mhurhangee/ep-ind-claims huggingface dataset:
Lighting device (1;33) for vehicles, comprising at least a LED light source and an optical system for collecting and distributing according to a desired photometric profile a light beam produced by said LED light source; wherein the optical system comprises: - a refractive lens arranged in front of the LED light source and in a distal position from the LED light source; - a collimator element arranged in a position close to, and substantially at, the LED light source and designed to concentrate the light beam in a focal point arranged between the collimator element and the refractive lens and lying on an optical axis connecting the centre line of the collimator element with the centre line of the refractive lens, which is consequently coaxial with the collimator element; - the collimator element being defined by a block of light-pervious material delimited laterally by a total internal reflection surface and frontally, at a first end directed towards the LED light source, by a first lens arranged on the optical axis and which faces an internal cavity of the block of light-pervious material, said cavity surrounding the LED light source; the block of light-pervious material defining the collimator element being further delimited, at a second end thereof opposite the first, by a second lens arranged on the optical axis, coaxial with the first lens, the second lens being directed towards and facing the refractive lens. - a refractive lens arranged in front of the LED light source and in a distal position from the LED light source; - a collimator element arranged in a position close to, and substantially at, the LED light source and designed to concentrate the light beam in a focal point arranged between the collimator element and the refractive lens and lying on an optical axis connecting the centre line of the collimator element with the centre line of the refractive lens, which is consequently coaxial with the collimator element; - the collimator element being defined by a block of light-pervious material delimited laterally by a total internal reflection surface and frontally, at a first end directed towards the LED light source, by a first lens arranged on the optical axis and which faces an internal cavity of the block of light-pervious material, said cavity surrounding the LED light source; the block of light-pervious material defining the collimator element being further delimited, at a second end thereof opposite the first, by a second lens arranged on the optical axis, coaxial with the first lens, the second lens being directed towards and facing the refractive lens.
Use of at least one first antibody which binds to the antigen Sushi domain containing protein 2 (SUSD2), or functional fragments of this at least one first antibody, in combination with at least one second antibody which binds to the antigen CD140b, or functional fragments of the at least second antibody, for the in vitro isolation of mesenchymal stem cells.
Method for operating a camera-based vehicle system, comprising a camera arranged in or on the vehicle to capture the vehicle surroundings, and also a control device to process the camera images, characterised in that, for the determination of an information-relevant image area given in at least one camera image by the control device, an image area shown in the camera image and showing a part of the vehicle is established in the camera image itself, which image area is left out of consideration within the framework of the processing of subsequently captured camera images.
An air filter medium comprising a first porous PTFE membrane and a second porous PTFE membrane, wherein the air filter medium has a first main surface and a second main surface, the first porous PTFE membrane and the second porous PTFE membrane are arranged so that an air flow moving from the first main surface to the second main surface passes through the first porous PTFE membrane and subsequently through the second porous PTFE membrane, a thickness of the first porous PTFE membrane is in the range of 4 to 40 μm, and a specific surface area of the first porous PTFE membrane is 0.5 m 2 /g or less.
A polypeptide comprising a stretch of at least 150 successive amino acids of cN-1A according to SEQ ID NO1 or a variant thereof, which polypeptide has the ability to bind specifically to an autoantibody to SEQ ID NO1 from an inclusion body myositis patient, wherein the polypeptide or the variant comprises a mutation at Aspartate 211 and the Aspartate 211 is replaced by an amino acid residue other than glutamate, wherein the variant is at least 80% identical to the sequence according to SEQ ID NO1.
