mhurhangee/ep-ind-claims huggingface dataset:
Method for viewing and manipulating a multi-channel image composed of several channels, whose channels originate from one or several imaging modalities, this method comprising the steps of: - storing a multi-channel image in one or several 2D texture units, each representing a pack of four 8-bit tiles corresponding to one or several channels at a given location in the multi-channel image, each 2D texture unit being a fixed size memory storage unit in one graphics processing unit, - taking a selection of one or several channels of the multi-channel image into account, - taking transformation and/or projection parameters for the selected channels into account, - applying the transformation on the selected channels, according to received parameters, all pixels of the selected channels being transformed at the same time, - projecting the selected channels into an RGB color space, according to the received parameters, all pixels of the selected channels being projected at the same time. - storing a multi-channel image in one or several 2D texture units, each representing a pack of four 8-bit tiles corresponding to one or several channels at a given location in the multi-channel image, each 2D texture unit being a fixed size memory storage unit in one graphics processing unit, - taking a selection of one or several channels of the multi-channel image into account, - taking transformation and/or projection parameters for the selected channels into account, - applying the transformation on the selected channels, according to received parameters, all pixels of the selected channels being transformed at the same time, - projecting the selected channels into an RGB color space, according to the received parameters, all pixels of the selected channels being projected at the same time.
A diamine on formula I. in which R 1 and R 2 are methyl, ethyl or butyl groups, or may be joined with one another to form a ring of 3-9 carbon atoms; R 4 is hydrogen or a C 1 -C 8 alkyl group; R 5 is a C 1 -C 10 linear alkyl group; R 6 is a linear C 2 -C 20 alkyl group; R 5 and R 6 may be joined with one another to form a ring of 3-10 carbon atoms; with the proviso that the combined carbon atom count of R 4, R 5, R 6 and the central carbon atom is 4 to 22. R 4 is hydrogen or a C 1 -C 8 alkyl group; R 5 is a C 1 -C 10 linear alkyl group; R 6 is a linear C 2 -C 20 alkyl group; R 5 and R 6 may be joined with one another to form a ring of 3-10 carbon atoms; with the proviso that the combined carbon atom count of R 4, R 5, R 6 and the central carbon atom is 4 to 22.
A method for detecting image artifacts, comprising - receiving image data from a vehicle camera, the image data comprising image frames, - comparing intensity differences between neighbouring pixels in a first direction with a pre-determined upper threshold and with a pre-determined lower threshold, - setting a pixel transition value to a first value when the intensity difference is greater than the pre-determined upper threshold, setting the pixel transition value to a second value which corresponds to a negative of the first value when the intensity difference is less than the pre-determined lower threshold and setting the pixel transition value to zero when the intensity difference lies between the pre-determined upper threshold and the pre-determined lower threshold, - computing accumulated pixel transition values of the pixel transition values by applying a low pass filter with respect to a frame index, - computing smoothed pixel transition values by applying a spatial filter with respect to pixel locations, - computing a magnitude value of the smoothed and accumulated pixel transition values for the pixel locations of the image frame, - identifying pixels of potential artifact regions by comparing the magnitude value with a predetermined detection threshold. - receiving image data from a vehicle camera, the image data comprising image frames, - comparing intensity differences between neighbouring pixels in a first direction with a pre-determined upper threshold and with a pre-determined lower threshold, - setting a pixel transition value to a first value when the intensity difference is greater than the pre-determined upper threshold, setting the pixel transition value to a second value which corresponds to a negative of the first value when the intensity difference is less than the pre-determined lower threshold and setting the pixel transition value to zero when the intensity difference lies between the pre-determined upper threshold and the pre-determined lower threshold, - computing accumulated pixel transition values of the pixel transition values by applying a low pass filter with respect to a frame index, - computing smoothed pixel transition values by applying a spatial filter with respect to pixel locations, - computing a magnitude value of the smoothed and accumulated pixel transition values for the pixel locations of the image frame, - identifying pixels of potential artifact regions by comparing the magnitude value with a predetermined detection threshold.
Spray-dried particles comprising one or more recombinant proteins selected from the group consisting of the C383S and the C383A mutant of the oxalate decarboxylase (OxDC) wild type recombinant protein according to SEQ. ID NO. 1 or SEQ. ID NO. 2, or a protein encoded by a sequence selected from SEQ. ID NO. 3, SEQ. ID NO. 4, SEQ. ID NO. 5, SEQ. ID NO. 6, SEQ. ID NO. 7, SEQ. ID NO. 8, SEQ. ID NO. 15, SEQ. ID NO. 16, SEQ. ID NO. 17, SEQ. ID NO. 18, or SEQ. ID NO. 19; and a polymeric material, wherein said proteins are prepared as nano- or micro-agglomerates.
