mhurhangee/patent-ind-claim-en huggingface dataset:
Hand-held power tool having a tool receptacle and having a housing in which there are arranged at least one transmission unit and an electronically commutated drive motor with a stator and rotor for driving an insert tool which is arrangeable in the tool receptacle , wherein the electronically commutated drive motor is mounted in the housing via a drive shaft , wherein the transmission unit is assigned a drive-side transmission flange which at least sectionally closes off the transmission unit , wherein, at its end face facing towards the stator , the drive-side transmission flange has a receiving region for at least sectionally receiving at least one motor component assigned to the stator , characterized in that the drive-side transmission flange has a first bearing element , wherein the drive-side transmission flange is mounted on the drive shaft via the first bearing element and the first bearing element is arranged between the drive shaft and the receiving region radially in relation to the drive shaft .
A needle laser treatment system comprising: an optical cable connected to a laser beam generator to provide a laser beam generated by the laser beam generator; a hand piece having a plurality of lenses installed therein to amplify or extend the laser beam received from the optical cable; and a needle unit connected to a bottom of the hand piece to receive the laser beam through the hand piece, pass the laser beam through the skin surface, and directly irradiate the laser beam to an area of medical procedure in the skin, wherein the hand piece comprises: a focus lens through which the laser beam received from the optical cable enters; a convex lens for extending or amplifying the laser beam emitted from the focus lens; a collimate lens for emitting the laser beam emitted from the convex lens to be parallel to a traveling direction; and an optical lens unit connected to the needle unit and having a plurality of optical lenses installed therein to extend or amplify the laser beam emitted from the collimate lens and transfer the laser beam to the needle unit. an optical cable connected to a laser beam generator to provide a laser beam generated by the laser beam generator; a hand piece having a plurality of lenses installed therein to amplify or extend the laser beam received from the optical cable; and a needle unit connected to a bottom of the hand piece to receive the laser beam through the hand piece, pass the laser beam through the skin surface, and directly irradiate the laser beam to an area of medical procedure in the skin, wherein the hand piece comprises: a focus lens through which the laser beam received from the optical cable enters; a convex lens for extending or amplifying the laser beam emitted from the focus lens; a collimate lens for emitting the laser beam emitted from the convex lens to be parallel to a traveling direction; and an optical lens unit connected to the needle unit and having a plurality of optical lenses installed therein to extend or amplify the laser beam emitted from the collimate lens and transfer the laser beam to the needle unit. a focus lens through which the laser beam received from the optical cable enters; a convex lens for extending or amplifying the laser beam emitted from the focus lens; a collimate lens for emitting the laser beam emitted from the convex lens to be parallel to a traveling direction; and an optical lens unit connected to the needle unit and having a plurality of optical lenses installed therein to extend or amplify the laser beam emitted from the collimate lens and transfer the laser beam to the needle unit.
A method for operating an image cognition processing system in a vehicle to assist in vehicle control, the method comprising: receiving global positioning system, GPS, data from a GPS processing system on the vehicle that indicates a present position of the vehicle ; locating the present position in map data retrieved from a local knowledge database ; identifying an object from the map data in a path from the present position; searching for and detecting the object in a first field of view (V310) of a first image sensor on the vehicle , wherein the first image sensor is coupled to a first image cognition processor (410/510) on the vehicle ; generating tracking metadata (T402:M, T502:M) for the object, wherein the generating is performed by the first image cognition processor, and the tracking metadata describes movement of the object; determining that the object is moving toward a second field of view (V308) of a second image sensor on the vehicle , wherein the second image sensor is located adjacent to the first image sensor; providing the tracking metadata for the object to a second image cognition processor on the vehicle coupled to the second image sensor. receiving global positioning system, GPS, data from a GPS processing system on the vehicle that indicates a present position of the vehicle ; locating the present position in map data retrieved from a local knowledge database ; identifying an object from the map data in a path from the present position; searching for and detecting the object in a first field of view (V310) of a first image sensor on the vehicle , wherein the first image sensor is coupled to a first image cognition processor (410/510) on the vehicle ; generating tracking metadata (T402:M, T502:M) for the object, wherein the generating is performed by the first image cognition processor, and the tracking metadata describes movement of the object; determining that the object is moving toward a second field of view (V308) of a second image sensor on the vehicle , wherein the second image sensor is located adjacent to the first image sensor; providing the tracking metadata for the object to a second image cognition processor on the vehicle coupled to the second image sensor.
