mhurhangee/patent-ind-claim-en huggingface dataset:
A method for creating vacuum insulation panels comprising the following step: a) selecting a first film and a second film which are candidates for assembly with each other for creating a vacuum insulation panel , said method being characterised in that it comprises the following steps: b) marking each of the first film and the second film with marks distributed over their respective surfaces, c) bringing and maintaining each of the first film and the second film to a temperature T higher than ambient temperature for a predefined duration t, d) establishing a shrinkage map of each of the first film and the second film by comparing the position of the marks before and after the heating step, e) establishing a differential shrinkage map of the couple consisting of the first film and the second film by comparing the shrinkage maps of each of the first film and the second film, f) retaining the couple of the first film and the second film for creating a vacuum insulation panel if and only if the differential shrinkage mapping shows a differential shrinkage below a threshold value S, said threshold value S being selected according to the temperature T, the duration t and an adhesive provided for the subsequent assembly of the first film and the second film with each other. a) selecting a first film and a second film which are candidates for assembly with each other for creating a vacuum insulation panel , b) marking each of the first film and the second film with marks distributed over their respective surfaces, c) bringing and maintaining each of the first film and the second film to a temperature T higher than ambient temperature for a predefined duration t, d) establishing a shrinkage map of each of the first film and the second film by comparing the position of the marks before and after the heating step, e) establishing a differential shrinkage map of the couple consisting of the first film and the second film by comparing the shrinkage maps of each of the first film and the second film, f) retaining the couple of the first film and the second film for creating a vacuum insulation panel if and only if the differential shrinkage mapping shows a differential shrinkage below a threshold value S, said threshold value S being selected according to the temperature T, the duration t and an adhesive provided for the subsequent assembly of the first film and the second film with each other.
Method for imaging an object using a microscopy apparatus , wherein the method comprises: - obtaining at least two images (201-1 - 201-3) of the object which have a first resolution , wherein an illumination field (110-1, 110-2, 110-3) is respectively assigned to the at least two images (201-1 - 201-3), which illumination field illuminates the object during capture of the respective image (201-1 - 201-3) and is associated with predefined beam shaping properties (111-1, 111-2, 111-3) which describe aberrations of the respective illumination field, wherein the method comprises the following image evaluation steps for each of the at least two images (201-1 - 201-3): - carrying out a first computing operation in order to add an effect of the beam shaping properties (111-1, 111-2, 111-3) of the illumination field (110-1, 110-2, 110-3) assigned to the respective image to a predefined approximation of the object in the image space, wherein the approximation has a second resolution which is greater than the first resolution , - adapting the approximation by means of Fourier ptychography techniques in the k-space on the basis of the respective image (201-1 - 201-3), - carrying out a second computing operation in order to remove the effect of the beam shaping properties (111-1, 111-2, 111-3) of the illumination field (110-1, 110-2, 110-3) assigned to the respective image from the adapted approximation of the object in the image space in order to obtain an intermediate image , wherein the method also comprises: - determining a result image on the basis of the intermediate images assigned to the at least two illumination fields (110-1, 110-2, 110-3), wherein the predefined approximation which is used to evaluate a first image (201-1 - 201-3) of the object corresponds to the intermediate image obtained by evaluating a second image (201-1 - 201-3) of the object , wherein the Fourier ptychography techniques replace pixel values of the approximation in a particular region with pixel values of the respective image (201-1 - 201-3), wherein the particular region corresponds to a system pupil of the respective illumination field (110-1, 110-2, 110-3) in the k-space. - obtaining at least two images (201-1 - 201-3) of the object which have a first resolution , - carrying out a first computing operation in order to add an effect of the beam shaping properties (111-1, 111-2, 111-3) of the illumination field (110-1, 110-2, 110-3) assigned to the respective image to a predefined approximation of the object in the image space, - adapting the approximation by means of Fourier ptychography techniques in the k-space on the basis of the respective image (201-1 - 201-3), - carrying out a second computing operation in order to remove the effect of the beam shaping properties (111-1, 111-2, 111-3) of the illumination field (110-1, 110-2, 110-3) assigned to the respective image from the adapted approximation of the object in the image space in order to obtain an intermediate image , - determining a result image on the basis of the intermediate images assigned to the at least two illumination fields (110-1, 110-2, 110-3),