Method for bringing two bodies (1, 2, 6, 7) into prescribed positions relative to one another, having the steps of: a) arranging at least one light emission apparatus of an orientation system on one of the bodies (1, 2, 6, 7) and at least one light sensing apparatus of the orientation system on one of the bodies (1, 2, 6, 7)in a prescribed manner; b) capturing at least one image of the bodies (1, 2, 6, 7) using an image capture means of a pair of data goggles of the orientation system; c) a data processing means of the data goggles determining dimensions of the bodies (1, 2, 6, 7) and respective positions of the bodies (1, 2, 6, 7) relative to one another on the basis of the captured image or a plurality of the captured images; d) registering impingement positions for a light beam emitted by the light emission apparatus on a light-sensitive area of the light sensing apparatus; e) transmitting measurement data representing the registered impingement positions to the data goggles; f) the data processing means processing the measurement data including the dimensions of the bodies (1,2,6,7), the respective positions of the bodies (1,2,6,7), relative to one another and the registered impingement positions according to step d), wherein at least one adjustment value is produced that indicates how the positions of the bodies (1, 2, 6, 7) need to be changed in order to reach the prescribed positions relative to one another; g) displaying the adjustment value on a display means of the data goggles; h) changing the positions of the bodies (1, 2, 6, 7) in accordance with the adjustment value. a) arranging at least one light emission apparatus of an orientation system on one of the bodies (1, 2, 6, 7) and at least one light sensing apparatus of the orientation system on one of the bodies (1, 2, 6, 7)in a prescribed manner; b) capturing at least one image of the bodies (1, 2, 6, 7) using an image capture means of a pair of data goggles of the orientation system; c) a data processing means of the data goggles determining dimensions of the bodies (1, 2, 6, 7) and respective positions of the bodies (1, 2, 6, 7) relative to one another on the basis of the captured image or a plurality of the captured images; d) registering impingement positions for a light beam emitted by the light emission apparatus on a light-sensitive area of the light sensing apparatus; e) transmitting measurement data representing the registered impingement positions to the data goggles; f) the data processing means processing the measurement data including the dimensions of the bodies (1,2,6,7), the respective positions of the bodies (1,2,6,7), relative to one another and the registered impingement positions according to step d), wherein at least one adjustment value is produced that indicates how the positions of the bodies (1, 2, 6, 7) need to be changed in order to reach the prescribed positions relative to one another; g) displaying the adjustment value on a display means of the data goggles; h) changing the positions of the bodies (1, 2, 6, 7) in accordance with the adjustment value.
A method, comprising: performing a drawdown of a formation fluid, comprising: contacting a fluid communication device of a formation testing tool (100, 200) with a wall of a borehole (11, 202) extending into a subterranean formation; performing a first drawdown to draw formation fluid into the fluid communication device via continuous expansion of a first volume within the formation testing tool (100, 200); detecting a breach of a mudcake on the borehole (11, 202) wall during performance of the first drawdown; performing a second drawdown to draw formation fluid into the fluid communication device in response to detecting the breach of the mudcake, wherein the second drawdown is via incremental expansion of a second volume within the formation testing tool (100, 200), wherein the second volume is less than the first volume; and confirming the breach of the mudcake on the borehole (11, 202) wall during performance of the second drawdown. performing a drawdown of a formation fluid, comprising: contacting a fluid communication device of a formation testing tool (100, 200) with a wall of a borehole (11, 202) extending into a subterranean formation; performing a first drawdown to draw formation fluid into the fluid communication device via continuous expansion of a first volume within the formation testing tool (100, 200); detecting a breach of a mudcake on the borehole (11, 202) wall during performance of the first drawdown; performing a second drawdown to draw formation fluid into the fluid communication device in response to detecting the breach of the mudcake, contacting a fluid communication device of a formation testing tool (100, 200) with a wall of a borehole (11, 202) extending into a subterranean formation; performing a first drawdown to draw formation fluid into the fluid communication device via continuous expansion of a first volume within the formation testing tool (100, 200); detecting a breach of a mudcake on the borehole (11, 202) wall during performance of the first drawdown; performing a second drawdown to draw formation fluid into the fluid communication device in response to detecting the breach of the mudcake, wherein the second drawdown is via incremental expansion of a second volume within the formation testing tool (100, 200), wherein the second volume is less than the first volume; and confirming the breach of the mudcake on the borehole (11, 202) wall during performance of the second drawdown.
A rock excavating device (22, 422, 822, 1222) comprising: a shaft (126, 926, 1326) including a first portion (138, 938, 1338) and a second portion (140, 940, 1340) connected to an end of the first portion (138, 938, 1338), the first portion (138, 938, 1338) rotatable about a first axis (142, 1342), the second portion (140, 940, 1340) extending along a second axis (144, 1344) that is oblique with respect to the first axis (142, 1342); a cutting element (102, 902, 1302) including a cutting edge, the cutting element (102, 902, 1302) supported on the second portion (140, 940) of the shaft (126, 926) and rotatable about the second axis, the cutting edge having a leading portion (218, 1418) and a trailing portion (226, 1426), the leading portion (218, 1418) configured to engage a rock surface, the trailing portion (226, 1426) spaced apart from the leading portion (218, 1418) in a direction parallel to the second axis (144, 1344), rotation of the first portion (138, 938, 1338) of the shaft (126, 926, 1326) about the first axis (142, 1342) changing the orientation of the second axis (144, 1344) and the orientation of the leading portion (218, 1418); and an exciter shaft and an eccentric mass (158, 1358) supported on the the exciter shaft, the exciter shaft positioned adjacent the first portion (138, 938, 1338) of the shaft (126, 926, 1326), and rotating about an exciter axis (174, 1374), rotation of the exciter shaft and the eccentric mass (158, 1358) inducing an oscillation of the shaft (126, 926, 1326) and the cutting element (102, 902, 1302). a shaft (126, 926, 1326) including a first portion (138, 938, 1338) and a second portion (140, 940, 1340) connected to an end of the first portion (138, 938, 1338), the first portion (138, 938, 1338) rotatable about a first axis (142, 1342), the second portion (140, 940, 1340) extending along a second axis (144, 1344) that is oblique with respect to the first axis (142, 1342); a cutting element (102, 902, 1302) including a cutting edge, the cutting element (102, 902, 1302) supported on the second portion (140, 940) of the shaft (126, 926) and rotatable about the second axis, the cutting edge having a leading portion (218, 1418) and a trailing portion (226, 1426), the leading portion (218, 1418) configured to engage a rock surface, the trailing portion (226, 1426) spaced apart from the leading portion (218, 1418) in a direction parallel to the second axis (144, 1344), rotation of the first portion (138, 938, 1338) of the shaft (126, 926, 1326) about the first axis (142, 1342) changing the orientation of the second axis (144, 1344) and the orientation of the leading portion (218, 1418); and an exciter shaft and an eccentric mass (158, 1358) supported on the the exciter shaft, the exciter shaft positioned adjacent the first portion (138, 938, 1338) of the shaft (126, 926, 1326), and rotating about an exciter axis (174, 1374), rotation of the exciter shaft and the eccentric mass (158, 1358) inducing an oscillation of the shaft (126, 926, 1326) and the cutting element (102, 902, 1302).