An assembly for a semiconductor pressure sensor chip, comprising: - four piezoresistive elements formed with an electrically doped channel in a layered structure in the region of a pressure diaphragm of a semiconductor substrate ; - an electrically conductive cover layer formed in the layered structure and electrically insulated from the piezoresistive elements by means of an insulating layer ; - a bridge circuit of transistors (T1, ..., T4) each formed with one of said piezoresistive elements , wherein gate electrodes of said transistors (T1, ..., T4) are formed in said electrically conductive cover layer in electrically doped layer regions which are formed separately from each other; characterized by - a signal feedback means for feeding back a balanced output signal including a positive and a negative output signal (+OUT, -OUT) at a positive and a negative output of the bridge circuit , respectively, to the gate electrodes of the transistors (T1, ..., T4) of the bridge circuit while amplifying the same. - four piezoresistive elements formed with an electrically doped channel in a layered structure in the region of a pressure diaphragm of a semiconductor substrate ; - an electrically conductive cover layer formed in the layered structure and electrically insulated from the piezoresistive elements by means of an insulating layer ; - a bridge circuit of transistors (T1, ..., T4) each formed with one of said piezoresistive elements , wherein gate electrodes of said transistors (T1, ..., T4) are formed in said electrically conductive cover layer in electrically doped layer regions which are formed separately from each other; characterized by - a signal feedback means for feeding back a balanced output signal including a positive and a negative output signal (+OUT, -OUT) at a positive and a negative output of the bridge circuit , respectively, to the gate electrodes of the transistors (T1, ..., T4) of the bridge circuit while amplifying the same.
Antenna arrangement comprising: an antenna array comprising a first antenna element including a first feed point , and a second antenna element including a second feed point , wherein the first antenna element and the second antenna element have different physical dimensions and different resonance frequencies; and a signal processing device configured to provide a first pilot signal, a 1p , to the first feed point and receive first pilot return signals, b 1p , at the first feed point and the second feed point , provide a second pilot signal, a 2p , to the second feed point and receive second pilot return signals, b 2p , at the first feed point and the second feed point , determine the electromagnetic scattering by determining corresponding scattering parameters, S 11 , S 12 , S 21 , S 22 , based on a 1p , a 2p , b 1p , and b 2p , receive an input signal, Sin, generate a first feed signal, a 1 based on Sin and a first complex weight, w 1 , and a second feed signal, a 2 based on Sin and a second complex weight, w 2 , wherein provision of a 1 to the first feed point and a 2 to the second feed point results in a first return signal, b 1 , at the first feed point and a second return signal, b 2 , at the second feed point , wherein b 1 and b 2 are determined by S 11 , S 12 , S 21 , S 22 , obtain w 1 and w 2 , and thereby a 1 and a 2 , so that the sum of b 1 and b 2 is below a predetermined threshold value, and provide a 1 to the first feed point and provide a 2 to the second feed point . a first antenna element including a first feed point , and a second antenna element including a second feed point , wherein the first antenna element and the second antenna element have different physical dimensions and different resonance frequencies; and a signal processing device configured to provide a first pilot signal, a 1p , to the first feed point and receive first pilot return signals, b 1p , at the first feed point and the second feed point , provide a second pilot signal, a 2p , to the second feed point and receive second pilot return signals, b 2p , at the first feed point and the second feed point , determine the electromagnetic scattering by determining corresponding scattering parameters, S 11 , S 12 , S 21 , S 22 , based on a 1p , a 2p , b 1p , and b 2p , receive an input signal, Sin, generate a first feed signal, a 1 based on Sin and a first complex weight, w 1 , and a second feed signal, a 2 based on Sin and a second complex weight, w 2 , wherein provision of a 1 to the first feed point and a 2 to the second feed point results in a first return signal, b 1 , at the first feed point and a second return signal, b 2 , at the second feed point , wherein b 1 and b 2 are determined by S 11 , S 12 , S 21 , S 22 , obtain w 1 and w 2 , and thereby a 1 and a 2 , so that the sum of b 1 and b 2 is below a predetermined threshold value, and provide a 1 to the first feed point and provide a 2 to the second feed point .
