mhurhangee/ep-ind-claims huggingface dataset:
A lighting device (11,12,13) comprising: a light source that emits coherent light; a scanner that causes the coherent light emitted from the light source to move; a first optical system that regulates an optical path of the coherent light from the scanner; a first optical member (7,71) that causes the coherent light from the first optical system to diffuse; a second optical system (8,81) that regulates an optical path of the coherent light from the first optical member (7,71); and a second optical member (9,91,92,93) that includes a diffractive optical element, the diffractive optical element directing the coherent light from the second optical system (8,81) toward a lighting zone on a plane of projection, wherein the first optical member (7,71) is located on a front focal position of the second optical system (8,81), the lighting zone on the plane of projection is illuminated with the coherent light from the second optical member (9,91,92,93), and an irradiance [W/m2] in a plane orthogonal to an optical axis of the coherent light irradiated on the lighting zone is non-discrete. a light source that emits coherent light; a scanner that causes the coherent light emitted from the light source to move; a first optical system that regulates an optical path of the coherent light from the scanner; a first optical member (7,71) that causes the coherent light from the first optical system to diffuse; a second optical system (8,81) that regulates an optical path of the coherent light from the first optical member (7,71); and a second optical member (9,91,92,93) that includes a diffractive optical element, the diffractive optical element directing the coherent light from the second optical system (8,81) toward a lighting zone on a plane of projection, wherein the first optical member (7,71) is located on a front focal position of the second optical system (8,81), the lighting zone on the plane of projection is illuminated with the coherent light from the second optical member (9,91,92,93), and an irradiance [W/m2] in a plane orthogonal to an optical axis of the coherent light irradiated on the lighting zone is non-discrete.
A method performed by a target Internet of Things, IoT, hub in a plurality of geo-replicated IoT hubs to maintain telemetry data redundancy for IoT devices across the plurality of geo-replicated IoT hubs (110, 115, 405), in which the target geo-replicated IoT hub and each of the plurality of geo-replicated IoT hubs (110, 115, 405) are comprised of servers to communicate with IoT devices, comprising: receiving telemetry data associated with an IoT device from a first geo-replicated IoT hub, in which the first geo-replicated IoT hub is connected to and communicates with the IoT device to receive the telemetry data; the method characterized in further comprising: receiving a request from the IoT device to establish a network connection for communicating telemetry data from the IoT device to the target geo-replicated IoT hub; responsive to the received request, transmitting a proposal to each available geo-replicated IoT hub (110, 115) to receive ownership over the IoT device, ownership being that the IoT device transmits telemetry data to the target geo-replicated IoT hub and the target geo-replicated IoT hub transmits commands or data to the IoT device; and taking ownership over the IoT device upon receiving confirmation from one or more of the available geo-replicated IoT hubs (110, 115) and a quorum being established among the plurality of geo-replicated IoT hubs (110, 115, 405) for the target geo-replicated IoT hub to take ownership over the IoT device. receiving a request from the IoT device to establish a network connection for communicating telemetry data from the IoT device to the target geo-replicated IoT hub; responsive to the received request, transmitting a proposal to each available geo-replicated IoT hub (110, 115) to receive ownership over the IoT device, ownership being that the IoT device transmits telemetry data to the target geo-replicated IoT hub and the target geo-replicated IoT hub transmits commands or data to the IoT device; and taking ownership over the IoT device upon receiving confirmation from one or more of the available geo-replicated IoT hubs (110, 115) and a quorum being established among the plurality of geo-replicated IoT hubs (110, 115, 405) for the target geo-replicated IoT hub to take ownership over the IoT device.
