mhurhangee/ep-ind-claims huggingface dataset:
A device suitable for cleaning three-dimensional components printed in a powder bed, i.e. 3D-printed components from adhering powder particles, wherein the device is designed in such a way that the 3D-printed components are cleaned with a negative pressure-induced volume flow by first removing these 3D-printed components from the powder bed after their production, then positioning them on a feeding device and moving them together with the latter into a pressure-tight sealable space, in the interior of which a negative pressure is subsequently built up and a fluid volume flow is applied to the 3D-printed component to be cleaned, whereby powder particles are detached from the 3D-printed component, which are discharged from the pressure-tight sealable space via at least one channel contour which can be subjected to negative pressure and are fed to a separating device, wherein the pressure-tight sealable space is subsequently first depressurized and then opened for removal of the cleaned 3D-printed component, wherein the device comprises at least one product carrier for receiving a 3D-printed component to be cleaned and a housing designed as a suction jet cabin, wherein the product carrier has a perforated bottom and is displaceable into the housing by means of a transport system, wherein the housing has at least one door (2, 3) which can be closed in a pressure-tight manner for inserting and removing the product carrier, wherein a platform which can be moved in a plurality of axes is arranged in the housing for receiving a 3D-printed component to be cleaned, wherein the interior of the housing is operatively connected to a device for generating a negative pressure, wherein the housing has one or more openings which can be closed in a pressure-tight manner and in each of which tubular feed lines are arranged which open into the interior of the housing and with which a volume flow can be generated in the interior of the housing, and wherein the product carrier and the interior of the housing are each connected via a collecting funnel to a line system which can be subjected to negative pressure and which is operatively connected to a separating device.
A process for the preparation of crystalline sitagliptin fumarate, comprising the steps of: a) treating fumaric acid with sitagliptin in methanol; b) partially concentrating the mixture of step a); c) treating the concentrated mixture of step b) with isopropanol at a temperature of 20°C to 35°C; and d) isolating crystalline sitagliptin fumarate. a) treating fumaric acid with sitagliptin in methanol; b) partially concentrating the mixture of step a); c) treating the concentrated mixture of step b) with isopropanol at a temperature of 20°C to 35°C; and d) isolating crystalline sitagliptin fumarate.
A system comprising: a beam shaping device (540; 589; 590) comprising a feature (544; 596, 598) configured to affect at least a portion of a light beam upon illumination by the light beam; wherein the beam shaping device (540; 589; 590) comprises a lens (542; 592; 610; 620; 630); and wherein the feature (542; 596, 598) comprises at least one of a line, a dent, or a particle formed on a surface of the lens (542; 592; 610; 620; 630) or inside the lens (542; 592; 610; 620; 630); a beam directing device (520, 530, 532) configured to direct the light beam onto the beam shaping device (540; 589; 590) at different positions, wherein the different positions comprise a location of the feature (542; 596, 598); an optical detector configured to generate a feature detection signal in response to detecting at least the portion of the light beam affected by the feature (542; 596, 598) that has been illuminated by the light beam; and a processor configured to determine a position of the light beam on the beam shaping device (540; 589; 590) at a time based, at least in part, on the feature detection signal. a beam shaping device (540; 589; 590) comprising a feature (544; 596, 598) configured to affect at least a portion of a light beam upon illumination by the light beam; wherein the beam shaping device (540; 589; 590) comprises a lens (542; 592; 610; 620; 630); and wherein the feature (542; 596, 598) comprises at least one of a line, a dent, or a particle formed on a surface of the lens (542; 592; 610; 620; 630) or inside the lens (542; 592; 610; 620; 630); wherein the beam shaping device (540; 589; 590) comprises a lens (542; 592; 610; 620; 630); and wherein the feature (542; 596, 598) comprises at least one of a line, a dent, or a particle formed on a surface of the lens (542; 592; 610; 620; 630) or inside the lens (542; 592; 610; 620; 630); a beam directing device (520, 530, 532) configured to direct the light beam onto the beam shaping device (540; 589; 590) at different positions, wherein the different positions comprise a location of the feature (542; 596, 598); an optical detector configured to generate a feature detection signal in response to detecting at least the portion of the light beam affected by the feature (542; 596, 598) that has been illuminated by the light beam; and a processor configured to determine a position of the light beam on the beam shaping device (540; 589; 590) at a time based, at least in part, on the feature detection signal.
