mhurhangee/ep-ind-claims huggingface dataset:
A primary mirror support structure supporting a primary mirror in the manner that an EL rotation structure including two arc-shaped members facing each other and each having an outer surface for sliding along a sliding surface disposed on the lateral face of a cylinder around the EL axis rotates the primary mirror about the EL axis, characterized by comprising: - a truss structure forming a frame extending between the two arc-shaped members, below the primary mirror and connected to the arc-shaped members at the ends; and - a primary mirror support structure including multiple support members (7a, 7b), each of the multiple support members (7a, 7b) connecting one point or multiple points on the circumference of the primary mirror to the truss structure frame and making the truss structure frame bear the primary mirror's own weight so as to support the primary mirror, wherein at least the support members nearest to the arc-shaped members are connected to the truss structure frame at parts different from the ends at which the truss structure frame is connected to the arc-shaped members, so that the load from the primary mirror supported by the support members nearest to the arc-shaped members is not directly applied to the arc-shaped members, and the primary mirror's own weight is borne by the arc-shaped members via the support members (7a, 7b) and truss structure frame thus reducing the difference in sagging between the center of the primary mirror surface and the sides of the primary mirror surface. - a truss structure forming a frame extending between the two arc-shaped members, below the primary mirror and connected to the arc-shaped members at the ends; and - a primary mirror support structure including multiple support members (7a, 7b), each of the multiple support members (7a, 7b) connecting one point or multiple points on the circumference of the primary mirror to the truss structure frame and making the truss structure frame bear the primary mirror's own weight so as to support the primary mirror, wherein at least the support members nearest to the arc-shaped members are connected to the truss structure frame at parts different from the ends at which the truss structure frame is connected to the arc-shaped members, so that the load from the primary mirror supported by the support members nearest to the arc-shaped members is not directly applied to the arc-shaped members, and the primary mirror's own weight is borne by the arc-shaped members via the support members (7a, 7b) and truss structure frame thus reducing the difference in sagging between the center of the primary mirror surface and the sides of the primary mirror surface.
A connector, comprising: a tubular male housing; a female housing; and a lever which is turnably supported in one of the male housing and the female housing and is engaged with an engaging part formed in the other housing (3, 5) and slides the male housing in a direction in which the male housing is fitted into and removed from the female housing by a turning operation, wherein a first peripheral wall part is erected from the female housing, wherein the female housing is provided with a support member extending in a direction in which the male housing is fitted and removed along an outer peripheral surface of a second peripheral wall part of the male housing, and the support member is erected upward beyond an upper end of the first peripheral wall part along an outer peripheral surface of the first peripheral wall part, wherein the male housing is provided with a pair of projecting bar parts constructed by pairing projecting bar parts (53a, 53b) projecting from an outer peripheral surface of the second peripheral wall part and guide surfaces are formed by mutually parallel opposed surfaces of said projecting bar parts (53a, 53b) which are configured for guiding the support member to a space formed by the two opposed surfaces and said second peripheral wall part of the male housing. a tubular male housing; a female housing; and a lever which is turnably supported in one of the male housing and the female housing and is engaged with an engaging part formed in the other housing (3, 5) and slides the male housing in a direction in which the male housing is fitted into and removed from the female housing by a turning operation, wherein a first peripheral wall part is erected from the female housing, wherein the female housing is provided with a support member extending in a direction in which the male housing is fitted and removed along an outer peripheral surface of a second peripheral wall part of the male housing, and the support member is erected upward beyond an upper end of the first peripheral wall part along an outer peripheral surface of the first peripheral wall part, wherein the male housing is provided with a pair of projecting bar parts constructed by pairing projecting bar parts (53a, 53b) projecting from an outer peripheral surface of the second peripheral wall part and guide surfaces are formed by mutually parallel opposed surfaces of said projecting bar parts (53a, 53b) which are configured for guiding the support member to a space formed by the two opposed surfaces and said second peripheral wall part of the male housing.
A metal ceiling substructure for ceiling elements which comprise intersecting metal beams which are spaced apart from the ceiling and form a grid, wherein the metal beams are configured as main beams and crossbeams and have an inverted T section whose flange faces in the direction of the room interior, and wherein the respective points of intersection of the grid are formed by connectors (11, 60) which are arranged at the end-face ends of the crossbeams and which are latched to one another via openings in the web region of the metal beams, wherein the metal beams have an opening having a rectangular base shape, with projections (2, 3, 4, 5) respectively being arranged centrally at the short sides of the rectangle and respectively being arranged at the long sides of the rectangle at the same level in the direction of the interior of the opening, and in that the connectors (11, 60) each have splays (18, 19) at their long sides which cooperate with the projections (2, 3, 4, 5), characterized in that the projections (4, 5) are configured at the long sides in the upper region remote from the flange side, wherein reinforcement ribs (8, 8') are pressed in the web of the metal beams from at least one side surface of the web in the direction of the oppositely disposed side surface of the web.
