mhurhangee/ep-ind-claims huggingface dataset:
Injector having an injector body and having a nozzle body with a bore which accommodates a nozzle needle, wherein the nozzle needle is movable in translational fashion in the bore and has a nozzle needle tip which interacts with a nozzle body seat, wherein the nozzle body seat is assigned at least one nozzle opening which is connected, in a manner controlled by the nozzle needle, to a high-pressure line (10, 10a) for a medium in the injector body and/or in the nozzle body, and wherein a sensor for recording a pressure profile of the medium is provided, wherein the sensor is inserted in a recess which is oriented towards the high-pressure line (10, 10a), and in that the recess is closed off, on the side averted from the high-pressure line (10, 10a), by a cover, characterized in that the sensor is preloaded under pressure between a base wall, which adjoins the high-pressure line, of the recess and the cover installed in the recess, and in that the cover is welded to the injector body, wherein, during the welding process, the sensor is preloaded between the base wall and the cover to a defined value.
A system for controlling an access to a restricted access zone in a building, comprising, a sliding door system which comprises a door frame and a sliding door which can be displaced in the door frame between a closed position and an open position by means of a drive unit, wherein the door frame has a passage region and a wall shell region which at least partially accommodates the sliding door in the open position; a controller which is arranged on the sliding door and is communicatively connected to the drive unit, wherein the controller is designed to move the sliding door between the closed position and an open position; and a light projection device which is arranged in an interior space of the sliding door and is communicatively connected to the control device, wherein the light projection device is designed to project status information predetermined by the control device onto a projection surface (27, 27a) as a visible light projection for a user who requests access to the restricted access zone, wherein the sliding door has an inner door leaf facing the restricted access zone and an outer door leaf facing away from the restricted access zone, between which the interior space extends, wherein the outer door leaf has an operating compartment extending into the interior space, wherein the light projection device is designed to radiate the light projection into the operating compartment. a sliding door system which comprises a door frame and a sliding door which can be displaced in the door frame between a closed position and an open position by means of a drive unit, wherein the door frame has a passage region and a wall shell region which at least partially accommodates the sliding door in the open position; a controller which is arranged on the sliding door and is communicatively connected to the drive unit, wherein the controller is designed to move the sliding door between the closed position and an open position; and a light projection device which is arranged in an interior space of the sliding door and is communicatively connected to the control device, wherein the light projection device is designed to project status information predetermined by the control device onto a projection surface (27, 27a) as a visible light projection for a user who requests access to the restricted access zone, wherein the sliding door has an inner door leaf facing the restricted access zone and an outer door leaf facing away from the restricted access zone, between which the interior space extends, wherein the outer door leaf has an operating compartment extending into the interior space, wherein the light projection device is designed to radiate the light projection into the operating compartment.
A device for automatically restoring a seatback, comprising: a seat cushion; a seatback installed in the seat cushion to be adjustable in angle; a seat rail installed in a floor panel of a vehicle in a length direction of the vehicle; a seat track having an upper portion, in which the seat cushion is mounted, and slidably installed in the seat rail; a seat position detection sensor installed in either the seat rail or the seat track and configured to detect a position of the seat track; a seat position detection member installed in either the seat rail or the seat track in which the seat position detection sensor is not installed and configured to operate the seat position detection sensor; and a seatback angle adjustment motor configured to adjust an angle of the seatback in response to an output signal from the seat position detection sensor, characerized in that, in response to the seat position detection sensor detecting that the seat track has reached a predetermined operating position during the seat track being moved rearward along the seat rail, the seatback angle adjustment motor is configured to deploy the seatback. a seat cushion; a seatback installed in the seat cushion to be adjustable in angle; a seat rail installed in a floor panel of a vehicle in a length direction of the vehicle; a seat track having an upper portion, in which the seat cushion is mounted, and slidably installed in the seat rail; a seat position detection sensor installed in either the seat rail or the seat track and configured to detect a position of the seat track; a seat position detection member installed in either the seat rail or the seat track in which the seat position detection sensor is not installed and configured to operate the seat position detection sensor; and a seatback angle adjustment motor configured to adjust an angle of the seatback in response to an output signal from the seat position detection sensor, characerized in that, in response to the seat position detection sensor detecting that the seat track has reached a predetermined operating position during the seat track being moved rearward along the seat rail, the seatback angle adjustment motor is configured to deploy the seatback.
A humidity control insert for retaining moisture before insertion into a package, comprising a porous nonwoven fibrous substrate and a hygroscopic powder material dispersed within the porous nonwoven fibrous substrate; wherein the hygroscopic powder material is dispersed into the porous nonwoven fibrous substrate by a dry powder impregnation process using an alternating electric field, the porous nonwoven fibrous substrate is then heated and compacted to immobilize the hygroscopic powder material within the porous nonwoven fibrous substrate; and wherein the hygroscopic powder material accounts for 1-50 wt. % of the dry weight of the humidity control insert.