A battery cell (100, 100', 200, 300, 400) having an electrode assembly (110, 110', 210, 310) mounted in a cell case in a state in which the electrode assembly (110, 100', 210, 310) is impregnated with an electrolyte, the cell case is a variable cell case, characterized in that the battery cell (100, 100', 200, 300, 400) is configured to be flexibly deformed in response to a shape of a device, in which the battery cell (100, 100', 200, 300, 400) is mounted, and an uppermost end electrode and/or a lowermost end electrode of the electrode assembly (110, 110', 210, 310) in a direction in which electrodes (111, 112, 111', 112', 211, 212, 311, 312) are stacked is provided on an electrode current collector thereof, facing an inner surface of the cell case, with an electrode mixture comprising inert particles (131, 131', 231, 331, 431), 10 to 100% of the inert particles (131, 131', 231, 331, 431) being distributed on a surface of the electrode mixture such that a concave-convex structure is formed in the surface of the electrode mixture facing an inner surface of the cell case. the cell case is a variable cell case, characterized in that the battery cell (100, 100', 200, 300, 400) is configured to be flexibly deformed in response to a shape of a device, in which the battery cell (100, 100', 200, 300, 400) is mounted, and an uppermost end electrode and/or a lowermost end electrode of the electrode assembly (110, 110', 210, 310) in a direction in which electrodes (111, 112, 111', 112', 211, 212, 311, 312) are stacked is provided on an electrode current collector thereof, facing an inner surface of the cell case, with an electrode mixture comprising inert particles (131, 131', 231, 331, 431), 10 to 100% of the inert particles (131, 131', 231, 331, 431) being distributed on a surface of the electrode mixture such that a concave-convex structure is formed in the surface of the electrode mixture facing an inner surface of the cell case.
An isolated DNA, the nucleotide sequence of which comprises any one of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3 or SEQ ID NO: 4 or a complement thereof.
A method of producing 6-membered cyclic carbonates comprising the steps of: a. providing a polyol and a dialkyl carbonate or a diphenyl carbonate; b. forming a mixture of a polyol and a dialkyl carbonate or a diphenyl carbonate, said mixture having a dialkyl or diphenyl carbonate to polyol ratio of 0.1-3000 wt%; c. optionally adding a solvent; d. adding an adsorbent, wherein the adsorbent to polyol ratio is 10-2000 wt%; and e. heating the mixture to a temperature of 90°C or more to obtain 6-membered cyclic carbonates; wherein no metal or enzyme catalyst is used in producing the 6-membered cyclic carbonates. a. providing a polyol and a dialkyl carbonate or a diphenyl carbonate; b. forming a mixture of a polyol and a dialkyl carbonate or a diphenyl carbonate, said mixture having a dialkyl or diphenyl carbonate to polyol ratio of 0.1-3000 wt%; c. optionally adding a solvent; d. adding an adsorbent, wherein the adsorbent to polyol ratio is 10-2000 wt%; and e. heating the mixture to a temperature of 90°C or more to obtain 6-membered cyclic carbonates;
A motor vehicle structure with a floor and two rocker panel side rails (12; 12'), the floor including two cross members (14; 16) which extend between the two side rails (12; 12') and which are intended to support the front seats of the vehicle, each of said side rails (12; 12') extending in a main direction and including: - two main profile members (20; 22) with a U-shaped cross-section, arranged with their openings opposite one another along a horizontal direction, and attached to one another; - a stiffening profile member with a U-shaped cross-section housed in the side rail (12; 12') and with tabs for attachment to the ends of the U attached to an inner lateral surface of the main profile member; and - a plurality of partitions arranged transversely in the side rail (12; 12') between the stiffening profile member and an inner lateral surface of the main profile member, characterized in that the stiffening profile member is situated on the side exterior to the floor, said partitions being situated on the side of the floor and in that at least two of said partitions are positioned in the extension of each of the two cross members (14; 16), the two ends of the stiffening profile member extending up to the level of the two cross members (14; 16), at the edge of the two partitions. - two main profile members (20; 22) with a U-shaped cross-section, arranged with their openings opposite one another along a horizontal direction, and attached to one another; - a stiffening profile member with a U-shaped cross-section housed in the side rail (12; 12') and with tabs for attachment to the ends of the U attached to an inner lateral surface of the main profile member; and - a plurality of partitions arranged transversely in the side rail (12; 12') between the stiffening profile member and an inner lateral surface of the main profile member,