A method of optimalization of cutting of flat products from a natural material, mainly from wood, where there is a set of desired shapes and dimensions of products , which are to be cut, determined in advance, whereby there is a predetermined group of elements in the set, with shapes and dimensions of the products which are to be cut, and where a visible side of a material is firstly scanned; scanning boundaries are set by means of an available surface of the material ; defects of the material which manifest themselves by defined optical differences from an environment are identified in a scanned image; a position on a visible surface of the material is assigned to the identified defects ; then a cutting plan is created, whereby this cutting plan sets boundaries of the individual flat products , whereby during the creation of the cutting plan places with the identified defects of the material are taken into account, whereby a distribution of the desired products on the available surface of the material is optimalized by means of a numerical algorithm, a weight coefficient is assigned to each element from the set of the desired shapes and dimensions of products , is characterized by the fact , that the optimalization of the distribution of the desired products is realized with a goal of achieving the highest sum of a number of the products multiplied by the weight coefficient of a given product , whereby a condition that all elements from the set of the desired products have to be cut, and subsequently the material is cut by the cutting machine acting on a point without any limitation concerning a mutual position of cut lines of the neighboring products . whereby there is a predetermined group of elements in the set, with shapes and dimensions of the products which are to be cut, and where a visible side of a material is firstly scanned; scanning boundaries are set by means of an available surface of the material ; defects of the material which manifest themselves by defined optical differences from an environment are identified in a scanned image; a position on a visible surface of the material is assigned to the identified defects ; then a cutting plan is created, whereby this cutting plan sets boundaries of the individual flat products , whereby during the creation of the cutting plan places with the identified defects of the material are taken into account, whereby a distribution of the desired products on the available surface of the material is optimalized by means of a numerical algorithm, a weight coefficient is assigned to each element from the set of the desired shapes and dimensions of products , is characterized by the fact , that the optimalization of the distribution of the desired products is realized with a goal of achieving the highest sum of a number of the products multiplied by the weight coefficient of a given product , whereby a condition that all elements from the set of the desired products have to be cut, and subsequently the material is cut by the cutting machine acting on a point without any limitation concerning a mutual position of cut lines of the neighboring products .
A compound of formula: or a pharmaceutically acceptable salt thereof, for use in treating a Nipah virus infection in a human in need thereof.
A monoclonal antibody binding to VEGF-A comprising heavy chain complementarity determining regions 1 - 3 (HCDR1, HCDR2, and HCDR3) and light chain complementarity determining regions 1 - 3 (LCDR1, LCDR2, and LCDR3), wherein HCDR1, HCDR2, and HCDR3 and LCDR1, LCDR2, and LCDR3 comprise SEQ ID NOs: 79 - 84, respectively, wherein the antibody comprises a heavy chain and a light chain comprising SEQ ID NOs: 73 and 77, respectively.
A device for bending vehicle glass , comprising a concave solid lower mold , at least one blowing pipe , a plurality of extraction pipes , and an annular upper mold , wherein the concave solid lower mold comprises a base and a top plate covered on the base , the base and the top plate cooperatively define an accommodating space , and a plurality of first partitions are arranged in the accommodating space to divide the accommodating space into a plurality of subspaces , the top plate has a carrying surface that is concave and away from the base , and the top plate has a plurality of through holes that are in communication with the accommodating space and arranged at intervals, each of the plurality of subspaces corresponds to at least one of the plurality of through holes , each of the at least one blowing pipe communicates with at least one of the plurality of subspaces and is configured for blowing gas to the at least one of the plurality of subspaces , and the plurality of extraction pipes communicate with the rest of the plurality of subspaces in one-to-one correspondence for extracting gas in the rest of the plurality of subspaces ; characterized in that : the annular upper mold is disposed at a side of the top plate away from the base and comprises an upper mold plate and a side mold plate that is disposed at a side of the upper mold plate facing the carrying surface , wherein the annular upper mold has a blowing channel , and the blowing channel of the annular upper mold is configured for blowing gas towards the concave solid lower mold . the annular upper mold is disposed at a side of the top plate away from the base and comprises an upper mold plate and a side mold plate that is disposed at a side of the upper mold plate facing the carrying surface , wherein the annular upper mold has a blowing channel , and the blowing channel of the annular upper mold is configured for blowing gas towards the concave solid lower mold .