A patient interface for sealed delivery of a flow of air at a continuously positive pressure with respect to ambient air pressure to an entrance to the patient's airways including at least entrance of a patient's nares, wherein the patient interface is configured to maintain a therapy pressure in a range of about 4 cmH2O to about 30 cmH2O above ambient air pressure in use, throughout the patient's respiratory cycle, while the patient is sleeping, to ameliorate sleep disordered breathing; said patient interface comprising: a textile frame having a predetermined three-dimensional shape that is maintained throughout the patient's respiratory cycle; a seal-forming structure provided to the frame, the seal-forming structure configured and arranged to form a seal with the patient's nose and/or mouth; and a positioning and stabilising structure to hold the seal-forming structure in sealing position in use, at least a portion of the positioning and stabilising structure including a textile material, wherein the seal-forming structure includes a foam material and/or a textile material; and wherein the textile material of the positioning and stabilising structure is integrated or provides an interface with the seal-forming structure and/or the frame, wherein the seal-forming structure includes a nasal cushion configured and arranged to form a seal around a lower portion of the patient's nose below the patient's nasal bridge, and wherein theseal-forming structure further includes a mouth cushion configured and arranged to form a seal around at least a portion of the patient's mouth at least along the sides of the mouth and along the lower lip/chin region. a textile frame having a predetermined three-dimensional shape that is maintained throughout the patient's respiratory cycle; a seal-forming structure provided to the frame, the seal-forming structure configured and arranged to form a seal with the patient's nose and/or mouth; and a positioning and stabilising structure to hold the seal-forming structure in sealing position in use, at least a portion of the positioning and stabilising structure including a textile material, wherein the seal-forming structure includes a foam material and/or a textile material; and wherein the textile material of the positioning and stabilising structure is integrated or provides an interface with the seal-forming structure and/or the frame, wherein the seal-forming structure includes a nasal cushion configured and arranged to form a seal around a lower portion of the patient's nose below the patient's nasal bridge, and wherein theseal-forming structure further includes a mouth cushion configured and arranged to form a seal around at least a portion of the patient's mouth at least along the sides of the mouth and along the lower lip/chin region.
A method for processing a soft buffer performed by a terminal in a 3 rd generation partnership project, 3GPP, wireless communication system, the method comprising: receiving a first data of a device-to-device, D2D, communication and a second data of a downlink transmission on a physical downlink shared channel, PDSCH, wherein the first data includes at least one of D2D discovery information, a scheduling assignment, SA, for D2D communication, a D2D data of public safety, and a D2D data of non-public safety; identifying whether soft bits to be stored of the first data and the second data exceed a size of a soft buffer of the terminal; and storing the first data and the second data in the soft buffer based on a determined priority, wherein the priority is determined from a highest priority to a lowest priority as following order of the D2D data of public safety, the second data, the SA for D2D communication, the D2D data of non-public safety, the D2D discovery information, and wherein the soft buffer is released starting from a lowest priority data to a highest priority data, until there is no soft bit of data in the soft buffer with a priority lower than a priority of the data to be stored or until the soft buffer, which is unoccupied, is larger than or equal to a soft bit to be stored. receiving a first data of a device-to-device, D2D, communication and a second data of a downlink transmission on a physical downlink shared channel, PDSCH, wherein the first data includes at least one of D2D discovery information, a scheduling assignment, SA, for D2D communication, a D2D data of public safety, and a D2D data of non-public safety; identifying whether soft bits to be stored of the first data and the second data exceed a size of a soft buffer of the terminal; and storing the first data and the second data in the soft buffer based on a determined priority, wherein the priority is determined from a highest priority to a lowest priority as following order of the D2D data of public safety, the second data, the SA for D2D communication, the D2D data of non-public safety, the D2D discovery information, and wherein the soft buffer is released starting from a lowest priority data to a highest priority data, until there is no soft bit of data in the soft buffer with a priority lower than a priority of the data to be stored or until the soft buffer, which is unoccupied, is larger than or equal to a soft bit to be stored.
Switch-positioning system for accurately determining a position of a railway switch , comprising a frame (261, 262A-D) made of a rigid structure, which frame is fastenable between two rails of the switch in such a way that it extends between the two rails during use, and wherein the frame is provided with a central positioning marker , forming part of the frame which, during use, is situated on the centre line of the track which is formed by the two rails, and wherein the frame is configured to be fastened to at least one sleeper at at least two locations on either side of the two rails, and wherein the frame (261, 262A-D) is provided on either side with fastening means which are configured to connect the frame to the fastening bolts which fasten the rails to the sleeper.