A Hall-effect thruster for developing thrust along a thrust axis, the thruster comprising: a channel allowing collection, acceleration and ejection of particles by the thruster when it is in operation, the channel being delimited radially by an inner wall and an outer wall; an electric circuit comprising an anode, a cathode, and an electrical voltage source to emit electrons via the cathode and to attract electrons via the anode; a magnetic circuit for generating a magnetic field in the channel axially downstream of the anode, the magnetic field being directed in a substantially radial direction with respect to the thrust axis; the channel being open on an upstream side of the thruster and including a particle concentrator for collecting particles; the shape of the concentrator being defined by a continuous contour situated in a plane perpendicular to the thrust axis and surrounding it; the thruster being characterized in that on a major portion of the contour, each section of the concentrator perpendicular to the contour has a parabolic shape and has a focus belonging to the contour; and the magnetic circuit is arranged so as to generate the magnetic field in the vicinity of the contour. a channel allowing collection, acceleration and ejection of particles by the thruster when it is in operation, the channel being delimited radially by an inner wall and an outer wall; an electric circuit comprising an anode, a cathode, and an electrical voltage source to emit electrons via the cathode and to attract electrons via the anode; a magnetic circuit for generating a magnetic field in the channel axially downstream of the anode, the magnetic field being directed in a substantially radial direction with respect to the thrust axis; the channel being open on an upstream side of the thruster and including a particle concentrator for collecting particles; the shape of the concentrator being defined by a continuous contour situated in a plane perpendicular to the thrust axis and surrounding it; the thruster being characterized in that on a major portion of the contour, each section of the concentrator perpendicular to the contour has a parabolic shape and has a focus belonging to the contour; and the magnetic circuit is arranged so as to generate the magnetic field in the vicinity of the contour.
A method for constructing a representation of a planar object comprising: obtaining a depth image of a physical scene as captured from a viewing position, the depth image comprising a plurality of depth values and corresponding to a plurality of points in the physical scene, each depth value indicating a distance from the viewing position to one of the plurality of points in the physical scene; identifying a planar surface along which the planar object is estimated to be positioned; constructing a support map, the support map indicating portions of the planar surface occupied by the planar object and possible surfaces of objects resting on top of the planar object; constructing an occlusion map, the occlusion map indicating portions of the planar surface where the planar object is missing; constructing a representation of at least one boundary of the planar object, using the occlusion map and the support map; constructing an occlusion gradient map based on the occlusion map and the at least one boundary of the planar object; constructing a support gradient map based on the support map and the at least one boundary of the planar object; and classifying a segment associated with a boundary of the planar object based on the occlusion gradient map and the support gradient map. obtaining a depth image of a physical scene as captured from a viewing position, the depth image comprising a plurality of depth values and corresponding to a plurality of points in the physical scene, each depth value indicating a distance from the viewing position to one of the plurality of points in the physical scene; identifying a planar surface along which the planar object is estimated to be positioned; constructing a support map, the support map indicating portions of the planar surface occupied by the planar object and possible surfaces of objects resting on top of the planar object; constructing an occlusion map, the occlusion map indicating portions of the planar surface where the planar object is missing; constructing a representation of at least one boundary of the planar object, using the occlusion map and the support map; constructing an occlusion gradient map based on the occlusion map and the at least one boundary of the planar object; constructing a support gradient map based on the support map and the at least one boundary of the planar object; and classifying a segment associated with a boundary of the planar object based on the occlusion gradient map and the support gradient map.
A resource allocation method, comprising: receiving first configuration information sent by a network device, wherein the first configuration information comprises a plurality of resource collections, characterized in that the plurality of resource collections are in one-to-one correspondence with a plurality of Radio Network Temporary Identities, RNTIs, each of the plurality of resource collections is used for indicating an available resource of a target channel, and available resources indicated by the plurality of resource collections are different; receiving target downlink control information, DCI, sent by the network device; and determining a resource to be used by the target channel in a first resource collection corresponding to a first RNTI if the target DCI is scrambled with the first RNTI among the plurality of RNTIs, or determining a resource to be used by the target channel in a second resource collection corresponding to a second RNTI if the target DCI is scrambled with the second RNTI among the plurality of RNTIs. receiving first configuration information sent by a network device, wherein the first configuration information comprises a plurality of resource collections, characterized in that the plurality of resource collections are in one-to-one correspondence with a plurality of Radio Network Temporary Identities, RNTIs, each of the plurality of resource collections is used for indicating an available resource of a target channel, and available resources indicated by the plurality of resource collections are different; receiving target downlink control information, DCI, sent by the network device; and determining a resource to be used by the target channel in a first resource collection corresponding to a first RNTI if the target DCI is scrambled with the first RNTI among the plurality of RNTIs, or determining a resource to be used by the target channel in a second resource collection corresponding to a second RNTI if the target DCI is scrambled with the second RNTI among the plurality of RNTIs.
