mhurhangee/ep-ind-claims huggingface dataset:
An expression cassette for regulating seed-specific expression in plants comprising a promoter operably linked to a nucleic acid which is heterologous in relation to said promoter and wherein said promoter is selected from the group consisting of (a) SEQ ID NO: 13and (b) a nucleotide sequence with at least 95% identity with SEQ ID NO: 13, having seed-specific promoter activity and comprising the consensus motifs m1, m2, m3, m4, m6, m7, m9, m10, m13, m14, m15, m16, m17, m18, m19, m21, m22, m24, m25, m26, m27, m28, and m29, wherein a) m1 has the sequence of SEQ ID NO: 15, b) m2 has the sequence TTTGCCA, c) m3 has the sequence of SEQ ID NO: 16, d) m4 has the sequence of SEQ ID NO: 17, e) m6 has the sequence GTAGCTTCA, f) m7 has the sequence of SEQ ID NO: 18, g) m9 has the sequence of SEQ ID NO: 19, h) m10 has the sequence of SEQ ID NO: 20, i) m13 has the sequence of SEQ ID NO: 21, j) m14 has the sequence of SEQ ID NO: 22, k) m15 has the sequence of SEQ ID NO: 23, l) m16 has the sequence CGTTCGTTA, m)m17 has the sequence TAACCGGA, n) m18 has the sequence of SEQ ID NO: 24, o) m19 has the sequence TTCATGGA, p) m21 has the sequence TAGGATC, q) m22 has the sequence TTAGATTCT, r) m24 has the sequence of SEQ ID NO: 26, s) m25 has the sequence of SEQ ID NO: 27, t) m26 has the sequence of SEQ ID NO: 28, u) m27 has the sequence of SEQ ID NO: 20, v) m28 has the sequence of SEQ ID NO: 30, and w) m29 has the sequence of SEQ ID NO: 31. a) m1 has the sequence of SEQ ID NO: 15, b) m2 has the sequence TTTGCCA, c) m3 has the sequence of SEQ ID NO: 16, d) m4 has the sequence of SEQ ID NO: 17, e) m6 has the sequence GTAGCTTCA, f) m7 has the sequence of SEQ ID NO: 18, g) m9 has the sequence of SEQ ID NO: 19, h) m10 has the sequence of SEQ ID NO: 20, i) m13 has the sequence of SEQ ID NO: 21, j) m14 has the sequence of SEQ ID NO: 22, k) m15 has the sequence of SEQ ID NO: 23, l) m16 has the sequence CGTTCGTTA, m)m17 has the sequence TAACCGGA, n) m18 has the sequence of SEQ ID NO: 24, o) m19 has the sequence TTCATGGA, p) m21 has the sequence TAGGATC, q) m22 has the sequence TTAGATTCT, r) m24 has the sequence of SEQ ID NO: 26, s) m25 has the sequence of SEQ ID NO: 27, t) m26 has the sequence of SEQ ID NO: 28, u) m27 has the sequence of SEQ ID NO: 20, v) m28 has the sequence of SEQ ID NO: 30, and w) m29 has the sequence of SEQ ID NO: 31.
