mhurhangee/patent-ind-claim-en huggingface dataset:
A system for communicating status information via an illuminated bezel of a panel, the system comprising: an interface panel comprising a bezel extending around a perimeter of the interface panel and a button (206a-e) for controlling a function of a mechanical device; a light source for generating a light; a light diffuser disposed in the bezel and extending around the perimeter of the interface panel , wherein the light diffuser is coupled to the light source and configured to distribute the light generated by the light source to illuminate the perimeter of the interface panel ; and a light source controller coupled to the light source , the light source controller configured to control the light source to generate the light to communicate a predefined message via the light diffuser based on a notification received for communicating a message, the notification being provided by the mechanical device and being indicative of a current status of the mechanical device an interface panel comprising a bezel extending around a perimeter of the interface panel and a button (206a-e) for controlling a function of a mechanical device; a light source for generating a light; a light diffuser disposed in the bezel and extending around the perimeter of the interface panel , wherein the light diffuser is coupled to the light source and configured to distribute the light generated by the light source to illuminate the perimeter of the interface panel ; and a light source controller coupled to the light source , the light source controller configured to control the light source to generate the light to communicate a predefined message via the light diffuser based on a notification received for communicating a message, the notification being provided by the mechanical device and being indicative of a current status of the mechanical device
A detector for detecting radiation, the detector (6; 106; 206; 306; 406) comprising: - an anode (10; 110; 210; 410), a cathode (8; 108; 208; 408) and an intermediate direct conversion material (9; 109; 209; 409) for converting radiation (4; 304) into electrons and holes, wherein the electrons are collectable by the anode (10; 110; 210; 410), - a detection signal generator (11; 111; 211; 411) for generating a detection signal depending on the collected electrons, - an illuminator (7; 112, 113; 212, 213; 313; 413) for illuminating the direct conversion material (9; 109; 209; 409) with illumination light (115; 215; 315; 415) being broadband visible and/or broadband infrared light, characterized in that the detector further comprises a polarization degree determination unit for determining a polarization degree value being indicative of a degree of polarization of the direct conversion material, wherein the illuminator is adapted to illuminate the direct conversion material depending on the polarization degree value. - an anode (10; 110; 210; 410), a cathode (8; 108; 208; 408) and an intermediate direct conversion material (9; 109; 209; 409) for converting radiation (4; 304) into electrons and holes, wherein the electrons are collectable by the anode (10; 110; 210; 410), - a detection signal generator (11; 111; 211; 411) for generating a detection signal depending on the collected electrons, - an illuminator (7; 112, 113; 212, 213; 313; 413) for illuminating the direct conversion material (9; 109; 209; 409) with illumination light (115; 215; 315; 415) being broadband visible and/or broadband infrared light,
Rope sling shackle body for a heavy load rope sling shackle for attaching to a rope sling, at least comprising: - two opposite end portions , each of which has a through-opening for receiving a bolt ; - a central arc , which extends between the end portions and has, at least in a rope receiving region , an arc bottom (15.2) and mutually spaced-apart arc flanks (15.1, 15.3) arranged on either side of the latter, wherein the arc has, at least in the rope receiving region , on its inner side, a convexly rounded rope supporting face, which extends from a top edge (15.4, 15.5) of one arc flank (15.1, 15.3) to the top edge (15.4, 15.5) of the respectively other arc flank (15.1, 15.3); - at least one reinforcing rib, which is arranged between the arc flanks (15.1, 15.3), characterized in that the reinforcing rib is divided into two part-ribs (17.1, 17.2), via which a respective arc flank (15.1, 15.3) is supported on the arc bottom (15.2), wherein there is a spacing between the part-ribs (17.1, 17.2) right down to the arc bottom (15.2). - two opposite end portions , each of which has a through-opening for receiving a bolt ; - a central arc , which extends between the end portions and has, at least in a rope receiving region , an arc bottom (15.2) and mutually spaced-apart arc flanks (15.1, 15.3) arranged on either side of the latter, wherein the arc has, at least in the rope receiving region , on its inner side, a convexly rounded rope supporting face, which extends from a top edge (15.4, 15.5) of one arc flank (15.1, 15.3) to the top edge (15.4, 15.5) of the respectively other arc flank (15.1, 15.3); - at least one reinforcing rib, which is arranged between the arc flanks (15.1, 15.3),
A vehicular optical system comprising: an optical device disposed to acquire information on an environment outside a vehicle cabin; a transparent member disposed on a front surface of the optical device via a predetermined closed space (S); and an anti-fogging sheet disposed in a first region (a1) of an inner surface of the transparent member in the closed space (S), the first region (a1) being within an angle of view of the optical device ; and characterized in that the anti-fogging sheet is moisture-absorbing and light-transmitting, and in that the vehicular optical system also comprises: a dew condensation portion disposed in a second region (a2) of the inner surface of the transparent member in the closed space (S), the second region (a2) being out of the angle of view of the optical device and dew condensation being more likely to occur in the dew condensation portion than in the first region (a1), wherein the dew condensation portion is formed by a thickness of the transparent member being thinner in the second region (a2) than in the first region (a1). an optical device disposed to acquire information on an environment outside a vehicle cabin; a transparent member disposed on a front surface of the optical device via a predetermined closed space (S); and an anti-fogging sheet disposed in a first region (a1) of an inner surface of the transparent member in the closed space (S), the first region (a1) being within an angle of view of the optical device ; and characterized in that the anti-fogging sheet is moisture-absorbing and light-transmitting, and in that the vehicular optical system also comprises: a dew condensation portion disposed in a second region (a2) of the inner surface of the transparent member in the closed space (S), the second region (a2) being out of the angle of view of the optical device and dew condensation being more likely to occur in the dew condensation portion than in the first region (a1), wherein the dew condensation portion is formed by a thickness of the transparent member being thinner in the second region (a2) than in the first region (a1).