An assembly of a pellet press and a pellet breaking device mounted on the pellet press, said pellet press being equipped with a cylindrical outer wall that is provided with a series of radial through holes with a predefined hole-diameter for radially and outwardly pressing the pellets from within the press towards and away from an outer circumferential contour of the pellet press, wherein said breaking device is shaped as a spiral encircling the pellet press at a predefined distance from the outer circumferential contour of the pellet press, wherein the spiral spans at least a part of the outer circumferential contour of the pellet press along an area that is provided with said through holes, and wherein the predefined distance between the spiral and the outer circumferential contour of the pellet press amounts to at least twice the pre-defined hole-diameter of the through holes, characterized in that the spiral has consecutive windings that define open slots between said windings, wherein the slots are arranged to enable the pellets to escape through said slots, that the open slots between the windings of the spiral are arranged such that during operation of the pellet press the open slots receive the pellets and said windings are arranged to subsequently break the pellets growing out of the outer circumferential contour of the pellet press, that the consecutive windings of the spiral are embodied with obliquely slanting surfaces (7', 7") with respect to the outer circumferential contour of the pellet press, wherein said obliquely slanting surfaces (7', 7") are bordering the slots, and that the obliquely slanting surfaces (7', 7") of the consecutive windings of the spiral are arranged to narrow a line of sight between the windings in the radial direction away from the outer circumferential contour of the pellet press so as to prevent that pellets can escape through the slots unhindered in a straight line, yet can escape through the slots following a bending and breaking motion of the pellets which occurs approximately at the outer circumferential contour of the pellet press. that the open slots between the windings of the spiral are arranged such that during operation of the pellet press the open slots receive the pellets and said windings are arranged to subsequently break the pellets growing out of the outer circumferential contour of the pellet press, that the consecutive windings of the spiral are embodied with obliquely slanting surfaces (7', 7") with respect to the outer circumferential contour of the pellet press, wherein said obliquely slanting surfaces (7', 7") are bordering the slots, and that the obliquely slanting surfaces (7', 7") of the consecutive windings of the spiral are arranged to narrow a line of sight between the windings in the radial direction away from the outer circumferential contour of the pellet press so as to prevent that pellets can escape through the slots unhindered in a straight line, yet can escape through the slots following a bending and breaking motion of the pellets which occurs approximately at the outer circumferential contour of the pellet press.
Method for determining a human individual's predisposition to contract a hematopoietic malignant myeloid disease, wherein the myeloid disease is acute myeloid leukemia or myelodysplastic syndrome, comprising: - Providing at least one nucleic acid of the human individual; - Determining a methylation level of at least one specific region of the nucleic acid comprising at least one CpG-dinucleotide, wherein the specific region consists of the gene of the DNA-methyltransferase DNMT3A; and - Comparing the determined methylation level with at least one reference methylation level of the specific region(s), wherein the risk of the human individual to contract the myeloid disease is increased if the determined methylation level is increased compared to the reference methylation level. - Providing at least one nucleic acid of the human individual; - Determining a methylation level of at least one specific region of the nucleic acid comprising at least one CpG-dinucleotide, wherein the specific region consists of the gene of the DNA-methyltransferase DNMT3A; and - Comparing the determined methylation level with at least one reference methylation level of the specific region(s), wherein the risk of the human individual to contract the myeloid disease is increased if the determined methylation level is increased compared to the reference methylation level.
A method of operating a scanning system comprising at least one scan server arrangement (206, 406) and at least one scanning device (308, 408) communicatively connectable to the scan server arrangement (206, 406), comprising: - obtaining, by the scan server arrangement (206, 406), a scan job encrypted with a public scan job key of a scan job key pair from a scanning device (308, 408) communicatively connectable to the scan server arrangement (206, 406), - obtaining, by the scan server arrangement (206, 406), a private scan job key of the scan job key pair encrypted with a public computer device key of a computer device key pair from a mobile user terminal, - wherein the computer device key pair is associated with a computer device, - transmitting, by the scan server arrangement (206, 406), the obtained encrypted private scan job key to the computer device (308, 408), and - transmitting, by the scan server arrangement (206, 406), the received encrypted scan job to the computer device for further processing of the scan job by the computer device. - obtaining, by the scan server arrangement (206, 406), a scan job encrypted with a public scan job key of a scan job key pair from a scanning device (308, 408) communicatively connectable to the scan server arrangement (206, 406), - obtaining, by the scan server arrangement (206, 406), a private scan job key of the scan job key pair encrypted with a public computer device key of a computer device key pair from a mobile user terminal, - wherein the computer device key pair is associated with a computer device, - transmitting, by the scan server arrangement (206, 406), the obtained encrypted private scan job key to the computer device (308, 408), and - transmitting, by the scan server arrangement (206, 406), the received encrypted scan job to the computer device for further processing of the scan job by the computer device.