A stove having a wall (102, 103, 104) with a wall opening or a recess, wherein an air passage is arranged in the wall opening or the recess and wherein the air passage has - a casing bounding an interior and having a first wall, a second wall spaced apart from the first wall, a front wall abutting on the first wall, and end walls (13, 14) abutting on the front wall and connecting the first wall to the second wall; - a first air passage opening which is formed in the casing between the first wall and the second wall and permits the entry of air into the interior or the exit of air from the interior; and - a second air passage opening which is formed in the casing in a distance from the first air passage opening and permits the entry of air into the interior or the exit of air from the interior, characterized in that the first air passage opening and the second air passage opening are arranged orthogonal to each other. - a casing bounding an interior and having a first wall, a second wall spaced apart from the first wall, a front wall abutting on the first wall, and end walls (13, 14) abutting on the front wall and connecting the first wall to the second wall; - a first air passage opening which is formed in the casing between the first wall and the second wall and permits the entry of air into the interior or the exit of air from the interior; and - a second air passage opening which is formed in the casing in a distance from the first air passage opening and permits the entry of air into the interior or the exit of air from the interior,
A user equipment for optimizing synchronization of a network, wherein the user equipment comprises: a receiver unit, configured to receive from a network entity, a disconnect reject information, wherein said disconnect reject information is received in response of a re-transmitted disconnect request associated with a set of parameters; a storage unit, configured to store said set of parameters, wherein said storing of the set of parameters is based on a deactivation of a connectivity session at said user equipment; characterized in a processing unit, configured to process a deactivate request received from the network entity, wherein said processing is based on said stored set of parameters; and a transmitter unit, configured to transmit at said network entity, a deactivate accept based on said processing of the deactivate request. a receiver unit, configured to receive from a network entity, a disconnect reject information, wherein said disconnect reject information is received in response of a re-transmitted disconnect request associated with a set of parameters; a storage unit, configured to store said set of parameters, wherein said storing of the set of parameters is based on a deactivation of a connectivity session at said user equipment; characterized in a processing unit, configured to process a deactivate request received from the network entity, wherein said processing is based on said stored set of parameters; and a transmitter unit, configured to transmit at said network entity, a deactivate accept based on said processing of the deactivate request.
Method for determining a geographical position of a camera, said method comprising: determining and registering geographical coordinates of a mobile device in the mobile device itself, presenting on a display of the mobile device a pattern representing the geographical coordinates of the mobile device, capturing by means of the camera an image of the display of the mobile device when presenting the geographical coordinates, translating in the camera the pattern in the captured image of the display of the mobile device into geographical coordinates, and determining in the camera the geographical position of the camera based on the geographical coordinates translated from the pattern in the captured image. determining and registering geographical coordinates of a mobile device in the mobile device itself, presenting on a display of the mobile device a pattern representing the geographical coordinates of the mobile device, capturing by means of the camera an image of the display of the mobile device when presenting the geographical coordinates, translating in the camera the pattern in the captured image of the display of the mobile device into geographical coordinates, and determining in the camera the geographical position of the camera based on the geographical coordinates translated from the pattern in the captured image.
A battery module, comprising: - a housing; - a stack (52, 54) of battery cells disposed in a receptacle area of the housing, each battery cell of the battery cell stack (52, 54) having a top comprising a battery cell terminal and a bottom opposite the top, wherein the stack (52, 54) of battery cells is positioned such that the top of each battery cell faces outwardly away from the receptacle area; and - an integrated sensing and bus bar subassembly positioned against the stack (52, 54) of battery cells, wherein the integrated sensing and bus bar subassembly comprises a carrier, a bus bar integrated onto the carrier, and a biasing member (110, 112, 114, 116) integrated onto the carrier; wherein, the bus bar is configured to electrically couple battery cells of the stack (52, 54) of battery cells in an electrical arrangement; wherein the biasing member (110, 112, 114, 116) is positioned between the top of each battery cell of the stack (52, 54) of battery cells and the carrier, wherein the biasing member (110, 112, 114, 116) comprises a first material that is more compliant than a second material of the carrier, and the biasing member (110, 112, 114, 116) biases the stack (52, 54) of battery cells inwardly toward the housing; and wherein the biasing member (110, 112, 114, 116) is integrated onto the carrier via a friction fit in which a projection of the carrier is positioned within a corresponding recess of the biasing member (110, 112, 114, 116). - a housing; - a stack (52, 54) of battery cells disposed in a receptacle area of the housing, each battery cell of the battery cell stack (52, 54) having a top comprising a battery cell terminal and a bottom opposite the top, wherein the stack (52, 54) of battery cells is positioned such that the top of each battery cell faces outwardly away from the receptacle area; and - an integrated sensing and bus bar subassembly positioned against the stack (52, 54) of battery cells, wherein the integrated sensing and bus bar subassembly comprises a carrier, a bus bar integrated onto the carrier, and a biasing member (110, 112, 114, 116) integrated onto the carrier; wherein, the bus bar is configured to electrically couple battery cells of the stack (52, 54) of battery cells in an electrical arrangement; wherein the biasing member (110, 112, 114, 116) is positioned between the top of each battery cell of the stack (52, 54) of battery cells and the carrier, wherein the biasing member (110, 112, 114, 116) comprises a first material that is more compliant than a second material of the carrier, and the biasing member (110, 112, 114, 116) biases the stack (52, 54) of battery cells inwardly toward the housing; and wherein the biasing member (110, 112, 114, 116) is integrated onto the carrier via a friction fit in which a projection of the carrier is positioned within a corresponding recess of the biasing member (110, 112, 114, 116).
