mhurhangee/ep-ind-claims huggingface dataset:
Holding system for mounting a photovoltaic module above a ground by means of base supports (2, 2a, 46, 46a), which comprise a support plate (4, 4a, 50, 50a) for the photovoltaic module, a base support body and a ground-side supporting surface (28, 48), which counteracts the penetration of the base supports (2, 2a, 46, 46a) into the ground, - wherein the supporting surface (28, 48) and the support plate (4, 4a, 50, 50a) of each base support (2, 2a, 46, 46a) are respectively connected to one another via the base support bodies (22, 50, 50a), - wherein the support plates (4, 4a, 50, 50a) comprise a support surface (14, 14', 14a, 14a', 54, 54', 54a, 54a') which is inclined at an angle (α) with respect to the ground, and - wherein the base supports (2, 2a, 46, 46a) are so provided and arranged in the mounting position that the support surfaces (14, 14', 14a, 14a', 54, 54', 54a, 54a') of a base support pair (2, 2a, 46, 46a) are vertical with respect to the ground and are horizontally spaced apart from each other in adaptation to the photovoltaic module and are at least substantially aligned with one another. characterized in that the support plate (4, 50) of the first base support of the base support pair (2, 2a, 46, 46a) is provided to support the edge of one or more photovoltaic modules, and comprises angled surfaces (12, 12', 52, 52') on opposing sides and respectively bent upwards at an angle (α), as a result of which the upwardly-directed support surface (14, 14', 54, 54') is formed, and wherein the support plate (4a, 50a) comprises a support surface (14a, 14a', 54a, 54a') at the head-side end of the second of the supports of the base support pair (2, 2a, 46, 46a) for the edge of one or more photovoltaic modules, which comprises angled surfaces (12, 12', 52, 52') on opposing sides respectively bent downwards at an angle (α), as a result of which the downwardly-directed support surface (14, 14', 54, 54') is formed. - wherein the supporting surface (28, 48) and the support plate (4, 4a, 50, 50a) of each base support (2, 2a, 46, 46a) are respectively connected to one another via the base support bodies (22, 50, 50a), - wherein the support plates (4, 4a, 50, 50a) comprise a support surface (14, 14', 14a, 14a', 54, 54', 54a, 54a') which is inclined at an angle (α) with respect to the ground, and - wherein the base supports (2, 2a, 46, 46a) are so provided and arranged in the mounting position that the support surfaces (14, 14', 14a, 14a', 54, 54', 54a, 54a') of a base support pair (2, 2a, 46, 46a) are vertical with respect to the ground and are horizontally spaced apart from each other in adaptation to the photovoltaic module and are at least substantially aligned with one another.
A computing system comprising: a computing platform; a non-volatile dual in-line memory module, NVDIMM, coupled to the computing platform; circuitry at a controller resident on the NVDIMM; a receive component for execution by the circuitry to receive an error scanning request; an error component for execution by the circuitry, responsive to the error scanning request, to scan a device physical address range for a non-volatile memory at the NVDIMM and identify uncorrected errors in the device physical address range, the non-volatile memory capable of providing persistent memory for the NVDIMM; and an indicate component for execution by the circuitry to indicate device physical addresses having the identified uncorrected errors to a basic input/output system, BIOS, for the computing platform; the indicate component to indicate NVDIMM specific device physical addresses having the identified uncorrected errors comprising indicating via a first data structure resident at the NVDIMM, the BIOS capable of accessing the first data structure to read the indicated device physical addresses and convert the device physical addresses to system specific system physical addresses that are then maintained in a second data structure resident on the computing platform, the second data structure being accessible to an operating system or a device driver for the computing platform. a computing platform; a non-volatile dual in-line memory module, NVDIMM, coupled to the computing platform; circuitry at a controller resident on the NVDIMM; a receive component for execution by the circuitry to receive an error scanning request; an error component for execution by the circuitry, responsive to the error scanning request, to scan a device physical address range for a non-volatile memory at the NVDIMM and identify uncorrected errors in the device physical address range, the non-volatile memory capable of providing persistent memory for the NVDIMM; and an indicate component for execution by the circuitry to indicate device physical addresses having the identified uncorrected errors to a basic input/output system, BIOS, for the computing platform; the indicate component to indicate NVDIMM specific device physical addresses having the identified uncorrected errors comprising indicating via a first data structure resident at the NVDIMM, the BIOS capable of accessing the first data structure to read the indicated device physical addresses and convert the device physical addresses to system specific system physical addresses that are then maintained in a second data structure resident on the computing platform, the second data structure being accessible to an operating system or a device driver for the computing platform.