Household appliance with an appliance housing, an operating apparatus with a capacitive touchscreen, comprising sensor electrodes, wherein the capacitive touchscreen is shielded from electromagnetic radiation by an electrically conductive, three-dimensional shielding structure that extends into the appliance interior and connects to the capacitive touchscreen, wherein the electrically conductive, three-dimensional shielding structure contains a plurality of shielding elements, which connect to the capacitive touchscreen, so that they are guided peripherally around the capacitive touchscreen over the edge thereof, which is embodied as a folding edge, so that a shielding structure that extends into the appliance interior can be formed.
A process for the preparation of a compound having the structure of formula wherein: - R 1 and R 2, each independently from the other, can be H, C 1 -C 8 -alkyl or C 6 -C 10 -aryl, optionally substituted with one or more halide, cyano, hydroxy or amino group(s); - one or more of R' 1 - R' 5 and of R" 1 - R" 5, each independently from the others, is selected from the group consisting of R 1, cyano, halide, -COOR 1, -CONR 1 R 2, - OCOR 1, -OCNR 1 R 2, R 1 and R 2 being as defined above, the process comprising the step of coupling the compound of formula and the compound of formula to obtain the compound of formula wherein R′′′ is phenyl bearing one or more substituent(s) independently selected from halide and -NO 2. - R 1 and R 2, each independently from the other, can be H, C 1 -C 8 -alkyl or C 6 -C 10 -aryl, optionally substituted with one or more halide, cyano, hydroxy or amino group(s); - one or more of R' 1 - R' 5 and of R" 1 - R" 5, each independently from the others, is selected from the group consisting of R 1, cyano, halide, -COOR 1, -CONR 1 R 2, - OCOR 1, -OCNR 1 R 2, R 1 and R 2 being as defined above,
A sliding bearing unit comprising: a stationary shaft that extends along a rotation axis (a) and includes a first radial bearing surface (S11a) on an outer peripheral surface; a rotor that is rotatable around the stationary shaft; and a lubricant, wherein the rotor includes: a first cylinder extending along the rotation axis (a) and formed in a tubular shape, and located surrounding the stationary shaft; and a second cylinder extending along the rotation axis (a) and formed in a tubular shape, located between the stationary shaft and the first cylinder, including a second radial bearing surface on an inner peripheral surface, and whose operation is restricted so as not to rotate relative to the first cylinder, and the lubricant is filled in a plurality of gaps between the stationary shaft, the first cylinder, and the second cylinder, and forms a dynamic pressure radial sliding bearing (Ba) together with the first radial bearing surface (S11a) and the second radial bearing surface. a stationary shaft that extends along a rotation axis (a) and includes a first radial bearing surface (S11a) on an outer peripheral surface; a rotor that is rotatable around the stationary shaft; and a lubricant, wherein the rotor includes: a first cylinder extending along the rotation axis (a) and formed in a tubular shape, and located surrounding the stationary shaft; and a second cylinder extending along the rotation axis (a) and formed in a tubular shape, located between the stationary shaft and the first cylinder, including a second radial bearing surface on an inner peripheral surface, and whose operation is restricted so as not to rotate relative to the first cylinder, and a first cylinder extending along the rotation axis (a) and formed in a tubular shape, and located surrounding the stationary shaft; and a second cylinder extending along the rotation axis (a) and formed in a tubular shape, located between the stationary shaft and the first cylinder, including a second radial bearing surface on an inner peripheral surface, and whose operation is restricted so as not to rotate relative to the first cylinder, and the lubricant is filled in a plurality of gaps between the stationary shaft, the first cylinder, and the second cylinder, and forms a dynamic pressure radial sliding bearing (Ba) together with the first radial bearing surface (S11a) and the second radial bearing surface.
A method for preparing a raw material composition adapted to be fed into the melting chamber of a facility adapted to obtain cullet, glass wool and/or rock wool, textile glass yarns, flat glass and/or hollow glass, said method being characterized in that it comprises at least one step of grinding a mineral wool mixture adapted to enter into the raw material composition, such that the granular mixture obtained after grinding has a bulk density greater than or equal to 30 kg/m3 and less than or equal to 500 kg/m3.