A computer-implemented method for providing a clinical information, comprising - receiving input data, wherein the input data comprises a graph representation of a plurality of disease lesions (209.1, 209.2, 209.3, 209.4) of a patient, wherein the graph representation of the plurality of disease lesions (209.1, 209.2, 209.3, 209.4) comprises information about a global feature of each disease lesion (209.1, 209.2, 209.3, 209.4) of the plurality of disease lesions (209.1, 209.2, 209.3, 209.4), wherein the global feature of a given disease lesion (209.1, 209.2, 209.3, 209.4) comprises information about its location within the patient, - applying a trained function to the input data to generate the clinical information, wherein the trained function is based on a graph neural network, - providing the clinical information, wherein the clinical information comprises at least one information for the prediction of the disease progression, the survival, or therapy response of the patient, wherein the clinical information comprises at least one classification information for the disease progression, the prediction of the survival or therapy response of the patient. - receiving input data, wherein the input data comprises a graph representation of a plurality of disease lesions (209.1, 209.2, 209.3, 209.4) of a patient, wherein the graph representation of the plurality of disease lesions (209.1, 209.2, 209.3, 209.4) comprises information about a global feature of each disease lesion (209.1, 209.2, 209.3, 209.4) of the plurality of disease lesions (209.1, 209.2, 209.3, 209.4), wherein the global feature of a given disease lesion (209.1, 209.2, 209.3, 209.4) comprises information about its location within the patient, wherein the input data comprises a graph representation of a plurality of disease lesions (209.1, 209.2, 209.3, 209.4) of a patient, wherein the graph representation of the plurality of disease lesions (209.1, 209.2, 209.3, 209.4) comprises information about a global feature of each disease lesion (209.1, 209.2, 209.3, 209.4) of the plurality of disease lesions (209.1, 209.2, 209.3, 209.4), wherein the global feature of a given disease lesion (209.1, 209.2, 209.3, 209.4) comprises information about its location within the patient, - applying a trained function to the input data to generate the clinical information, wherein the trained function is based on a graph neural network, - providing the clinical information, wherein the clinical information comprises at least one information for the prediction of the disease progression, the survival, or therapy response of the patient, wherein the clinical information comprises at least one classification information for the disease progression, the prediction of the survival or therapy response of the patient.
A display panel having a display area, which is the area configured to display an image, and an array of a plurality of subpixels (S) in the display area, comprising: a base substrate ; and a light diffusion layer on the base substrate and comprising a plurality of light diffusers (D) separated from each other; wherein each of the plurality of light diffusers (D) is configured to diffuse light emitted from one of the plurality of subpixels (S1) nearest to an edge of the display area, such that a portion of diffused light emits out of each of the plurality of light diffusers (D) outside a region corresponding to the one of the plurality of subpixels (S1) nearest to the edge of the display area; wherein the array of the plurality of subpixels (S) is arranged substantially along a first direction and a second direction perpendicular to the first direction; at least a portion of an outline (O1, O2, O3, O4) of the display panel extends along a direction non-parallel to the first direction and non-parallel to the second direction; and the plurality of light diffusers (D) are along the outline. a base substrate ; and a light diffusion layer on the base substrate and comprising a plurality of light diffusers (D) separated from each other; wherein each of the plurality of light diffusers (D) is configured to diffuse light emitted from one of the plurality of subpixels (S1) nearest to an edge of the display area, such that a portion of diffused light emits out of each of the plurality of light diffusers (D) outside a region corresponding to the one of the plurality of subpixels (S1) nearest to the edge of the display area; wherein the array of the plurality of subpixels (S) is arranged substantially along a first direction and a second direction perpendicular to the first direction; at least a portion of an outline (O1, O2, O3, O4) of the display panel extends along a direction non-parallel to the first direction and non-parallel to the second direction; and the plurality of light diffusers (D) are along the outline.