A device for regulating the temperature of a driving module of at least one electronic component meant to be disposed inside an oven for aging said electronic component or a vacuum chamber, said driving module being configured to generate electric signals enabling the nominal operation of the electronic component, said device being configured to regulate the temperature of the driving module so as to enable its operation inside said oven in use while avoiding its premature aging or respectively its operation inside said vacuum chamber.
A laser level system, the laser level system comprising a laser level and a quick connect tool mounting bracket, the laser level comprising: a housing including a plurality of external surfaces (62, 64, 66); a first quick connect mount supported by the housing and disposed in a first orientation, the first mount being configured to removably engage the mounting bracket in the first orientation; at least one laser generator supported by the housing and configured to emit at least one laser beam; and a self-leveling mechanism supported by the housing and configured to orient the at least one laser beam in a predetermined direction relative to gravity; characterized in that the laser level further comprises a second quick connect mount supported by the housing and disposed in a second orientation that differs from the first orientation, the second quick connect mount being configured to removably engage the mounting bracket in the second orientation; and the laser level system further characterized in that: the mounting bracket includes a quick connect adapter configured to alternatively and removably engage each of the quick connect mounts so as to connect the housing to the mounting bracket; the quick connect adapter comprises one of a "T" shaped slot (70, 72) and a "T" shaped protrusion with an enlarged head; the quick connect mounts each comprise the other of the "T" shaped slot (70, 72) and the "T" shaped protrusion with the enlarged head; and the "T" shaped slot (70, 72) and "T" shaped protrusion are configured to releasably engage each other so as to provide a connection between the laser level and the mounting bracket. a housing including a plurality of external surfaces (62, 64, 66); a first quick connect mount supported by the housing and disposed in a first orientation, the first mount being configured to removably engage the mounting bracket in the first orientation; at least one laser generator supported by the housing and configured to emit at least one laser beam; and a self-leveling mechanism supported by the housing and configured to orient the at least one laser beam in a predetermined direction relative to gravity; characterized in that the laser level further comprises a second quick connect mount supported by the housing and disposed in a second orientation that differs from the first orientation, the second quick connect mount being configured to removably engage the mounting bracket in the second orientation; and the laser level system further characterized in that: the mounting bracket includes a quick connect adapter configured to alternatively and removably engage each of the quick connect mounts so as to connect the housing to the mounting bracket; the quick connect adapter comprises one of a "T" shaped slot (70, 72) and a "T" shaped protrusion with an enlarged head; the quick connect mounts each comprise the other of the "T" shaped slot (70, 72) and the "T" shaped protrusion with the enlarged head; and the "T" shaped slot (70, 72) and "T" shaped protrusion are configured to releasably engage each other so as to provide a connection between the laser level and the mounting bracket.
Thrust nozzle with a convergent wall section, a throat section and a divergent wall section, wherein - the divergent wall section has a first region adjacent to the throat section, the wall contour of which region corresponds to a truncated ideal nozzle, - the divergent wall section has a second region facing away from the throat section, which region has a wall contour deviating from the first region, characterised in that - the transition from the wall contour of the first region to the wall contour of the second region is continuous, wherein the contour angle (a) corresponding to a tangential angle to the wall, at the last point of the wall contour of the first region, corresponds to the contour angle (a) at the first point of the wall contour of the second region, and - the second region of the divergent wall section is paraboloid-shaped. - the divergent wall section has a first region adjacent to the throat section, the wall contour of which region corresponds to a truncated ideal nozzle, - the divergent wall section has a second region facing away from the throat section, which region has a wall contour deviating from the first region, characterised in that - the transition from the wall contour of the first region to the wall contour of the second region is continuous, wherein the contour angle (a) corresponding to a tangential angle to the wall, at the last point of the wall contour of the first region, corresponds to the contour angle (a) at the first point of the wall contour of the second region, and - the second region of the divergent wall section is paraboloid-shaped.