An oil control ring comprising: a pair of side rails ; and a spacer expander disposed between the pair of side rails , wherein the spacer expander comprises: a plurality of lug parts with which inner circumferential surfaces of the side rails are in contact; and a plurality of rail facing parts which is provided adjacent to the lug parts and facing side surfaces of the side rails , and characterized in that all or at least a part of the plurality of lug parts satisfy a condition represented by a following inequality : W/H ≥ 1 .5 wherein in inequality , W indicates a width (unit: mm) of each of the lug parts at a position 0.05 mm away from a highest position of the lug part in a direction towards each of the rail facing parts , and H indicates a height difference (unit: mm) between a highest position of a region on the rail facing part adjacent to the lug part and the highest position of the lug part . a pair of side rails ; and a spacer expander disposed between the pair of side rails , wherein the spacer expander comprises: a plurality of lug parts with which inner circumferential surfaces of the side rails are in contact; and a plurality of rail facing parts which is provided adjacent to the lug parts and facing side surfaces of the side rails , and characterized in that a plurality of lug parts with which inner circumferential surfaces of the side rails are in contact; and a plurality of rail facing parts which is provided adjacent to the lug parts and facing side surfaces of the side rails , and characterized in that all or at least a part of the plurality of lug parts satisfy a condition represented by a following inequality : W/H ≥ 1 .5 wherein in inequality , W indicates a width (unit: mm) of each of the lug parts at a position 0.05 mm away from a highest position of the lug part in a direction towards each of the rail facing parts , and H indicates a height difference (unit: mm) between a highest position of a region on the rail facing part adjacent to the lug part and the highest position of the lug part .
An environmental control system for an aircraft comprising: a compression device including a compressor having a compressor inlet and a compressor outlet; a primary inlet for supplying a medium referred as second medium (F2) to the compressor inlet; and a secondary inlet for supplying a medium referred as third medium (F3) to the compressor inlet; wherein the third medium is cabin discharge air. a compression device including a compressor having a compressor inlet and a compressor outlet; a primary inlet for supplying a medium referred as second medium (F2) to the compressor inlet; and a secondary inlet for supplying a medium referred as third medium (F3) to the compressor inlet; wherein the third medium is cabin discharge air.
Device in connection with exercise, the device comprising a base body and means (11; 311) for applying the base body in the space created by the fold of the knee of a user (A) ; wherein the base body constitutes a U- , or L-shaped tube frame having two legs , characterised in that the device is configured to be fastened in the space created by the fold of one knee only, wherein the base body comprises two supporting surfaces for one leg of the user that form an intermediate angle (α) that is in the interval 70° < α < 110°, wherein the means (11; 311) comprises at least one band (11; 311) that via buckles or the like can form a closed loop relative to the base body for fastening the device to the user, wherein each of the two legs of the tube frame telescopically receives a tube that carries a respective supporting plate , wherein the supporting plates define the supporting surfaces , and wherein the two legs and the tubes have cooperating locking means in order to lock the tubes relative to the two legs in a desired position. characterised in that the device is configured to be fastened in the space created by the fold of one knee only, wherein the base body comprises two supporting surfaces for one leg of the user that form an intermediate angle (α) that is in the interval 70° < α < 110°, wherein the means (11; 311) comprises at least one band (11; 311) that via buckles or the like can form a closed loop relative to the base body for fastening the device to the user, wherein each of the two legs of the tube frame telescopically receives a tube that carries a respective supporting plate , wherein the supporting plates define the supporting surfaces , and wherein the two legs and the tubes have cooperating locking means in order to lock the tubes relative to the two legs in a desired position.
An ultrasound probe , comprising: a body ; a lens included on a head portion of the body through which ultrasound signals can be passed; a stabilizing portion extending from the body and configured to stabilize the body on a skin surface of a patient without user assistance when the lens is placed on the skin surface, the bottom surface of the stabilizing portion providing a second skin contact surface for the ultrasound probe; and a finger grip portion configured to enable a user of the probe to grasp and maneuver the probe during use thereof with no more than two fingers on a single hand of the user, wherein the finger grip portion includes a cylindrical ring , which further serves as the stabilizing portion , and wherein an articulating component is interposed between the body and the cylindrical ring . a body ; a lens included on a head portion of the body through which ultrasound signals can be passed; a stabilizing portion extending from the body and configured to stabilize the body on a skin surface of a patient without user assistance when the lens is placed on the skin surface, the bottom surface of the stabilizing portion providing a second skin contact surface for the ultrasound probe; and a finger grip portion configured to enable a user of the probe to grasp and maneuver the probe during use thereof with no more than two fingers on a single hand of the user, wherein the finger grip portion includes a cylindrical ring , which further serves as the stabilizing portion , and wherein an articulating component is interposed between the body and the cylindrical ring .