An optical module (100, 100A, 100B, 100C, 100D, 100E, 100F) comprising: a mirror unit having a movable mirror part including a coil (11, 12); a magnet part having upper and bottom surfaces and a side surface extending from the upper surface to the bottom surface and configured to generate a magnetic field acting on the movable mirror part; and a holding member configured to hold the magnet part, wherein the magnet part has a Halbach structure including a first magnet applied with a force in a first direction toward the bottom surface from the upper surface and a second magnet (52, 53) applied with a force in a second direction toward the upper surface from the bottom surface, wherein the holding member integrally holds the magnet part against a force acting on the first magnet in the first direction and a force acting on the second magnet (52, 53) in the second direction, wherein the holding member has a restriction part supporting the upper surface of the magnet part, a bottom wall part supporting the bottom surface of the magnet part, and a side wall part supporting the side surface of the magnet part, wherein the mirror unit is supported on the upper surface by the holding member, and wherein a relaxation layer for relaxing stress from the magnet part is provided between the upper surface and the mirror unit, characterised in that the relaxation layer comes into contact with the upper surface of the magnet part, wherein the mirror unit is placed on the relaxation layer. a mirror unit having a movable mirror part including a coil (11, 12); a magnet part having upper and bottom surfaces and a side surface extending from the upper surface to the bottom surface and configured to generate a magnetic field acting on the movable mirror part; and a holding member configured to hold the magnet part, wherein the magnet part has a Halbach structure including a first magnet applied with a force in a first direction toward the bottom surface from the upper surface and a second magnet (52, 53) applied with a force in a second direction toward the upper surface from the bottom surface, wherein the holding member integrally holds the magnet part against a force acting on the first magnet in the first direction and a force acting on the second magnet (52, 53) in the second direction, wherein the holding member has a restriction part supporting the upper surface of the magnet part, a bottom wall part supporting the bottom surface of the magnet part, and a side wall part supporting the side surface of the magnet part, wherein the mirror unit is supported on the upper surface by the holding member, and wherein a relaxation layer for relaxing stress from the magnet part is provided between the upper surface and the mirror unit, characterised in that the relaxation layer comes into contact with the upper surface of the magnet part, wherein the mirror unit is placed on the relaxation layer.