A cooking appliance, comprising a base and a cover body pivotally mounted on the base in an openable/closable manner, wherein the cooking appliance further comprises: a pivot spring provided at a pivotal connecting portion between the base and the cover body; and an attractive closing assembly comprising a first attraction closing member and a second attraction closing member, wherein one of the first attraction closing member and the second attraction closing member is provided on the base, the other of the first attraction closing member and the second attraction closing member is provided on the cover body, and the first attraction closing member and the second attraction closing member attract each other to lock the cover body on the base, wherein the attractive closing assembly is a magnetically attractive locking assembly provided on a distal end with respect to the pivotal connecting portion, wherein the magnetically attractive locking assembly comprises a magnet serving as the first attraction closing member and an iron core rod serving as the second attraction closing member; characterized in that the cooking appliance further comprises a magnetic isolation assembly comprising a magnetic isolation plate made of a magnetic isolation material and a magnetic isolation button having a return spring, and the magnetic isolation button is capable of driving the magnetic isolation plate to extend into a space between the first magnetic attraction member and the second magnetic attraction member to inhibit magnetic attraction and to open the cover body when the magnetic isolation button is in a pressed state. a pivot spring provided at a pivotal connecting portion between the base and the cover body; and an attractive closing assembly comprising a first attraction closing member and a second attraction closing member, wherein one of the first attraction closing member and the second attraction closing member is provided on the base, the other of the first attraction closing member and the second attraction closing member is provided on the cover body, and the first attraction closing member and the second attraction closing member attract each other to lock the cover body on the base, wherein the attractive closing assembly is a magnetically attractive locking assembly provided on a distal end with respect to the pivotal connecting portion, wherein the magnetically attractive locking assembly comprises a magnet serving as the first attraction closing member and an iron core rod serving as the second attraction closing member; characterized in that the cooking appliance further comprises a magnetic isolation assembly comprising a magnetic isolation plate made of a magnetic isolation material and a magnetic isolation button having a return spring, and the magnetic isolation button is capable of driving the magnetic isolation plate to extend into a space between the first magnetic attraction member and the second magnetic attraction member to inhibit magnetic attraction and to open the cover body when the magnetic isolation button is in a pressed state.
A structure comprising: a nanostructure core comprising an inorganic material; a shell comprising a lipid surrounding and attached to the nanostructure core, and an apolipoprotein; and an oligonucleotide adapted to regulate gene expression associated with an outer surface of the shell, wherein the oligonucleotide is covalently attached to cholesterol, and wherein the oligonucleotide is physisorbed onto the outer surfaceof the shell. a nanostructure core comprising an inorganic material; a shell comprising a lipid surrounding and attached to the nanostructure core, and an apolipoprotein; and an oligonucleotide adapted to regulate gene expression associated with an outer surface of the shell, wherein the oligonucleotide is covalently attached to cholesterol, and wherein the oligonucleotide is physisorbed onto the outer surfaceof the shell.
Rotational body, which has at least one encircling groove at least in portions; wherein at least one insert is fastened, or able to be fastened, in the groove; wherein the fastening takes place by a deformation of the at least one insert and/or the groove; and wherein the groove is in portions formed by an additional component which is fastened to the rotational body on the front end. which has at least one encircling groove at least in portions; wherein at least one insert is fastened, or able to be fastened, in the groove; wherein the fastening takes place by a deformation of the at least one insert and/or the groove; and wherein the groove is in portions formed by an additional component which is fastened to the rotational body on the front end.
Bucket for a work machine, comprising a plurality of walls (2, 3) defining a volume for handling material, said bucket comprising an extension plate carried in a sliding manner by said bucket configured to increase said volume from a first value to a second value while the width of said bucket remains constant, said bucket is characterized in that said sliding of said extension plate with respect to said bucket is achieved by gravity.
A method of processing a substrate, providing a substrate that displays out-gassing when placed in a vacuum, placing the substrate in a vacuum by an airlock of a multi-station system, performing an out-gassing treatment by heating the substrate to a temperature T1 and removing gaseous contamination emitted from the substrate until the out-gassing rate is determined by the diffusion of the substrate's contamination and thus essentially a steady state has been established, and afterwards lowering the temperature to a temperature T2 at which the diffusion rate of the substrate's contamination is lower than at T1, further processing the substrate at said temperature T2 until the substrate has been covered with a film comprising a metal, and moving out the substrate through the airlock of the multi-station system. providing a substrate that displays out-gassing when placed in a vacuum, placing the substrate in a vacuum by an airlock of a multi-station system, performing an out-gassing treatment by heating the substrate to a temperature T1 and removing gaseous contamination emitted from the substrate until the out-gassing rate is determined by the diffusion of the substrate's contamination and thus essentially a steady state has been established, and afterwards lowering the temperature to a temperature T2 at which the diffusion rate of the substrate's contamination is lower than at T1, further processing the substrate at said temperature T2 until the substrate has been covered with a film comprising a metal, and moving out the substrate through the airlock of the multi-station system.
Finishing station of a machine for continuously producing square pipes, apt to reduce the aperture of a square pipe during its forming, comprising a lower cylindrical roller with horizontal axis which acts as support for the lower side of the square pipe; two conical lateral rollers (2, 3) with vertical axes, adapted to be placed at the respective sides (102, 103) of the square pipe, with the conical shells in contact with these sides, and two upper conical or cylindrical rollers (4, 5), adapted to be placed above the square pipe, with the shells in contact with respective portions (104, 105) of the open upper side of the square pipe, the axes of all five rollers (1, 2, 3, 4, 5) being placed on a same vertical transverse plane of the machine, wherein said lower cylindrical roller, at least one of said lateral conical rollers (2, 3) and at least one of said upper conical or cylindrical rollers (4, 5) have a grooved base or side with a respective conical inner perimeter surface (1', 2', 3', 4', 5') apt to house the shell of an adjacent roller in order to adapt to the dimensions of the pipe to be produced.