A method for producing a lap web for laydown at a combing machine, wherein at least two layers of slivers one on top of the other from cans are supplied to an intake area of a lap machine, and the slivers are guided through a pre-condenser, disposed in the intake area, by means of an adjustable deflection and/or compacting and doubled to a lap web, which subsequently is guided through at least one second pre-condenser and/or through a set of pressure rolls (4a to 4c), wherein a drive device transports the lap web through the lap machine and deposits the lap web in a rectangular sliver deposit can with offset bend spots, wherein the adjustable deflection or compacting of the sliver in the pre-condenser is realized by means of at least one upper and at least one lower fixed link (11a, 12a), which are disposed offset to each other.
A vehicle steering device configured to assist and control a steering system of a vehicle by driving and controlling a motor configured to assist steering force, the vehicle steering device comprising a target steering torque generation unit (200, 201, 202) configured to generate target steering torque of the motor, wherein the target steering torque generation unit (200, 201, 202) generates target steering torque in accordance with the difference value of a torque signal in accordance with a steering angle and a vehicle speed from a value obtained by multiplying a physical quantity generated through tire slipping by a predetermined proportionality coefficient, characterized in that the target steering torque is converted into a target twist angle and in that a twist angle control unit generates a motor current control value as a control value of current supplied to the motor based on the target twist angle. the target steering torque generation unit (200, 201, 202) generates target steering torque in accordance with the difference value of a torque signal in accordance with a steering angle and a vehicle speed from a value obtained by multiplying a physical quantity generated through tire slipping by a predetermined proportionality coefficient, characterized in that the target steering torque is converted into a target twist angle and in that a twist angle control unit generates a motor current control value as a control value of current supplied to the motor based on the target twist angle.
A physical calibration slide, having a long axis along a long side and short axis along a short side, the calibration slide comprising a plurality of etched features, the plurality of etched features comprising: a first Ronchi ruling feature comprising at least one set of parallel lines that are slanted at a first angle with respect to the short axis; a second Ronchi ruling feature positioned adjacent to the first Ronchi ruling feature, the second Ronchi ruling feature comprising at least one set of parallel lines that are slanted at a second angle with respect to the short axis that is different than the first angle; a clear area positioned adjacent to the second Ronchi ruling feature; a third Ronchi ruling feature positioned adjacent to the clear area, the third Ronchi ruling feature comprising at least one set of parallel lines that are parallel to the long axis; a fourth Ronchi ruling feature positioned adjacent to the third Ronchi ruling feature, the fourth Ronchi ruling feature comprising at least one set of parallel lines that are parallel to the short axis; a star target feature comprising a circle with a plurality of wedge pairs, wherein each of the plurality of wedge pairs comprises an etched wedge and a non-etched wedge; a crosshair feature comprising at least one crosshair; a letter-O feature comprising a circle; a two-dimensional array of bullseyes, wherein each of the bullseyes comprises a circle