Process for the production, in a plurality of substeps, of a lift belt or drive belt (1, 11) built up from a plurality of components or assemblies and consisting of elastomeric material, in which the elastomeric material is extruded, wherein, in a first substep, a first component or assembly (1a, 11a), provided with reinforcing members or cables, of the lift belt or drive belt is produced and, in further substeps, the lift belt or drive belt, which is connected to further components (1b, 1c, 11b, 11c) or provided with further layers of elastomeric material, fabric layers or reinforcing-member layers, is successively completed, and optionally said lift belt or drive belt is shaped or profiled on one or more sides, wherein the connection of the individual components of the lift belt or drive belt and its shaping and completion by further layers in the individual substeps are achieved by means of optionally profiled shaping wheels (3, 6, 9, 14, 16, 19) to which the further materials for the individual components or layers are fed and, with the aid of press-on rollers (7, 10, 17, 20) or of press-on belts (4, 15) acting on a circumferential sector of the shaping wheels, are brought together with the already produced components and connected to one another, characterized in that the individual substeps in the process follow one another such that a component processed or completed in the respectively preceding substep is fed at room temperature (Rt), after a time period of 1 to 10 minutes, preferably 2 to 5 minutes, to the subsequent substep for further processing or completion, and such that the temperature of the component does not drop below 30°C, preferably 40°C, between a respectively preceding substep and the subsequent substep, wherein the individual substeps in the process follow one another such that a component processed or completed in the respectively preceding substep is fed to the subsequent substep for further processing or completion at the latest after expiry of a time period which, starting from the maximum of 10 minutes at room temperature (Rt), is extended by a maximum of 10 minutes per 10°C temperature increase, and such that the temperature of the component does not exceed an upper limit of 100°C, preferably 80°C.
A diaphragm vacuum pump with a pump chamber, a vacuum diaphragm for generating an underpressure in the pump chamber, an electric motor with a motor shaft, a gear (6, 7. 8) and a connecting element (5, 80), wherein the gear (6, 7, 8) converts a rotational movement of the motor shaft into a cyclical, approximately linear forward and rearward movement of the connecting element (5, 80), as a result of which the connecting element (5, 80) effects a cyclical movement of the vacuum diaphragm, wherein a second rotation angle of the motor shaft effects the forward movement of the connecting element (5, 80) per cycle, characterized in that the rearward movement of the connecting element (5, 80) per cycle is effected by a first rotation angle of the motor shaft which, on account of the gear (6, 7, 8), is not of the same magnitude as a second rotation angle of the motor shaft, and that the rearward movement of the connecting element (5, 80) defines a pump stroke of the cycle that generates the underpressure in the pump chamber, and wherein the first rotation angle is greater than the second rotation angle. wherein the gear (6, 7, 8) converts a rotational movement of the motor shaft into a cyclical, approximately linear forward and rearward movement of the connecting element (5, 80), as a result of which the connecting element (5, 80) effects a cyclical movement of the vacuum diaphragm, wherein a second rotation angle of the motor shaft effects the forward movement of the connecting element (5, 80) per cycle, characterized in that the rearward movement of the connecting element (5, 80) per cycle is effected by a first rotation angle of the motor shaft which, on account of the gear (6, 7, 8), is not of the same magnitude as a second rotation angle of the motor shaft, and that the rearward movement of the connecting element (5, 80) defines a pump stroke of the cycle that generates the underpressure in the pump chamber, and wherein the first rotation angle is greater than the second rotation angle.
A kit for determining and simulating the optimal airway dilation for a person having obstructive sleep apnea, comprising a plurality of similar rectangular elements having ends and sides, each element having an indentation mid-point on one side and at least two indentations on the opposite side, said indentations determining the relative horizontal jaw position when incisors are placed in the indentations, said elements further having predetermined end dimensions to control the relative vertical jaw position, characterized in that each element includes opposing slots extending inwardly from the ends, each slot being adapted to connect with and release from a separate bite fork.
A method comprising: receiving a request, via a network and from a remote user unauthorized to access a data package, for a quality score of the data package, wherein a metric for evaluating the quality score is defined by the remote user; receiving a rule, wherein the rule is programmed to use, as input, the data package and generate, as output, the quality score, and wherein the rule is specified at least in part based on the metric; generating the quality score by executing the rule on the data package; and transmitting, via the network, the quality score and a description of the data package while blocking access by the remote user to the data package. receiving a request, via a network and from a remote user unauthorized to access a data package, for a quality score of the data package, wherein a metric for evaluating the quality score is defined by the remote user; receiving a rule, wherein the rule is programmed to use, as input, the data package and generate, as output, the quality score, and wherein the rule is specified at least in part based on the metric; generating the quality score by executing the rule on the data package; and transmitting, via the network, the quality score and a description of the data package while blocking access by the remote user to the data package.