A docking station for holding an electronic apparatus, comprising: a docking body comprising an operation interface which comprises at least a key, or at least touch pad, or their combinations, and a hinge portion; a hinge module comprising a hinge element and a holding element for holding the electronic apparatus, wherein the hinge element is pivotally connected to the hinge portion and connected to the holding element, the holding element and the docking body form a groove, the holding element is rotatable relative to the docking body for more than 270 degrees through the rotation space provided by the groove until being stopped by the docking body; and characterized by a gravity sensing device disposed to the docking body, wherein when the docking body is turned over, the gravity sensing device is triggered to output a shut-off signal, thus shutting off the function of the operation interface. a docking body comprising an operation interface which comprises at least a key, or at least touch pad, or their combinations, and a hinge portion; a hinge module comprising a hinge element and a holding element for holding the electronic apparatus, wherein the hinge element is pivotally connected to the hinge portion and connected to the holding element, the holding element and the docking body form a groove, the holding element is rotatable relative to the docking body for more than 270 degrees through the rotation space provided by the groove until being stopped by the docking body; and characterized by a gravity sensing device disposed to the docking body, wherein when the docking body is turned over, the gravity sensing device is triggered to output a shut-off signal, thus shutting off the function of the operation interface.
A film that comprises a thermoplastic composition that contains a continuous phase that includes a matrix polymer, wherein the film is biaxially stretched in a machine direction and cross-machine direction to form a porous network in the composition, wherein the composition contains a nanoinclusion additive dispersed within the continuous phase in the form of discrete domains, and wherein the porous network contains nanopores having an axial dimension and a cross-sectional dimension, wherein the maximum cross-sectional dimension of the nanopores is about 800 nanometers or less, and further wherein at least a portion of the nanopores are oriented in the cross-machine direction so that the axial dimension generally extends in the cross-machine direction and the cross-sectional dimension generally extends in the machine direction, characterised in that the matrix polymer is a polyolefin.
A dispenser for dispensing a web-shaped sheet product, in particular paper, with a dispensing unit which is driven by means of an electric motor and which is supplied with energy from a power source disposed in the dispenser and by means of which, in a motor operational mode, the web-shaped sheet product can be dispensed from the dispenser after a - preferably contactlessly operating - trigger sensor reacts, wherein a device for detecting the quantity of energy stored in the power source is provided and wherein an electronic control system is provided which, in the case of dropping below a predetermined quantity of energy in the power source, causes a piece of the web-shaped sheet product which can be grasped by the user to be dispensed from the dispenser and switches the dispenser into a manual operational mode in which the user pulls the web-shaped sheet product manually out of the dispenser, wherein a braking or stop position of the dispensing unit, in particular the angle of rotation of a blade roller of the dispensing unit, is different in the motor operational mode on the one hand and in the manual operational mode on the other hand.
A floor-panel structure for a motor vehicle, comprising: - a front body subassembly; - a front floor structure, including a central longitudinal tunnel; - a pair of lateral longitudinal beams, connected to the front floor structure and to the front body subassembly; and - two intermediate longitudinal beams that connect the front floor structure to the front body subassembly and that extend at intermediate areas between the lateral longitudinal beams and the central longitudinal tunnel, - wherein said lateral longitudinal beams each comprise a sheet-metal profile element having an open cross section, including a vertical wall, and a top wall and a bottom wall, which project from the vertical wall outwards, and - wherein each of said lateral longitudinal beams comprises a front portion reinforced for withstanding relatively high axial loads following upon head-on collisions of the motor vehicle, and a remaining portion of the longitudinal beam that is more ductile than said front portion so as to be more liable to collapse, thus absorbing impact energy, in the case of a collision of the respective side of the vehicle against a concentrated obstacle, such as a post or the like, said floor-panel structure being characterized in that each lateral longitudinal beam is constituted by a single sheet element of stell and in that said reinforced front portion of each lateral longitudinal beam is constituted by a hardened portion obtained by subjecting only the front portion of said single sheet-steel element to a thermal treatment by means of high-frequency induction heating. - a front body subassembly; - a front floor structure, including a central longitudinal tunnel; - a pair of lateral longitudinal beams, connected to the front floor structure and to the front body subassembly; and - two intermediate longitudinal beams that connect the front floor structure to the front body subassembly and that extend at intermediate areas between the lateral longitudinal beams and the central longitudinal tunnel, - wherein said lateral longitudinal beams each comprise a sheet-metal profile element having an open cross section, including a vertical wall, and a top wall and a bottom wall, which project from the vertical wall outwards, and - wherein each of said lateral longitudinal beams comprises a front portion reinforced for withstanding relatively high axial loads following upon head-on collisions of the motor vehicle, and a remaining portion of the longitudinal beam that is more ductile than said front portion so as to be more liable to collapse, thus absorbing impact energy, in the case of a collision of the respective side of the vehicle against a concentrated obstacle, such as a post or the like,