A LED light comprising at least: - a housing with a body formed by a profile with a rear panel and two side walls (17, 18), wherein the profile defines a preferential direction of the housing and wherein the side walls (17, 18) comprise opposing ribs forming at least two sliding guides - a LED module, the LED module being inserted into the housing. characterized in that - the LEDmodule is an encapsulated sealed module comprising a base and a cover, wherein the base supports a power supply unit and a LED-carrier unit, and - the encapsulated module is inserted parallel to the preferential direction into said sliding guides. - a housing with a body formed by a profile with a rear panel and two side walls (17, 18), wherein the profile defines a preferential direction of the housing and wherein the side walls (17, 18) comprise opposing ribs forming at least two sliding guides - a LED module, the LED module being inserted into the housing. - the LEDmodule is an encapsulated sealed module comprising a base and a cover, wherein the base supports a power supply unit and a LED-carrier unit, and - the encapsulated module is inserted parallel to the preferential direction into said sliding guides.
Holding chuck for glass processing machines that can be supplied with glass tubes, comprising a supply channel for the glass tubes, a plurality of movable clamping jaws which are arranged around the supply channel, an actuating member which can be moved back and forth in an actuation direction and is coupled to the clamping jaws such that movement is transferred, and comprising at least one tensioning member by means of which an actuation force can be produced that acts on the actuating member substantially in the actuation direction, and the tensioning member, when the holding chuck is mounted, is arranged alongside the supply channel such that said member can be replaced as a unit independently of the supply channel, and the holding chuck has at least one support structure and a lever which is arranged in the frictional connection between the tensioning member and the actuating member, is rotatably connected to the support structure and is coupled to the actuating member such that movement is transferred, characterised in that the holding chuck has an adapter element which can be repeatedly detached, is connected to the support structure and, in order to be connected to the tensioning member, comprises a coupling member which is designed to be movable on the support structure or on the lever in the direction of the longitudinal extension of the lever.
A compound of the formula: wherein: each R 1 is independently selected from the group consisting of hydrogen, halogen, hydroxy, alkoxy, nitrate, nitrite, sulfate, and a C1-C10 organic group; each R 2 is independently selected from the group consisting of hydrogen, halogen, hydroxy, alkoxy, nitrate, nitrite, sulfate, and a C1-C10 organic group; X represents C=O, C=N-OR 3, C=N-NR 3 R 4, CHOR 3, or CHNHR 3; each R 3 and R 4 independently represents hydrogen or an organic group; and R 8 represents an organic group. each R 1 is independently selected from the group consisting of hydrogen, halogen, hydroxy, alkoxy, nitrate, nitrite, sulfate, and a C1-C10 organic group; each R 2 is independently selected from the group consisting of hydrogen, halogen, hydroxy, alkoxy, nitrate, nitrite, sulfate, and a C1-C10 organic group; X represents C=O, C=N-OR 3, C=N-NR 3 R 4, CHOR 3, or CHNHR 3; each R 3 and R 4 independently represents hydrogen or an organic group; and R 8 represents an organic group.
A passive sampling membrane, comprising: a continuous mesoporous sequestration media comprising a sequestration phase and a support membrane, the support membrane being configured to support the sequestration phase, wherein the sequestration phase comprises a hydrophobic region and a hydrophilic region, wherein the continuous mesoporous sequestration media is configured to simultaneously sequester polar and non-polar organic substances, wherein the sequestration phase is a polymer, wherein the polymer includes the hydrophobic region and the hydrophilic region, wherein the hydrophobic region corresponds to a hydrophobic monomer and the hydrophilic region corresponds to a hydrophilic monomer, wherein the sequestration media is an in-situ formed continuous mesoporous phase embedded in the support membrane being a microfiber membrane. a continuous mesoporous sequestration media comprising a sequestration phase and a support membrane, the support membrane being configured to support the sequestration phase, wherein the sequestration phase comprises a hydrophobic region and a hydrophilic region, wherein the continuous mesoporous sequestration media is configured to simultaneously sequester polar and non-polar organic substances, wherein the sequestration phase is a polymer, wherein the polymer includes the hydrophobic region and the hydrophilic region, wherein the hydrophobic region corresponds to a hydrophobic monomer and the hydrophilic region corresponds to a hydrophilic monomer, wherein the sequestration media is an in-situ formed continuous mesoporous phase embedded in the support membrane being a microfiber membrane.