with a dot in the centre of the circle, the array preferably comprising 1000x1000 bullseyes; and a triangle feature comprising at least one isosceles triangle. a first Ronchi ruling feature comprising at least one set of parallel lines that are slanted at a first angle with respect to the short axis; a second Ronchi ruling feature positioned adjacent to the first Ronchi ruling feature, the second Ronchi ruling feature comprising at least one set of parallel lines that are slanted at a second angle with respect to the short axis that is different than the first angle; a clear area positioned adjacent to the second Ronchi ruling feature; a third Ronchi ruling feature positioned adjacent to the clear area, the third Ronchi ruling feature comprising at least one set of parallel lines that are parallel to the long axis; a fourth Ronchi ruling feature positioned adjacent to the third Ronchi ruling feature, the fourth Ronchi ruling feature comprising at least one set of parallel lines that are parallel to the short axis; a star target feature comprising a circle with a plurality of wedge pairs, wherein each of the plurality of wedge pairs comprises an etched wedge and a non-etched wedge; a crosshair feature comprising at least one crosshair; a letter-O feature comprising a circle; a two-dimensional array of bullseyes, wherein each of the bullseyes comprises a circle with a dot in the centre of the circle, the array preferably comprising 1000x1000 bullseyes; and a triangle feature comprising at least one isosceles triangle.
A process comprising; positioning tools (530 A-F) in a well penetrating subterranean environs, said tools (530 A-F) being capable of operation in any desired sequence during hydraulic fracturing after being positioned in the well; and thereafter fracturing the subterranean environs in any desired sequence at spaced apart locations along the well penetrating the subterranean environs using the tools (530 A-F) that remain in the well during fracturing; pumping fluid through casing positioned in the well and an opening in a first tool (530 A-F) secured to the casing at a pressure sufficient to fracture a portion of subterranean environs; and pumping fluid through the casing and an opening in a second tool (530 A-F) secured to the casing at a pressure sufficient to fracture another portion of the subterranean environs, said second tool (530 A-F) being farther along the well from the surface of the earth than the first tool (530 A-F); characterised by producing fluid that is present in the subterranean environs prior to the steps of pumping into the well via said opening in said first tool (530 A-F), said opening in said second tool (530 A-F), or both of said openings in said first tool (530 A-F) and said second tool (530 A-F).
A non-addressable alarm notification device comprising: current control circuitry arranged to adaptively draw current from a supply line; an output device that is selectively activatable to draw power from the current control circuitry to generate an alert signal; and an controller configured to: obtain an input indicative of voltage on the supply line; compare the input indicative of voltage on the supply line to a predetermined threshold; and enter an under voltage prevention mode if a result of the comparison indicates that the voltage on the supply line falls below the threshold, wherein, in the under voltage prevention mode, the current drawn by the current control circuitry is clamped. current control circuitry arranged to adaptively draw current from a supply line; an output device that is selectively activatable to draw power from the current control circuitry to generate an alert signal; and an controller configured to: obtain an input indicative of voltage on the supply line; compare the input indicative of voltage on the supply line to a predetermined threshold; and enter an under voltage prevention mode if a result of the comparison indicates that the voltage on the supply line falls below the threshold, obtain an input indicative of voltage on the supply line; compare the input indicative of voltage on the supply line to a predetermined threshold; and enter an under voltage prevention mode if a result of the comparison indicates that the voltage on the supply line falls below the threshold, wherein, in the under voltage prevention mode, the current drawn by the current control circuitry is clamped.