A substrate for transplanting a tissue micrograft, the substrate comprising: a first surface and a second surface; a bioresorbable material; and an adhesive; wherein the substrate is configured to receive the tissue micrograft and be positioned at a recipient site; characterized in that the adhesive comprises a sugar. a first surface and a second surface; a bioresorbable material; and an adhesive; wherein the substrate is configured to receive the tissue micrograft and be positioned at a recipient site; characterized in that the adhesive comprises a sugar.
A heat exchange tube for a heat exchanger, whereas the heat exchange tube is a combined heat exchange tube having a space at the center, which space is used to accommodate an insert, so as to expand and joint the combined heat exchange tube in a corresponding fin hole in the heat exchanger; the combined heat exchange tube comprises at least two heat exchange sub-tubes separated from one another, and the insert is an internal expanding tube, and has a shape corresponding to the space, characterized in that a protrusion which protrudes outwards is provided on an outer surface of the internal expanding tube, with the protrusion being inserted into a gap between two adjacent heat exchange sub-tubes when expanding and jointing the heat exchange sub-tubes in the fin hole.
A method for applying an adherent sol-gel layer to a metal surface, comprising: - producing an oxide layer on a metal surface by treating the metal surface at a temperature of 600°C to 1500°C in an atmosphere having an oxygen content of 22-100 vol-%, or by means of oxygen plasma, - applying a liquid sol to the metal surface, wherein the sol contains silanes of formula Si(OR') 4-n R" n, where n = 0, 1, or 2, dissolved in a solvent, wherein each OR' independently represents a hydroxy, alkoxy, and/or cycloalkoxy functional group, and each R", if present, independently represents an alkyl and/or cycloalkyl functional group, - reacting the sol to form a gel by evaporating the solvent and curing the gel. - producing an oxide layer on a metal surface by treating the metal surface at a temperature of 600°C to 1500°C in an atmosphere having an oxygen content of 22-100 vol-%, or by means of oxygen plasma, - applying a liquid sol to the metal surface, wherein the sol contains silanes of formula Si(OR') 4-n R" n, where n = 0, 1, or 2, dissolved in a solvent, wherein each OR' independently represents a hydroxy, alkoxy, and/or cycloalkoxy functional group, and each R", if present, independently represents an alkyl and/or cycloalkyl functional group, - reacting the sol to form a gel by evaporating the solvent and curing the gel.
Sensor device for capacitive detection of a user action in a vehicle, having a sensor element which is designed as an electrical line element, the sensor element having: - an electrically conductive outer conductor element, - at least one insulation element for electrically insulating the outer conductor element, - an evaluation connection adaptation on the outer conductor element for electrically conductively connecting the outer conductor element to an evaluation device of the vehicle, whereby the detection is feasible, wherein a test connection adaptation is provided on the outer conductor element to test a functional test of the sensor device based on an electrical circuit with the outer conductor element, wherein the sensor element comprises an electrically conductive inner conductor element, and the at least one insulation element surrounds the inner conductor element for electrical insulation, wherein the inner conductor element is electrically insulated completely and on all sides. - an electrically conductive outer conductor element, - at least one insulation element for electrically insulating the outer conductor element, - an evaluation connection adaptation on the outer conductor element for electrically conductively connecting the outer conductor element to an evaluation device of the vehicle, whereby the detection is feasible, wherein a test connection adaptation is provided on the outer conductor element to test a functional test of the sensor device based on an electrical circuit with the outer conductor element, wherein the sensor element comprises an electrically conductive inner conductor element, and the at least one insulation element surrounds the inner conductor element for electrical insulation, wherein the inner conductor element is electrically insulated completely and on all sides.