A laminating equipment for a Radio Frequency Identification (RFID) tire tag, comprising: a frame; and a feeding mechanism, wherein the feeding mechanism is provided on the frame; and characterized by a laminating mechanism, wherein the laminating mechanism is provided on the frame; the laminating mechanism is configured to press rubber and an electronic chip of materials to be fed from the feeding mechanism; wherein the feeding mechanism comprises a support frame, a coiling portion which is provided on the support frame, and a driving wheel which is rotationally provided on the support frame; one end of the material to be fed is provided on the coiling portion, and the other end cooperates with the driving wheel, so as to move the material to be fed under a driving of the driving wheel; wherein the feeding mechanism further comprises a film-stripping rotation shaft; wherein the stripping rotation shaft is rotationally provided on the support frame; the materials to be fed comprise a material belt, the electronic chip and a protection film provided corresponding to the material belt; the electronic chip is provided between the material belt and the protection film; one end of the protection film is provided on the film-stripping rotation shaft; and the driving wheel is meshed with the material belt. a frame; and a feeding mechanism, wherein the feeding mechanism is provided on the frame; and characterized by a laminating mechanism, wherein the laminating mechanism is provided on the frame; the laminating mechanism is configured to press rubber and an electronic chip of materials to be fed from the feeding mechanism; wherein the feeding mechanism comprises a support frame, a coiling portion which is provided on the support frame, and a driving wheel which is rotationally provided on the support frame; one end of the material to be fed is provided on the coiling portion, and the other end cooperates with the driving wheel, so as to move the material to be fed under a driving of the driving wheel; wherein the feeding mechanism further comprises a film-stripping rotation shaft; wherein the stripping rotation shaft is rotationally provided on the support frame; the materials to be fed comprise a material belt, the electronic chip and a protection film provided corresponding to the material belt; the electronic chip is provided between the material belt and the protection film; one end of the protection film is provided on the film-stripping rotation shaft; and the driving wheel is meshed with the material belt.
A marine diesel cylinder lubricating oil composition comprising: (a) at least 40 wt. % of an oil of lubricating viscosity, based on the total weight of the marine diesel cylinder lubricating oil composition; and (b) from 0.01 to 10 wt. % of a phenol-based detergent, based on the total weight of the marine diesel cylinder lubricating oil composition, wherein the phenol-based detergent is an alkaline earth metal phenol-based detergent; wherein the marine diesel cylinder lubricating oil composition has a BN of from 155 to 210 mg KOH/g in accordance with ASTM Standard No. D2896, and further wherein the marine diesel cylinder lubricating oil composition comprises less than 1.65 wt. % of unsulfurized tetrapropenyl phenol and its unsulfurized metal salt. (a) at least 40 wt. % of an oil of lubricating viscosity, based on the total weight of the marine diesel cylinder lubricating oil composition; and (b) from 0.01 to 10 wt. % of a phenol-based detergent, based on the total weight of the marine diesel cylinder lubricating oil composition, wherein the phenol-based detergent is an alkaline earth metal phenol-based detergent;
A solar cell having a metal contact formed to electrically contact a surface of semiconductor material forming a photovoltaic junction, the surface of the semiconductor material comprising at least one localised heavily doped surface region within the surface and the contact comprising a contact metallisation formed over the localised heavily doped surface region to make contact thereto, the surface of the semiconductor material further comprising surface keying features located intermittently in the localised heavily doped surface region, the contact metallisation extending between and into the surface keying features to assist in attachment of the metallisation to the semiconductor material; characterised in that the contact metallisation is electrically connected to the localised heavily doped surface region of the semiconductor material both in the surface keying features and between the surface keying features.
A foldable gantry comprising a beam and a first leg assembly, the first leg assembly being pivotally mounted at a first end of the beam such that the first leg assembly can move between a first, stowed, position and a second, deployed, position, characterised in that; the first leg assembly comprises an upper leg part and a pair of outwardly expendable lower leg parts, the lower leg parts being moveable between a first, stowed, position in which the lower leg parts are closed and a second, deployed, position in which the lower leg parts are open.
A method for carrier aggregation, comprising: determining, by a user equipment, whether a secondary cell is in an activated state or an inactivated state; characterised by enabling measurement gaps for the user equipment if the secondary cell is in the inactivated state; and disabling measurement gaps for the user equipment if the secondary cell is in the activated state. determining, by a user equipment, whether a secondary cell is in an activated state or an inactivated state; characterised by enabling measurement gaps for the user equipment if the secondary cell is in the inactivated state; and disabling measurement gaps for the user equipment if the secondary cell is in the activated state.