An optical cable comprising a sheath having an inner surface defining a cavity and a plurality of modules arranged into said cavity and targeted to be parallel, said cavity having a cavity-filling ratio between 20% and 50%, each of said modules comprising: - four to twelve fibers, - a tube surrounding the fibers having a layered structure; - said tube comprises an inner layer of polymer covered with an outer layer of low friction polymer chosen from the group of fluorinated polymers and polyamide; said outer low friction polymer layer having a thickness between 0,05 and 0,15 mm; and - said module has a module-filling ratio of greater than 55% the optical cable being characterised in that said tube has a ratio between its inner (di) and outer (do) diameters between 0,45 and 0,55; and in that said inner layer of polymer of the tube is a polycarbonate layer. - four to twelve fibers, - a tube surrounding the fibers having a layered structure; - said tube comprises an inner layer of polymer covered with an outer layer of low friction polymer chosen from the group of fluorinated polymers and polyamide; said outer low friction polymer layer having a thickness between 0,05 and 0,15 mm; and - said module has a module-filling ratio of greater than 55% the optical cable being characterised in that said tube has a ratio between its inner (di) and outer (do) diameters between 0,45 and 0,55; and in that said inner layer of polymer of the tube is a polycarbonate layer.
A device for stimulating living tissue cells or nerves by individual or repeated stimulating pulses via stimulating electrodes (6, 7), the stimulating electrodes (6, 7) being contacted with living nerve cells or tissue (8, 12) being stimulated by the stimulating pulses of the stimulating electrodes (6, 7), characterized in that the device comprises an electrical circuit (1, 2, 3, 4, 5) which controls the electric voltage or the electric charge on the stimulating electrodes (6, 7) as a function of the electric voltage between the stimulating electrodes (6, 7) for reducing or equalising imbalances of electric charges on the stimulating electrodes (6, 7).
Hearing apparatus having - a housing, - a receiver which is arranged in the housing, and - a sound conductor through which sound from the receiver is conducted out of the housing, characterised by - a cover piece which is inserted into the housing such that a sound channel is formed between the receiver and the sound conductor, wherein - the sound channel is delimited at the sides by the housing and the cover piece. - a housing, - a receiver which is arranged in the housing, and - a sound conductor through which sound from the receiver is conducted out of the housing, - a cover piece which is inserted into the housing such that a sound channel is formed between the receiver and the sound conductor, wherein - the sound channel is delimited at the sides by the housing and the cover piece.
A composition comprising, on a weight basis relative to the total weight of the composition: - 5% to 20% and preferably 10% to 15% of at least one thermoplastic resin whose particles have a size of between 0.1 and 10 μm, - 1% to 20% and preferably 5% to 15% of at least one modifier, - 5% to 20% and preferably 10% to 15% of at least one plasticizer, and - 45% to 75% and preferably 50% to 70% of at least one organic solvent. - 5% to 20% and preferably 10% to 15% of at least one thermoplastic resin whose particles have a size of between 0.1 and 10 μm, - 1% to 20% and preferably 5% to 15% of at least one modifier, - 5% to 20% and preferably 10% to 15% of at least one plasticizer, and - 45% to 75% and preferably 50% to 70% of at least one organic solvent.
A device for providing resuscitation or suspended state through redistribution of cardiac output to increase supply to the brain and heart for a patient, the device comprising - an electrically or manually controllable redistribution component in the form of a catheter attachable to the patient and being configured to interact with the patient to provide redistribution of the cardiac output to increase supply to the brain and heart, the redistribution component following a predefined reaction pattern based on an electrical signal, - computer means configured to 1) receive a patient data which identifies physiological and/or anatomical characteristics of the patient; and 2) provide the electrical signal for controlling the redistribution component and/or for presenting the physiological and/or anatomical characteristics for a user based on the patient data or a standard response, and. - means for detection of blood vessels and motorized means for introduction of the catheter into an artery. - an electrically or manually controllable redistribution component in the form of a catheter attachable to the patient and being configured to interact with the patient to provide redistribution of the cardiac output to increase supply to the brain and heart, the redistribution component following a predefined reaction pattern based on an electrical signal, - computer means configured to 1) receive a patient data which identifies physiological and/or anatomical characteristics of the patient; and 2) provide the electrical signal for controlling the redistribution component and/or for presenting the physiological and/or anatomical characteristics for a user based on the patient data or a standard response, and. - means for detection of blood vessels and motorized means for introduction of the catheter into an artery.