A method for determining the suitability of a steel wire for cold forging comprising the steps of - providing a steel wire comprising 0,1-0,5 wt% of C, 1,0 wt% or less of Si, 0,20-2,5 wt% of Mn, 0,03 wt% or less of P, and 0,03 wt% or less of S, and optionally comprising at least one component selected from among 0,05-2,0 wt% of Cr, 0,05-1,5 wt% of Mo and 0,0003-0,0050 wt% of B, with the balance being Fe and inevitable impurities and - quenching and tempering the steel wire, - determining the tensile strength of the steel wire, - determining the percent spherodization of carbides as observed by a transmission electron microscope, - determining that the steel wire is suitable for cold forging without further quenching and/or tempering and without spheroidizing annealing if it has a tensile strength in a range of 700-1.300 Mpa and percent spheroidization of carbides not less than 30%. - providing a steel wire comprising 0,1-0,5 wt% of C, 1,0 wt% or less of Si, 0,20-2,5 wt% of Mn, 0,03 wt% or less of P, and 0,03 wt% or less of S, and optionally comprising at least one component selected from among 0,05-2,0 wt% of Cr, 0,05-1,5 wt% of Mo and 0,0003-0,0050 wt% of B, with the balance being Fe and inevitable impurities and - quenching and tempering the steel wire, - determining the tensile strength of the steel wire, - determining the percent spherodization of carbides as observed by a transmission electron microscope, - determining that the steel wire is suitable for cold forging without further quenching and/or tempering and without spheroidizing annealing if it has a tensile strength in a range of 700-1.300 Mpa and percent spheroidization of carbides not less than 30%.
A flow electroporation device, the device comprising: a chamber for containing a suspension of cells to be electroporated, the chamber being at least partially defined by opposing oppositely chargeable electrodes, wherein the chamber comprises walls defining a flow channel; the walls defining the flow channel comprise a first electrode plate and a second electrode plate opposite the first electrode plate; wherein the chamber has a ratio of combined electrode surface in contact with buffer to the distance between the electrodes of approximately 8.2 to 100 cm such that, when the chamber is filled with water, the thermal resistance of the chamber is less than approximately 10 °C/W; and a gasket formed from an electrically non-conductive material and disposed between the electrode plates to maintain the electrodes in spaced-apart relation, the gasket forming opposed side walls of the flow channel, wherein the gasket forms a seal with each of the first and second electrode plates. a chamber for containing a suspension of cells to be electroporated, the chamber being at least partially defined by opposing oppositely chargeable electrodes, wherein the chamber comprises walls defining a flow channel; the walls defining the flow channel comprise a first electrode plate and a second electrode plate opposite the first electrode plate; wherein the chamber has a ratio of combined electrode surface in contact with buffer to the distance between the electrodes of approximately 8.2 to 100 cm such that, when the chamber is filled with water, the thermal resistance of the chamber is less than approximately 10 °C/W; and a gasket formed from an electrically non-conductive material and disposed between the electrode plates to maintain the electrodes in spaced-apart relation, the gasket forming opposed side walls of the flow channel, wherein the gasket forms a seal with each of the first and second electrode plates.
Polymer-modified bitumen obtainable when styrene-butadiene copolymers, optionally dissolved in oil, are admixed with the bitumen at temperatures of at least 150°C, preferably 160°C to 250°C, and subsequently the dialkyl polysulfides of formula R 1 S (x) -R 2, in which R 1 and R 2 are identical or different and represent a linear or branched C 7 -C 8 -alkyl radical and x represents numbers from 3 to 8, are admixed.
Pneumatic vehicle tyre, in particular for use in winter driving conditions, with a tread, which has at least two rows of blocks (1, 2), which are separated' from one another by a circumferential groove and are made up of blocks (1a, 2a), which are separated from one another in each case by a transverse groove (5, 7), wherein the transverse grooves in the one row of blocks are at least substantially in line with the transverse grooves in the other row of blocks, so that in each case two blocks (1a, 2a) of the two rows of blocks (1, 2) are assigned to one another and have block flanks (9c, 10c) facing one another, wherein at the periphery of the tread the block edges (9, 10) of the block flanks (9c, 10c) of the blocks (1a, 2a) that are assigned to one another run in a straight line, respectively have an increasing mutual spacing with respect to a specific circumferential direction and run oppositely inclined in relation to the circumferential direction at an acute angle (α, α'), wherein the block flanks (9c, 10c) continuously change their inclination with respect to the radial direction over their extent in the circumferential direction, wherein the block flanks (9c, 10c) form their smallest angle (β) with the radial direction at the block corners (9a, 10a) located further inwards with respect to the central circumferential line, characterized in that the angle (β) of the block flanks (9c, 10c) with respect to the radial direction is 0° to 2° at the further inwardly located block corners (9a, 10a), and is 4° to 12° at the further outwardly located block corners (9b, 10b).
