second image component with respect to a normalized maximum threshold of the second projector to determine a pixel having a value that exceeds the normalized maximum threshold; modifying, with the processor, the first image component and the second image component until the value of the pixel is at or below the normalized maximum threshold to form a modified first image component and a modified second image component; displaying the modified first image component by the first projector; and displaying the modified second image component by the second projector, the modified second image component being superimposed on the modified first image component to produce a final superimposed 2D version of the 2D image.
A bus bar assembly for a battery module having a plurality of electrochemical cells , the bus bar assembly comprising: - a bus bar carrier configured to receive bus bars to interface with terminals of the plurality of electrochemical cells ; - a flex circuit disposed on the bus bar carrier ; and - a temperature sensor welding tab comprising a circuit engagement region secured to the flex circuit and a welding region to be welded to an end of an electrochemical cell , wherein the circuit engagement region of the temperature sensor welding tab comprises a first tab and a second tab each protruding in a first direction away from the circuit engagement region , each of the first and second tabs comprising a bend that causes the first and second tabs to protrude in a second direction through vias of the flex circuit . - a bus bar carrier configured to receive bus bars to interface with terminals of the plurality of electrochemical cells ; - a flex circuit disposed on the bus bar carrier ; and - a temperature sensor welding tab comprising a circuit engagement region secured to the flex circuit and a welding region to be welded to an end of an electrochemical cell ,
Sleeve with a sealing element for enclosing a cable or cable conduit and a multipart housing , which at least partially surrounds the sealing element and has an internal cross section transverse to the cable or cable conduit, which is smaller than the cross section of the sealing element transverse to the cable or cable conduit, and at least one connecting element , wherein the housing is held together by the connecting element , wherein at least part of the housing has openings , and on the sealing element there are formed retaining elements , which enter into corresponding openings on the housing , and wherein on the sealing element there is arranged at least one information element , which is formed as a projection , which protrudes through an opening of the housing , wherein the housing comprises three housing parts and two connecting elements , wherein the three housing parts are connected by the two connecting elements , and wherein two radially protruding projections lying approximately opposite one another on the sealing element and arranged approximately centrally are formed and two openings corresponding to these are formed on the housing , characterised in that the projections pass outwards through the openings corresponding to them, wherein a projection through one of these openings passes outwards between two housing parts of the housing , wherein the projections make available in this way information about the sealing element arranged in the housing and in particular its cross-sectional design.
An arrangement for inspecting a condition of a chain, comprising: a camera , and guiding means for positioning a chain comprising a plurality of consecutive chain links interconnected by loops of the consecutive links, such that loops of the consecutive links travel through holes formed by the loops, in front of the camera such that holes of consecutive chain links are visible to the camera , and characterised in that the guiding means comprise two pairs of guide blocks that are arranged at a distance from each other along the travel path of the chain positioned in front of the camera , and the guide blocks have profiles that each have a corner adapted to fit a profile of the chain , the guide blocks extend along the travel path, and the said corners in the pairs of guide blocks are facing each other, whereby consecutive chain links are engaged by different sides of each guide block . a camera , and guiding means for positioning a chain comprising a plurality of consecutive chain links interconnected by loops of the consecutive links, such that loops of the consecutive links travel through holes formed by the loops, in front of the camera such that holes of consecutive chain links are visible to the camera , and characterised in that the guiding means comprise two pairs of guide blocks that are arranged at a distance from each other along the travel path of the chain positioned in front of the camera , and the guide blocks have profiles that each have a corner adapted to fit a profile of the chain , the guide blocks extend along the travel path, and the said corners in the pairs of guide blocks are facing each other, whereby consecutive chain links are engaged by different sides of each guide block .
A memory device , comprising: memory cells (111-1, ..., 111-N); and a controller configured to: perform a number of sense operations on the memory cells (111-1, ..., 111-N), wherein each sense operation is performed using a different sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2) determine, for each of the different sensing voltages (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2), a quantity of the memory cells (111-1, ..., 111-N) having a threshold voltage (Vt) greater than the respective sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2); determine differences between the determined quantities of memory cells (111-1, ..., 111-1); determine a trend associated with the determined differences; and adjust a sensing voltage used to determine a state of the memory cells (111-1, ..., 111-N) based, at least partially, on the determined trend. memory cells (111-1, ..., 111-N); and a controller configured to: perform a number of sense operations on the memory cells (111-1, ..., 111-N), wherein each sense operation is performed using a different sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2) determine, for each of the different sensing voltages (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2), a quantity of the memory cells (111-1, ..., 111-N) having a threshold voltage (Vt) greater than the respective sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2); determine differences between the determined quantities of memory cells (111-1, ..., 111-1); determine a trend associated with the determined differences; and adjust a sensing voltage used to determine a state of the memory cells (111-1, ..., 111-N) based, at least partially, on the determined trend. perform a number of sense operations on the memory cells (111-1, ..., 111-N), wherein each sense operation is performed using a different sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2) determine, for each of the different sensing voltages (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2), a quantity of the memory cells (111-1, ..., 111-N) having a threshold voltage (Vt) greater than the respective sensing voltage (327-0, 327-1, 327-2, 327-3, 327-4, 457-0, 457-1, 457-2); determine differences between the determined quantities of memory cells (111-1, ..., 111-1); determine a trend associated with the determined differences; and adjust a sensing voltage used to determine a state of the memory cells (111-1, ..., 111-N) based, at least partially, on the determined trend.
An illumination device, comprising: a first conductive layer; a second conductive layer; a hole transport layer disposed between the first conductive layer and the second conductive layer; an electron transport layer disposed between the first conductive layer and the second conductive layer; and a layer of plurality of luminescent nanostructures, wherein the layer of plurality of luminescent nanostructures is disposed between the electron transport layer and the hole transport layer, wherein the layer of plurality of luminescent nanostructures comprises a plurality of discontinuities through a thickness of the layer of plurality of luminescent nanostructures such that the hole transport layer and the electron transport layer directly contact each other at the plurality of discontinuities a first conductive layer; a second conductive layer; a hole transport layer disposed between the first conductive layer and the second conductive layer; an electron transport layer disposed between the first conductive layer and the second conductive layer; and a layer of plurality of luminescent nanostructures, wherein the layer of plurality of luminescent nanostructures is disposed between the electron transport layer and the hole transport layer, wherein the layer of plurality of luminescent nanostructures comprises a plurality of discontinuities through a thickness of the layer of plurality of luminescent nanostructures such that the hole transport layer and the electron transport layer directly contact each other at the plurality of discontinuities