A circuit for differential signaling comprising: a low speed transceiver; a high speed transceiver; wherein each of the signaling paths comprises: an inductor comprising first and second inductor terminals, a capacitor comprising first and second capacitor terminals; a transformer comprising a first transformer terminal of a first winding and a corresponding second transformer terminal of a second winding; and a switch comprising first and second switch terminals; wherein: the first inductor terminal is connected to a communication interface port of the low speed transceiver and the second inductor terminal is connected to the first capacitor terminal; the second capacitor terminal is connected to the first switch terminal; the second switch terminal is connected to the first transformer terminal; and the second transformer terminal is connected to a communication interface port of the high speed transceiver; and wherein a distance between the second inductor terminal and the first switch terminal is less than a twentieth of a wavelength of a low speed signal and a distance between the first capacitor terminal and the second inductor terminal is less than a tenth of a wavelength of a high speed signal. a low speed transceiver; a high speed transceiver; wherein each of the signaling paths comprises: an inductor comprising first and second inductor terminals, a capacitor comprising first and second capacitor terminals; a transformer comprising a first transformer terminal of a first winding and a corresponding second transformer terminal of a second winding; and a switch comprising first and second switch terminals; an inductor comprising first and second inductor terminals, a capacitor comprising first and second capacitor terminals; a transformer comprising a first transformer terminal of a first winding and a corresponding second transformer terminal of a second winding; and a switch comprising first and second switch terminals; the first inductor terminal is connected to a communication interface port of the low speed transceiver and the second inductor terminal is connected to the first capacitor terminal; the second capacitor terminal is connected to the first switch terminal; the second switch terminal is connected to the first transformer terminal; and the second transformer terminal is connected to a communication interface port of the high speed transceiver; and wherein a distance between the second inductor terminal and the first switch terminal is less than a twentieth of a wavelength of a low speed signal and a distance between the first capacitor terminal and the second inductor terminal is less than a tenth of a wavelength of a high speed signal.
A battery module comprising: a cell assembly provided with a plurality of secondary batteries mutually stacked in a first direction and having an electrode lead formed in a shape protruding in a second direction orthogonal to the first direction; a bus bar assembly provided with a bus bar frame (222, 224) located where the electrode lead of the cell assembly is located and having a plate-shaped body portion, and a bus bar mounted on an outer surface of the bus bar frame (222, 224) and having a conductive metal to electrically connect electrode leads of the plurality of secondary batteries to each other; an inner cover provided with a plate portion located on an outer side of the cell assembly, formed in a rectangular plate in a lying form, and a coupling portion coupled to one end portion of the body portion of the bus bar frame (222, 224) on a part of the outer peripheral portion of the plate portion; and a module housing having a tube shape with open both sides; characterized in that the plate portion is formed with a chamfer on an outer peripheral portion thereof which has a structure inclined in a direction towards the cell assembly, and the open both ends of the module housing are formed with a chamfer which has a structure inclined in a direction opposite to the cell assembly. a cell assembly provided with a plurality of secondary batteries mutually stacked in a first direction and having an electrode lead formed in a shape protruding in a second direction orthogonal to the first direction; a bus bar assembly provided with a bus bar frame (222, 224) located where the electrode lead of the cell assembly is located and having a plate-shaped body portion, and a bus bar mounted on an outer surface of the bus bar frame (222, 224) and having a conductive metal to electrically connect electrode leads of the plurality of secondary batteries to each other; an inner cover provided with a plate portion located on an outer side of the cell assembly, formed in a rectangular plate in a lying form, and a coupling portion coupled to one end portion of the body portion of the bus bar frame (222, 224) on a part of the outer peripheral portion of the plate portion; and a module housing having a tube shape with open both sides; characterized in that the plate portion is formed with a chamfer on an outer peripheral portion thereof which has a structure inclined in a direction towards the cell assembly, and the open both ends of the module housing are formed with a chamfer which has a structure inclined in a direction opposite to the cell assembly.