A permanent magnet electrical machine having: a rotor supporting a circumferential row of permanent magnets ; a stator coaxial with the rotor and having a circumferential row of stator teeth carrying respective coils, the teeth providing paths for magnetic flux produced by the magnets, thereby electromagnetically linking the magnets and the coils when the rotor rotates relative to the stator; wherein the teeth have respective core portions on which the coils are mounted, and respective tip portions located between the core portions and the rotor, neighbouring tip portions being circumferentially spaced from each other by respective gaps; and wherein each pair of neighbouring tip portions has a bridge member and a thermal switching mechanism carried by a first tip portion of the pair, the bridge member and the thermal switching mechanism being configured such that, when the temperature of the first tip portion exceeds a threshold temperature, the thermal switching mechanism moves the bridge member from a retracted position in which it is retracted to the first tip portion to a deployed position in which it bridges the gap between the first tip portion and the second tip portion of the pair, thereby forming a shortcut, bypassing the respective coil, for magnetic flux linking the pair of neighbouring tip portions. a rotor supporting a circumferential row of permanent magnets ; a stator coaxial with the rotor and having a circumferential row of stator teeth carrying respective coils, the teeth providing paths for magnetic flux produced by the magnets, thereby electromagnetically linking the magnets and the coils when the rotor rotates relative to the stator; wherein the teeth have respective core portions on which the coils are mounted, and respective tip portions located between the core portions and the rotor, neighbouring tip portions being circumferentially spaced from each other by respective gaps; and wherein each pair of neighbouring tip portions has a bridge member and a thermal switching mechanism carried by a first tip portion of the pair, the bridge member and the thermal switching mechanism being configured such that, when the temperature of the first tip portion exceeds a threshold temperature, the thermal switching mechanism moves the bridge member from a retracted position in which it is retracted to the first tip portion to a deployed position in which it bridges the gap between the first tip portion and the second tip portion of the pair, thereby forming a shortcut, bypassing the respective coil, for magnetic flux linking the pair of neighbouring tip portions.
A method for directionally drilling a portion of a borehole, comprising: rotating a drill string associated with a drilling system and placing an axial load on the drill string causing the drill string to move into compression; and stopping rotation of the drill string and, with the drill string in compression, drilling a portion of the portion of the borehole while actively managing a toolface angle of a drill bit associated with the drilling system , so that the toolface angle may be continuously and selectively varied and controlled while a bit shaft associated with drill bit is rotating to directionally drill the bore hole, without rotation of a housing of a bearing section , and without removal of the drilling system from the borehole; wherein the drilling and the actively managing are conducted without rotating the drilling string. rotating a drill string associated with a drilling system and placing an axial load on the drill string causing the drill string to move into compression; and stopping rotation of the drill string and, with the drill string in compression, drilling a portion of the portion of the borehole while actively managing a toolface angle of a drill bit associated with the drilling system , so that the toolface angle may be continuously and selectively varied and controlled while a bit shaft associated with drill bit is rotating to directionally drill the bore hole, without rotation of a housing of a bearing section , and without removal of the drilling system from the borehole; wherein the drilling and the actively managing are conducted without rotating the drilling string.
A method for screening for drug candidates for the treatment of inflammation, diabetes, or obesity, said method comprising the step of determining, in silico, a binding energy between a test agent and lanthionine synthetase component C-like protein 2 (LANCL2), wherein a binding energy of less than -4.5 kcal/mol indicates that the agent is a drug candidate for the treatment of inflammation, diabetes, or obesity.
Overhead cable transport facility, comprising a departure station and an arrival station connected by cables defining two traffic lane each consisting of two stationary carrying cables parallel to each other and of a scrolling traction cable extending between the two carrying cables, the transport facility further comprising a carriage comprising two rolling elements each designed to cooperate with one of said carrying cables and hooking means designed to be coupled to said traction cable of a traffic lane, said carriage further comprising two lateral uprights designed to cooperate with said rolling elements, the spacing between the lateral uprights being greater than the spacing between the carrying cables so that the lateral uprights cooperate with the rolling elements from outside the traffic lane, said transport facility comprising a vehicle hanging from the carriage to be moved along the traffic lanes, each station comprising at least one return pulley of said traction cable designed to return the traction cable from one traffic lane to another, characterized in that said carriage comprises a central upright designed to cooperate with said hooking means and a cross member connecting said lateral uprights and said central upright between them, said cross member extending under the carrying and traction cables, and in that each station comprises at least one anchor wheel disposed in the center of the station between the traction cable and designed to secure the carrying cables, and in that each station further comprises first and second guideways designed to move the vehicle from one traffic lane to another and instead of the carrying and traction cables, said first guideway replaces the carrying cable and extends to the periphery of the station, and said second guideway replaces the carrying cable and extends inside the station, said at least one anchor wheel substantially overhanging said second guideway to allow upward deflection of the carrying cable it replaces.