A method of adjusting a mobile station bandwidth to an operating bandwidth of a base station, in a variable bandwidth communication network of base stations and mobile stations, wherein a signal utilizes subchannels that include groups of subcarriers, the method comprising: maintaining a fixed time-domain signal structure; maintaining a constant ratio between a sampling frequency and a size of FFT, Fast Fourier Transform; adjusting a number of subcarriers or subchannels to scale a channel and attain a desired bandwidth; utilizing a core-band, centered at an operating center frequency, for radio control and operation signaling, wherein the core-band is not wider than a smallest possible operating channel bandwidth of the network; and a configuration wherein the mobile station, upon entering an area, scans spectral bands of different center frequencies and upon detecting a signal in a spectral band of a center frequency: determines the operating channel bandwidth by a center-frequency-to-bandwidth-mapping; or decodes the bandwidth information provided to the mobile station via downlink signaling. maintaining a fixed time-domain signal structure; maintaining a constant ratio between a sampling frequency and a size of FFT, Fast Fourier Transform; adjusting a number of subcarriers or subchannels to scale a channel and attain a desired bandwidth; utilizing a core-band, centered at an operating center frequency, for radio control and operation signaling, wherein the core-band is not wider than a smallest possible operating channel bandwidth of the network; and a configuration wherein the mobile station, upon entering an area, scans spectral bands of different center frequencies and upon detecting a signal in a spectral band of a center frequency: determines the operating channel bandwidth by a center-frequency-to-bandwidth-mapping; or decodes the bandwidth information provided to the mobile station via downlink signaling. determines the operating channel bandwidth by a center-frequency-to-bandwidth-mapping; or decodes the bandwidth information provided to the mobile station via downlink signaling.
A computer-readable storage medium including instructions that, when executed, cause at least one processor to at least: receive a plurality of two-dimensional tomosynthesis projection images of an organ, obtained by rotating an x-ray emitter to a plurality of orientations relative to the organ and emitting a first level of x-ray energization from the emitter for each projection image of the plurality of 2D tomosynthesis projection images; reconstruct a three-dimensional volume of the organ from the plurality of 2D tomosynthesis projection images; receive an x-ray image of the organ, obtained with a second level of x-ray energization; generate a synthetic 2D image generation algorithm by training a machine learning network from at least one of the plurality of two-dimensional tomosynthesis projection images or the reconstructed 3D volume based on a similarity metric between a synthetic 2D image and the x-ray image, wherein the synthetic 2D image is generated by the machine learning network; and deploy a model instantiating the synthetic 2D image generation algorithm. receive a plurality of two-dimensional tomosynthesis projection images of an organ, obtained by rotating an x-ray emitter to a plurality of orientations relative to the organ and emitting a first level of x-ray energization from the emitter for each projection image of the plurality of 2D tomosynthesis projection images; reconstruct a three-dimensional volume of the organ from the plurality of 2D tomosynthesis projection images; receive an x-ray image of the organ, obtained with a second level of x-ray energization; generate a synthetic 2D image generation algorithm by training a machine learning network from at least one of the plurality of two-dimensional tomosynthesis projection images or the reconstructed 3D volume based on a similarity metric between a synthetic 2D image and the x-ray image, wherein the synthetic 2D image is generated by the machine learning network; and deploy a model instantiating the synthetic 2D image generation algorithm.
Method for detecting the status of a moving object during the at least semi-autonomous manoeuvring of a motor vehicle along a trajectory by using a control unit and a sensor system, by carrying out the following method steps: a) detecting an object in a first state in or on the trajectory by means of the sensor system in a training phase, b) detecting the object in a second state in or on the trajectory by means of the sensor system in the training phase, c) comparing the results from step a) and step b) and identifying the object which was detected in the first state in step a) and in the second state in step b) as the moving object , d) determining the status of the moving object in an operating phase, wherein the sensor system detects an area surrounding the motor vehicle , and generating a status signal relating to the status of the moving object , wherein the sensor system has at least one camera and at least one further sensor, and the at least one camera and the at least one further sensor together continuously detect an area surrounding the motor vehicle , wherein the motor vehicle is brought to a standstill at a first intermediate point in the training phase, characterized in that at the first intermediate point , the at least one further sensor detects no obstacle but the at least one camera has already detected the obstacle. a) detecting an object in a first state in or on the trajectory by means of the sensor system in a training phase, b) detecting the object in a second state in or on the trajectory by means of the sensor system in the training phase, c) comparing the results from step a) and step b) and identifying the object which was detected in the first state in step a) and in the second state in step b) as the moving object , d) determining the status of the moving object in an operating phase, wherein the sensor system detects an area surrounding the motor vehicle , and generating a status signal relating to the status of the moving object , wherein the sensor system has at least one camera and at least one further sensor, and the at least one camera and the at least one further sensor together continuously detect an area surrounding the motor vehicle , wherein the motor vehicle is brought to a standstill at a first intermediate point in the training phase, characterized in that at the first intermediate point , the at least one further sensor detects no obstacle but the at least one camera has already detected the obstacle.