A computerized encoding method utilizing a lifting scheme for motion compensated temporal filtering comprising: jointly transforming a plurality of bi-directionally connected pixels using an orthonormal transform to create high-pass data corresponding to the plurality of bi-directionally connected pixels, the plurality of bi-directionally connected pixels including reference pixels from reference frames and a first set of predicted pixels from a predicted frame; and jointly transforming a plurality of uni-directionally connected pixels using the orthonormal transform to create low-pass and high-pass data corresponding to the plurality of uni-directionally connected pixels, the plurality of uni- directionally connected pixels including one of the reference pixels and a second set of predicted pixels from the predicted frame. jointly transforming a plurality of bi-directionally connected pixels using an orthonormal transform to create high-pass data corresponding to the plurality of bi-directionally connected pixels, the plurality of bi-directionally connected pixels including reference pixels from reference frames and a first set of predicted pixels from a predicted frame; and jointly transforming a plurality of uni-directionally connected pixels using the orthonormal transform to create low-pass and high-pass data corresponding to the plurality of uni-directionally connected pixels, the plurality of uni- directionally connected pixels including one of the reference pixels and a second set of predicted pixels from the predicted frame.
Pre-distancing collapsible system characterized in that it comprises at least three components of a structural frame and at least two spacers, being said spacers, not part of the supporting structure of the frame, integral with the heads of those frame components, and being said spacers foldable.
A dismounting tool for disengaging ball joint connections on suspension and steering assemblies, said dismounting tool comprising: an actuator comprising a first receiving portion and a second receiving portion, said actuator being operable to force said first and second receiving portions towards each other along an actuation axis; a first tool member comprising an anvil portion (6a, 6b) with an engaging surface (7a, 7b); a second tool member comprising a bifurcated portion (9a, 9b) with a supporting surface (10a, 10b); wherein each of said first tool member and said second tool member comprises a through hole, and wherein said first tool member and said second tool member are detachably mounted to said first receiving portion and said second receiving portion such that said through holes are arranged coaxially about said actuation axis, and such that said engaging surface faces said supporting surface; and wherein, upon actuation, said actuator is configured to move said first and second tool members towards each other along said actuation axis. an actuator comprising a first receiving portion and a second receiving portion, said actuator being operable to force said first and second receiving portions towards each other along an actuation axis; a first tool member comprising an anvil portion (6a, 6b) with an engaging surface (7a, 7b); a second tool member comprising a bifurcated portion (9a, 9b) with a supporting surface (10a, 10b); wherein each of said first tool member and said second tool member comprises a through hole, and wherein said first tool member and said second tool member are detachably mounted to said first receiving portion and said second receiving portion such that said through holes are arranged coaxially about said actuation axis, and such that said engaging surface faces said supporting surface; and wherein, upon actuation, said actuator is configured to move said first and second tool members towards each other along said actuation axis.
A tongue blank consisting of at least two flexible tongues, which are each designed to connect and lock floor panels, wherein the tongues are of an elongated shape, are made of moulded polymer material and are designed to be fixed into a groove and such that a part of the tongue is to be in and out of the groove during the vertical folding of adjacent floor panels wherein when received in the groove the tongue is bendable in a plane substantially parallel with a main plane of the floor panel, such that the tongue is at least partially resiliently displaceable in said plane, and wherein the tongues are asymmetrical in the longitudinal direction, and wherein each tongue is an essentially sine shaped tongue, either comprising two periods, and straight parts at the down periods and at the top periods, or comprising two periods with different lengths of the top periods, or comprising one period involving an asymmetric top period.
Multilayer structure for the production of a floor covering, the said multilayer structure comprising a top wearing layer which is transparent and a polymer backing layer, and a printed polymer film arranged between the wearing layer and the backing layer, characterized in that the printed polymer film has a Young's modulus greater than 1.5 GPa, and in that the wearing layer is made from polyvinyl chloride and the backing layer is a polyvinyl chloride layer made from gelified plastisol.
Method for operating at least one driver assistance system of a motor vehicle, configured for automatic longitudinal guidance of a motor vehicle, in particular an ACC system, wherein the motor vehicle further has a front sensor system comprising in particular at least one radar sensor and/or at least one laser scanner for detecting a preceding road user, at least partially also in adjacent lanes (4, 13), the sensor data of which is provided to the driver assistance system, characterised in that, during active automatic longitudinal guidance and on detecting a slower preceding road user driving in a lane (4,13) adjacent to the current lane of the motor vehicle, by evaluating the sensor data an overtaking time duration is calculated taking into account at least the current speed difference between the maximum permissible speed of said motor vehicle in the context of the longitudinal control without taking into account the detected road user and the measured speed of the detected road user, wherein when a maximum permissible overtaking time is exceeded, a longitudinal adjustment is made to a preset separation to the detected road user through the overtaking time duration as a safety condition.