A method for treating a liquid fraction of a waste matter from a mammal, or for preserving nitrogen in waste matter from a mammal, the method comprising a) providing a liquid fraction of a waste matter from a mammal, said fraction being urea rich; b) allowing the fraction to settle to provide a supernatant and a sediment; c) feeding the supernatant to an evaporating unit; and d) subjecting the supernatant to an evaporating step, wherein the evaporating step takes place at a pressure below atmospheric. a) providing a liquid fraction of a waste matter from a mammal, said fraction being urea rich; b) allowing the fraction to settle to provide a supernatant and a sediment; c) feeding the supernatant to an evaporating unit; and d) subjecting the supernatant to an evaporating step, wherein the evaporating step takes place at a pressure below atmospheric.
A hearing assistance device comprising: a transceiver and processing circuitry; - a housing component containing the transceiver and processing circuitry arranged in a compact block structure; - an antenna feed element electrically connected to the transceiver; - wherein the antenna feed element is mounted on the compact block structure, an antenna element mounted integral with the housing component; wherein the antenna element and the feed element are magnetically linked together by a common magnetic flux, whereby the coupling is provided by mutual inductance and wherein the antenna element is configured as a folded dipole. - a housing component containing the transceiver and processing circuitry arranged in a compact block structure; - an antenna feed element electrically connected to the transceiver; - wherein the antenna feed element is mounted on the compact block structure, an antenna element mounted integral with the housing component; wherein the antenna element and the feed element are magnetically linked together by a common magnetic flux, whereby the coupling is provided by mutual inductance and wherein the antenna element is configured as a folded dipole.
A particle beam therapy system that is adapted to irradiate a charged particle beam, accelerated by an accelerator and scanned by a scanning electromagnet, onto an irradiation subject, the particle beam therapy system comprising: - an irradiation management apparatus that is adapted to control the scanning electromagnet, based on target irradiation position coordinates (Pi) of the charged particle beam; and - a position monitor that is adapted to measure measurement position coordinates (Ps) of the charged particle beam, wherein the irradiation management apparatus has a command value creator that is adapted to output a control input to the scanning electromagnet, based on the target irradiation position coordinates (Pi) and correction data created on the basis of the measurement position coordinates (Ps), measured by the position monitor in preliminary irradiation performed prior to the subject irradiation, in which the excitation pattern of the scanning electromagnet is the same as that of a main irradiation plan for actual irradiation of the subject, and the target irradiation position coordinates (Pi). - an irradiation management apparatus that is adapted to control the scanning electromagnet, based on target irradiation position coordinates (Pi) of the charged particle beam; and - a position monitor that is adapted to measure measurement position coordinates (Ps) of the charged particle beam, wherein the irradiation management apparatus has a command value creator that is adapted to output a control input to the scanning electromagnet, based on the target irradiation position coordinates (Pi) and correction data created on the basis of the measurement position coordinates (Ps), measured by the position monitor in preliminary irradiation performed prior to the subject irradiation, in which the excitation pattern of the scanning electromagnet is the same as that of a main irradiation plan for actual irradiation of the subject, and the target irradiation position coordinates (Pi).