An aerosol provision device which is configured to receive a plurality of aerosolisable materials (1, 2, 3), wherein the aerosol provision device is configured to recognise an identity and a position of the aerosolisable materials received in the device and transmit data indicating the identity and the position of the aerosolisable materials received in the device to a communication system, wherein the communication system is separate from the aerosol provision device.
An apparatus for inspecting products, in particular ampoules, bottles and the like, having means for moving the products to be inspected and having detection means for a high-voltage test for the products, wherein said apparatus has a rotatably drivable inspection carousel and at least two transport hubs (18, 20; 38, 40), characterized in that the at least two transport hubs (18, 20; 38, 40) are configured as suction hubs and the at least two transport hubs (18, 20; 38, 40) are arranged at a slant with respect to one another; and in that the products can be moved by means of at least two rotating transport hubs (18, 20; 38, 40) arranged at a slant with respect to one another and configured as suction hubs from a vertical reception position into an at least horizontal test position, and vice versa.
A method for wireless communications, comprising: identifying, based on a mapping between downlink resources and uplink resources, one or more uplink narrowband regions within a wider system bandwidth, wherein the identifying comprises identifying uplink narrowband regions in different subframes according to a frequency hopping pattern, wherein the frequency hopping pattern results in the uplink narrowband regions being fixed for a number of consecutive subframes, and wherein the frequency hopping pattern comprises a pattern in which communications hop between a pair of uplink narrowband regions; and communicating using at least one of the identified uplink narrowband regions. identifying, based on a mapping between downlink resources and uplink resources, one or more uplink narrowband regions within a wider system bandwidth, wherein the identifying comprises identifying uplink narrowband regions in different subframes according to a frequency hopping pattern, wherein the frequency hopping pattern results in the uplink narrowband regions being fixed for a number of consecutive subframes, and wherein the frequency hopping pattern comprises a pattern in which communications hop between a pair of uplink narrowband regions; and communicating using at least one of the identified uplink narrowband regions.
A composition comprising in weight percent based on the weight of the composition: A. 70 to 99 % of an ethylene/1-octene, mesophase-separated olefin multiblock copolymer comprising one or more hard segments and one or more soft segments, with a 1-octene content of at least 20 mole percent, the 1-octene located primarily in the soft segment of the copolymer with (i) a Δ octene (the difference in mole percent octene between the hard segment and the soft segment) of 22 to 45 mole percent, (ii) a melt index of 0.1 to 30 g/10 min as measured by ASTM D1238 (190°C/2.16 kg) and (iii) a density of less than 0.90 g/cc, and B. 30 to 1 % of a conductive carbon black. A. 70 to 99 % of an ethylene/1-octene, mesophase-separated olefin multiblock copolymer comprising one or more hard segments and one or more soft segments, with a 1-octene content of at least 20 mole percent, the 1-octene located primarily in the soft segment of the copolymer with (i) a Δ octene (the difference in mole percent octene between the hard segment and the soft segment) of 22 to 45 mole percent, (ii) a melt index of 0.1 to 30 g/10 min as measured by ASTM D1238 (190°C/2.16 kg) and (iii) a density of less than 0.90 g/cc, and B. 30 to 1 % of a conductive carbon black.
Upper-pan weighing machine with a weighing pan, a weighing system, the load pick-up of which is connected by an upper guide and a lower guide as parallel guide means with fixed points, which are stationary relative to a housing, of the weighing system so to be movable in vertical direction, and overload protecting means, wherein for overload protection the weighing pan is attached to a weighing pan carrier (8/9) connected with the load pick-up by way of auxiliary parallel guide means (15/16) and by way of a biased spring element (17, 18), whereby the weighing pan is rigidly coupled with the load pick-up in the permissible weighing range, but in the case of exceeding the permissible weighing range is coupled only resiliently flexibly with the load pick-up, and wherein at least one limitation abutment, which is stationary relative to the housing and which limits the resilient deflection movement of the weighing pan and the weighing pan carrier in the case of overloading, is present, characterised in that a corner load sensor is provided between the weighing pan carrier (8/9) and the load pick-up, that the corner load sensor and the overload protecting means form a common subassembly, wherein the corner load sensor is arranged downstream of the overload protecting means in the direction of force flow from the weighing pan to the load pick-up and consists of at least three perpendicular thinned-material locations to which strain gauges are applied, and that the subassembly is attached to the side of the load pick-up remote from the guides (2, 3) and extends into the space between the guides (2, 3).