A graphics processing unit card , wherein the graphics processing unit card comprises a main chip and M Peripheral Component Interface Express, PCIe, interfaces electrically connected to the main chip , wherein: the M PCIe interfaces are configured to electrically connect to a mainboard , and M is an integer greater than or equal to 2; and the main chip comprises a mode control module , and when identifying that only one PCIe interface of the graphics processing unit card transmits data, the mode control module configures the graphics processing unit card to be in a single-card mode, or when identifying that N PCIe interfaces of the graphics processing unit card transmit data, the mode control module configures the graphics processing unit card to be in an interface extended mode, wherein N is a natural number less than or equal to M and greater than or equal to 2, wherein: when the graphics processing unit card is in a single-card mode, the graphics processing unit card is identified as a single graphics processing device; or when the graphics processing unit card is in an interface extended mode, the graphics processing unit card is identified as N graphics processing devices, wherein the main chip further comprises multiple multi-core stream processors, wherein: when the graphics processing unit card is identified as a single graphics processing device, the mode control module allocates all the multiple multi-core stream processors to the single graphics processing device; or when the graphics processing unit card is identified as N graphics processing devices, the mode control module allocates the multiple multi-core stream processors to the graphics processing devices according to a bandwidth ratio of PCIe channels corresponding to the graphics processing devices; and the N PCIe interfaces of the graphics processing unit card are corresponding to N PCIe channels. wherein: when the graphics processing unit card is in a single-card mode, the graphics processing unit card is identified as a single graphics processing device; or when the graphics processing unit card is in an interface extended mode, the graphics processing unit card is identified as N graphics processing devices, wherein the main chip further comprises multiple multi-core stream processors, wherein: when the graphics processing unit card is identified as a single graphics processing device, the mode control module allocates all the multiple multi-core stream processors to the single graphics processing device; or when the graphics processing unit card is identified as N graphics processing devices, the mode control module allocates the multiple multi-core stream processors to the graphics processing devices according to a bandwidth ratio of PCIe channels corresponding to the graphics processing devices; and the N PCIe interfaces of the graphics processing unit card are corresponding to N PCIe channels.
A method of concentrating stained non-human animal sperm cells comprising the steps of: providing an aliquot of non-human animal sperm cells; sorting the sperm cells into one of multiple populations of sperm cells on the basis of one or more specified DNA characteristics; obtaining a quantity of sperm cells having a desired DNA characteristic from one of said multiple populations of sperm cells, said quantity of sperm cells being contained in a volume of collection fluid; subjecting the stained sperm cells to a first centrifugation process at a g-force in the range of 550g to 800g for a period of about 6 - 10 minutes to form a first pellet of sperm cells and a first supernatant overlying the first pellet; removing the first supernatant from the first pellet to separate the first supernatant from the pellet/supernatant interphase; subjecting the first supernatant to a second centrifugation form a second pellet of sperm cells; resuspending each of the first and second pellets in a volume of resuspension fluid that when combined has a volume less than the volume of the starting aliquot of animal sperm cells; and combining the first and second resuspension samples to obtain a desired concentration of stained sperm cells in the resuspended sample of stained sperm cells. providing an aliquot of non-human animal sperm cells; sorting the sperm cells into one of multiple populations of sperm cells on the basis of one or more specified DNA characteristics; obtaining a quantity of sperm cells having a desired DNA characteristic from one of said multiple populations of sperm cells, said quantity of sperm cells being contained in a volume of collection fluid; subjecting the stained sperm cells to a first centrifugation process at a g-force in the range of 550g to 800g for a period of about 6 - 10 minutes to form a first pellet of sperm cells and a first supernatant overlying the first pellet; removing the first supernatant from the first pellet to separate the first supernatant from the pellet/supernatant interphase; subjecting the first supernatant to a second centrifugation form a second pellet of sperm cells; resuspending each of the first and second pellets in a volume of resuspension fluid that when combined has a volume less than the volume of the starting aliquot of animal sperm cells; and combining the first and second resuspension samples to obtain a desired concentration of stained sperm cells in the resuspended sample of stained sperm cells.