A short circuit detection method, comprising: obtaining battery data associated with a state of a battery from a charging cycle of the battery; estimating an error in the battery data using an estimation model; determining a state indicator (310, 320, 330, 810, 820) corresponding to the error in the battery data; and detecting a short circuit of the battery based on a result of comparing the state indicator (310, 320, 330, 810, 820) and a short circuit threshold (311, 312, 321, 331), characterized in that, in response to the state indicator (310, 320, 330, 810, 820) being out of a confidence range, the detecting of the short circuit comprises: determining a difference indicator based on a difference between the state indicator (310, 320, 330, 810, 820) and a previous state indicator of a previous charging cycle; and detecting the short circuit of the battery based on a result of comparing the difference indicator and a difference threshold, wherein the confidence range is between a positive confidence threshold and a negative confidence threshold. obtaining battery data associated with a state of a battery from a charging cycle of the battery; estimating an error in the battery data using an estimation model; determining a state indicator (310, 320, 330, 810, 820) corresponding to the error in the battery data; and detecting a short circuit of the battery based on a result of comparing the state indicator (310, 320, 330, 810, 820) and a short circuit threshold (311, 312, 321, 331), characterized in that, in response to the state indicator (310, 320, 330, 810, 820) being out of a confidence range, the detecting of the short circuit comprises: determining a difference indicator based on a difference between the state indicator (310, 320, 330, 810, 820) and a previous state indicator of a previous charging cycle; and detecting the short circuit of the battery based on a result of comparing the difference indicator and a difference threshold, wherein the confidence range is between a positive confidence threshold and a negative confidence threshold. determining a difference indicator based on a difference between the state indicator (310, 320, 330, 810, 820) and a previous state indicator of a previous charging cycle; and detecting the short circuit of the battery based on a result of comparing the difference indicator and a difference threshold, wherein the confidence range is between a positive confidence threshold and a negative confidence threshold.
A local switching method for user plane data being of a mobile network, comprising: after being triggered, a level 1 data node judging that a direct tunnel can be established for a source User Equipment, UE, and a target UE, and in this case, establishing a direct tunnel between a source level 2 data node and a target level 2 data node for the source UE and the target UE; and after receiving an IP data packet transmitted by the source UE to the target UE, the source level 2 data node forwarding the IP data packet to the target level 2 data node through the direct tunnel between the source level 2 data node and the target level 2 data node, so that the target level 2 data node forwards the IP data packet to the target UE; wherein the triggering is that the level 1 data node receives the IP data packet transmitted by the source UE to the target UE, or receives a notification transmitted by a upper level data node that a direct tunnel is established for the source UE and the target UE; wherein whether a direct tunnel can be established for the source UE and the target UE is judged according to the following factor: judging according to an IP address of the source UE and an IP address of the target UE, or judging according to an identity and IP address of the source UE, and an identity and IP address of the target UE. after being triggered, a level 1 data node judging that a direct tunnel can be established for a source User Equipment, UE, and a target UE, and in this case, establishing a direct tunnel between a source level 2 data node and a target level 2 data node for the source UE and the target UE; and after receiving an IP data packet transmitted by the source UE to the target UE, the source level 2 data node forwarding the IP data packet to the target level 2 data node through the direct tunnel between the source level 2 data node and the target level 2 data node, so that the target level 2 data node forwards the IP data packet to the target UE; wherein the triggering is that the level 1 data node receives the IP data packet transmitted by the source UE to the target UE, or receives a notification transmitted by a upper level data node that a direct tunnel is established for the source UE and the target UE; wherein whether a direct tunnel can be established for the source UE and the target UE is judged according to the following factor: judging according to an IP address of the source UE and an IP address of the target UE, or judging according to an identity and IP address of the source UE, and an identity and IP address of the target UE. judging according to an IP address of the source UE and an IP address of the target UE, or judging according to an identity and IP address of the source UE, and an identity and IP address of the target UE.
A dual-mass flywheel having a primary side and a secondary side, which are rotatable relative to one another against a restoring torque of an energy storage device, comprising a slip clutch which serves as a secondary-side torque limiter, comprising two counter disks (12, 13) riveted to one another, which are in frictional contact with a secondary flange, and an output hub, which is coupled to the counter disks (12, 13) for transmitting a torque, and wherein the secondary flange forms the slip clutch with the two counter disks (12, 13), wherein the primary mass comprises a motor-side primary mass plate, which is connectable to a crankshaft by means of crankshaft screws via drilled holes, wherein the output hub has drilled holes through which the crankshaft screws are accessible in an installation situation of the dual-mass flywheel, wherein the output hub has a toothing, via which the output hub is coupled to the counter disks (12, 13) for transmitting the torque, and wherein the output hub is axially acted upon by a plate spring with a pressure force acting against a stop, characterized in that the toothing is in engagement with a toothing of one of the counter disks, wherein the output hub is axially acted upon by the plate spring with a pressure force acting in the direction of the primary side and in that the plate spring is supported on a retaining plate, wherein the retaining plate is fastened to the counter disks (12, 13).