A testing device for quality testing of a surface embossing of an embossing plate for the production of security documents, comprising at least one test head having a test surface on a test side, the test surface having at least one relief area which encircles at least one free volume, the at least one relief area having a surface relief which is complementary to at least one portion of a target contour of the surface embossing to be tested, and the at least one free volume being open toward the test side of the at least one test head, a vacuum generating device which is fluidly connected by the at least one test head to the at least one free volume; a measuring device which is fluidly connected to the vacuum generating device and the free volume, and an evaluation unit which is connected to the measuring device, so that when the at least one test head is in the mounted state through placement of the test surface on the at least one portion of the surface embossing to be tested, the resulting vacuum or stationary fluid flow can be determined using the measuring device during operation of the vacuum generating device, and the evaluation unit is designed to output quality information based on the determined vacuum or on the determined fluid flow. a vacuum generating device which is fluidly connected by the at least one test head to the at least one free volume; a measuring device which is fluidly connected to the vacuum generating device and the free volume, and an evaluation unit which is connected to the measuring device, so that when the at least one test head is in the mounted state through placement of the test surface on the at least one portion of the surface embossing to be tested, the resulting vacuum or stationary fluid flow can be determined using the measuring device during operation of the vacuum generating device, and the evaluation unit is designed to output quality information based on the determined vacuum or on the determined fluid flow.
A braking unit for a stairlift, wherein the stairlift comprises a guide and a braking carriage slidable on the guide, the braking carriage comprising the braking unit; wherein the braking unit comprises: a safety device which can be displaced to be engaged with the guide from a sliding condition to a safe condition, blocking a sliding of the braking carriage; a detection device, which is configured to detect a speed of the braking carriage on the guide and is connected to the safety device to cause the displacement of the safety device into the safe condition, if the speed of the braking carriage exceeds a maximum predetermined speed; wherein the safety device comprises: a safety rotor and wherein the detection device comprises: a friction rotor, moved by the sliding of the braking carriage in rotation independently from the safety rotor about a first axis of rotation and a variation mechanism acting in conjunction with and coupled with the safety rotor, which is configured for connecting in a rotationally integral manner the safety rotor and the friction rotor when the speed of the braking carriage is greater than the predetermined speed; the braking unit being characterised in that the safety rotor is configured for being rotated about a second axis of rotation, parallel to the first axis of rotation when the friction rotor and the safety rotor are connected in an integral manner, the safety device also comprising at least one tapered element fixed to the safety rotor which is configured for interposing between the friction rotor and the guide for locking the safety device in the safe condition.
A method of culturing, expanding or growing embryonic stem cells, embryonic stem-like cells or induced pluripotent stem cells on a surface, comprising: a. exposing the embryonic stem cells, embryonic stem-like cells, or induced pluripotent stem cells to a surface coated with a Muc1 or Muc1* ligand; b. adding medium; and c. culturing the exposed cells; wherein the cells remain undifferentiated. a. exposing the embryonic stem cells, embryonic stem-like cells, or induced pluripotent stem cells to a surface coated with a Muc1 or Muc1* ligand; b. adding medium; and c. culturing the exposed cells;
An attachment arrangement comprising a leaf-spring compound used as a release system especially for soil-working implements, the leaf-spring compound including several leaf springs (215, 215') with substantially identical ground plans, characterized in that the attachment arrangement comprises a coupling element, a clamping bolt, a stop element and a supporting element and in that the leaf springs (215, 215') are held together by the attachment arrangement at either end portion of the leaf springs (215, 215'), wherein each of the end portions of each leaf spring (215, 215') abuts supportingly in the coupling element and is attached to the coupling element with the clamping bolt, the stop element and the supporting element, the supporting element creating a clearance to an inner leaf spring and being positioned at least partially over a cut-out in the leaf springs (215, 215').
A chimeric protein which comprises a multi-spanning transmembrane protein fused to a FAS endodomain, wherein the multi-spanning transmembrane protein binds an extracellular ligand, leading to activation of the FAS endodomain and wherein the multi-spanning transmembrane protein comprises CD20 or a truncated version thereof lacking an amino-terminal endodomain or a carboxy-terminal endodomain.
Sole for a shoe, in particular a running shoe, where the sole consists of a an outsole and a midsole, which midsole on the side facing the outsole comprises a multiple of flex grooves crossing each other and creating pads in the midsole, and where a curved forefoot flex groove is made in the midsole, said curved forefoot flex groove emanating from the medial side of the arch and essentially following a path over one or more of the cuneiform bones and continuing between the third and fourth metatarsal phalanges, wherein the outsole consists of discrete outsole elements, and wherein the pads (26,28,30,33,35,50, 52, 54,56,62) in the midsole and the discrete outsole elements (106,108,111,114) are arranged to follow an essentially spiral curve around said curved forefoot flex groove, characterised in that said curved flex groove is continued from the start of the proximal phalanges over the third proximal phalange and continues between the first and second metatarsal phalanges in a direction towards the heel.