Manual gearbox of a hybrid drive for a motor vehicle, having two coaxial input shafts (GE1, GE2) and a common output shaft, it being possible for the first input shaft to be connected to the drive shaft of an internal combustion engine and to be drive-connected to the output shaft via a first group of selectively shiftable gear sets (G1, G3, G5; G2, G4, G6), the second input shaft being drive-connected to the rotor (8, 8', 8") of an electric machine (EM, EM', EM") which can be operated as a motor and as a generator, and it being possible for the said second input shaft to be drive-connected to the output shaft via a second group of selectively shiftable gear sets (G2, G4; G1, G3, G5, G7), it being possible for both input shafts (GE1, GE2) to be drive-connected to one another via a switchable coupling apparatus (7.2, 7.3, 7.4, 7.5), and the first input shaft being arranged centrally, the second input shaft being configured as a hollow shaft and being arranged coaxially above the first input shaft, and the coupling apparatus (7.2, 7.3, 7.4, 7.5) comprising a transmission stage (GK, G4; GK', G7) and a switchable clutch (T, U; V, W), characterized in that the shifting clutch (T, U; V, W) of the transmission stage (GK, GK') is combined with a gear clutch of the gear set (G1, G6) of a forward gear in a common shifting package (S2b, S2c; S2d, S2e), via which the idler gear (10'; 15) of the gear set (G1; G6) of the forward gear is coupled in a first shifting position fixedly to the idler gear (11, 13; 16, 18) of the transmission stage (GK; GK') or of a gear set of the fourth forward gear so as to rotate with it, is uncoupled in a neutral position, and is coupled fixedly to the output shaft so as to rotate with it in a second shifting position.
A method of improving the water binding properties while retaining resistance of a high amylose starch which includes the steps of treating the high amylose starch at a) a temperature above its gelatinization temperature; and b) a pressure above 400 bar, wherein the time taken to carry out the treatment is from 30 to 90 minutes; and the pressure is applied by microfluidisation. a) a temperature above its gelatinization temperature; and b) a pressure above 400 bar,
A system for managing kinematic assets comprising: an identification device comprising a unique identification coupled with an asset; a kinematic asset management platform which establishes an association between said unique identification and a second unique identification of a fixed location; a first reader disposed within said fixed location for receiving said unique identification of said identification device; a first reader node coupled with said first reader, the first reader node being disposed within said fixed location which maintains an inventory comprising said asset and which reports said inventory to a kinematic asset management platform when said asset has been removed from said fixed location; a second reader disposed within a vehicle for receiving said unique identification of said identification device; and a second reader node coupled with said second reader, the second reader node being disposed within the vehicle, wherein said asset is added to a second inventory maintained by said second reader node when said asset is transferred to said vehicle and wherein said second reader node reports said second inventory to said kinematic asset management platform when said asset has been added to said second inventory, characterized in that the second reader is configured to initiate a scan for assets within the vehicle in response to detection by a door sensor of the vehicle that a door of the vehicle has been opened or in response to detection by a door sensor of the vehicle that a door of the vehicle has been closed. an identification device comprising a unique identification coupled with an asset; a kinematic asset management platform which establishes an association between said unique identification and a second unique identification of a fixed location; a first reader disposed within said fixed location for receiving said unique identification of said identification device; a first reader node coupled with said first reader, the first reader node being disposed within said fixed location which maintains an inventory comprising said asset and which reports said inventory to a kinematic asset management platform when said asset has been removed from said fixed location; a second reader disposed within a vehicle for receiving said unique identification of said identification device; and a second reader node coupled with said second reader, the second reader node being disposed within the vehicle, wherein said asset is added to a second inventory maintained by said second reader node when said asset is transferred to said vehicle and wherein said second reader node reports said second inventory to said kinematic asset management platform when said asset has been added to said second inventory, characterized in that the second reader is configured to initiate a scan for assets within the vehicle in response to detection by a door sensor of the vehicle that a door of the vehicle has been opened or in response to detection by a door sensor of the vehicle that a door of the vehicle has been closed.