A method for the alignment of a first substrate comprising at least two first alignment marks with a second substrate comprising at least two second alignment marks, wherein - by means of a first assignment, the first alignment marks are assigned to at least two first characteristic alignment features of the first substrate in an X-direction and in a Y-direction, wherein first X- and Y-positions (X1, Y1, X2, Y2) are determined by measuring the first alignment marks in relation to the first characteristic alignment features, - by means of a second assignment, the second alignment marks are assigned to at least two second characteristic alignment features of the second substrate in an X-direction and in a Y-direction, wherein second X- and Y-positions (X1', Y1', X2', Y2') are determined by measuring the second alignment marks in relation to the second characteristic alignment features, - by means an alignment, the first and second alignment marks are aligned in relation to one another in an X- and Y-direction by means of the first and second characteristic alignment features (9, 9'), wherein the alignment of the substrates (7, 7') takes place with the aid of the first X- and Y-positions (X1, Y1, X2, Y2) and the second X- and Y-positions (X1', Y1', X2', Y2'), in such a way that the alignment marks (8, 8') are arranged congruent, wherein a transfer of the substrates (7, 7') into a bonding module takes place after the first and second assignment and before the alignment. - by means of a first assignment, the first alignment marks are assigned to at least two first characteristic alignment features of the first substrate in an X-direction and in a Y-direction, wherein first X- and Y-positions (X1, Y1, X2, Y2) are determined by measuring the first alignment marks in relation to the first characteristic alignment features, - by means of a second assignment, the second alignment marks are assigned to at least two second characteristic alignment features of the second substrate in an X-direction and in a Y-direction, wherein second X- and Y-positions (X1', Y1', X2', Y2') are determined by measuring the second alignment marks in relation to the second characteristic alignment features, - by means an alignment, the first and second alignment marks are aligned in relation to one another in an X- and Y-direction by means of the first and second characteristic alignment features (9, 9'), wherein the alignment of the substrates (7, 7') takes place with the aid of the first X- and Y-positions (X1, Y1, X2, Y2) and the second X- and Y-positions (X1', Y1', X2', Y2'), in such a way that the alignment marks (8, 8') are arranged congruent, wherein a transfer of the substrates (7, 7') into a bonding module takes place after the first and second assignment and before the alignment.
Method for estimating a path of a moving element or body using a sensor assembly, wherein said sensor assembly is mounted on the moving element or body and comprises an accelerometer and a gyrometer which are rigidly connected, comprising the following steps: - receiving acceleration values provided by the accelerometer and measured for at least two times from a plurality of successive times of a time interval, - receiving angular velocity values provided by the gyrometer and measured for at least two times from said plurality of successive times of said time interval, - processing the values provided for estimating, on the one hand, at least one angular position value using the angular velocity values and, on the other hand, at least two Cartesian position values defining a path of the moving element or body using the acceleration values and said at least one previously estimated angular position value, characterized in that it further comprises the following steps: - estimating rotation parameters, by inverting a rotational realignment model of the estimated path subject to prior knowledge of the path, wherein this prior knowledge consists of predetermined parameters of the path, and - retroactively correcting said at least one estimated angular position value, by applying a rotation on this value using the estimated rotation parameters, so as to provide at least one corrected angular position value. - receiving acceleration values provided by the accelerometer and measured for at least two times from a plurality of successive times of a time interval, - receiving angular velocity values provided by the gyrometer and measured for at least two times from said plurality of successive times of said time interval, - processing the values provided for estimating, on the one hand, at least one angular position value using the angular velocity values and, on the other hand, at least two Cartesian position values defining a path of the moving element or body using the acceleration values and said at least one previously estimated angular position value, - estimating rotation parameters, by inverting a rotational realignment model of the estimated path subject to prior knowledge of the path, wherein this prior knowledge consists of predetermined parameters of the path, and - retroactively correcting said at least one estimated angular position value, by applying a rotation on this value using the estimated rotation parameters, so as to provide at least one corrected angular position value.
Seal for a sliding door with a protective device for fingers or toes, wherein the seal is attached to at least one end-face side of a door leaf and has a seal rib like a finger in cross-section which can have a distance of less than or equal to eight, respectively five millimetres with respect to a fixed part of its surroundings, characterised in that the seal rib is received in the interior of a symmetrical hollow profile (17, 18, 19) and projects into the interior of the hollow profile (17, 18, 19) while maintaining a distance, wherein the seal rib consists of a harder rubber than the surrounding hollow profile of the seal and thus has a higher Shore hardness than comparatively the Shore hardness of the hollow profile.