An analyzer comprising: a guide-in section configured to receive an analysis kit containing a sample; a placement section configured to support the analysis kit in the guide-in section ; a light source comprising an illumination portion for illuminating light onto the sample; a presser that is configured as a separate body from the light source and is configured to press the analysis kit such that the analysis kit supported on the placement section is sandwiched between the presser and the placement section and is retained at a predetermined position; and a measurer configured to measure a component present in the sample using light illuminated from the light source onto the sample in the analysis kit placed on the placement section , wherein the light source includes: a projection configured to approach and retract from the presser ; a limiting member configured to limit a projection amount of the projection toward the analysis kit to within a specific range; and a biasing member configured to bias the projection in a projection direction of the projection from the presser . a guide-in section configured to receive an analysis kit containing a sample; a placement section configured to support the analysis kit in the guide-in section ; a light source comprising an illumination portion for illuminating light onto the sample; a presser that is configured as a separate body from the light source and is configured to press the analysis kit such that the analysis kit supported on the placement section is sandwiched between the presser and the placement section and is retained at a predetermined position; and a measurer configured to measure a component present in the sample using light illuminated from the light source onto the sample in the analysis kit placed on the placement section , wherein the light source includes: a projection configured to approach and retract from the presser ; a limiting member configured to limit a projection amount of the projection toward the analysis kit to within a specific range; and a biasing member configured to bias the projection in a projection direction of the projection from the presser . a projection configured to approach and retract from the presser ; a limiting member configured to limit a projection amount of the projection toward the analysis kit to within a specific range; and a biasing member configured to bias the projection in a projection direction of the projection from the presser .
A method of growing mono crystalline germanium crystals in a crystal growth furnace including a heating source, a plurality of heating zones, an ampoule and a crucible, the method comprising: loading raw germanium material into the crucible; sealing the crucible and the container; placing the crucible into the crystal growth furnace having a crucible support; melting the raw germanium material in the crucible to create a melt; controlling a crystallizing temperature gradient of the melt while placing the melt in contact with the seed crystal; forming a monocrystalline germanium ingot via movement of the crystallizing temperature gradient and/or the crucible relative to each other; and cooling the monocrystalline germanium ingot, wherein monocrystalline germanium ingots having a micro-pit density of greater than 0.025/cm 2 and less than 0.51/cm 2 are reproducibly provided, characterised in that the grown crystal is cooled via a vertical gradient freeze process and/or vertical Bridgman process, at a cooling rate of 3 °C /hour for the first 5 hours and of 30 °C /hour to 45 °C /hour for a remaining period of the cooling process. loading raw germanium material into the crucible; sealing the crucible and the container; placing the crucible into the crystal growth furnace having a crucible support; melting the raw germanium material in the crucible to create a melt; controlling a crystallizing temperature gradient of the melt while placing the melt in contact with the seed crystal; forming a monocrystalline germanium ingot via movement of the crystallizing temperature gradient and/or the crucible relative to each other; and cooling the monocrystalline germanium ingot, wherein monocrystalline germanium ingots having a micro-pit density of greater than 0.025/cm 2 and less than 0.51/cm 2 are reproducibly provided, characterised in that the grown crystal is cooled via a vertical gradient freeze process and/or vertical Bridgman process, at a cooling rate of 3 °C /hour for the first 5 hours and of 30 °C /hour to 45 °C /hour for a remaining period of the cooling process.
A surgical device that may be used in minimally invasive procedures comprising: a handle housing operatively coupled to a first control , a second control , and a third control ; a repositionable mechanism operatively coupled to the first control, the repositionable mechanism comprising a first component and a second component selectively repositionable, via the first control, with respect to one another within an X-Y plane, the repositionable mechanism also including a third component selectively repositionable, via the first control, with respect to the second component within an Y-Z plane; a conduit extending between the handle housing and the repositionable mechanism; an occlusion clamp ; an occlusion clamp deployment device operatively coupled to the repositionable mechanism and the second control, where the repositionable mechanism is between the conduit and the occlusion clamp deployment device, the second control including a lever repositionably mounted to the handle housing, where the lever is operatively coupled to the occlusion clamp so that repositioning of the lever is operative to open and close the occlusion clamp when operatively coupled thereto; and, wherein the third control is operatively coupled to the occlusion clamp and the occlusion clamp deployment device and controls disengagement of the occlusion clamp from the occlusion clamp deployment device. a handle housing operatively coupled to a first control , a second control , and a third control ; a repositionable mechanism operatively coupled to the first control, the repositionable mechanism comprising a first component and a second component selectively repositionable, via the first control, with respect to one another within an X-Y plane, the repositionable mechanism also including a third component selectively repositionable, via the first control, with respect to the second component within an Y-Z plane; a conduit extending between the handle housing and the repositionable mechanism; an occlusion clamp ; an occlusion clamp deployment device operatively coupled to the repositionable mechanism and the second control, where the repositionable mechanism is between the conduit and the occlusion clamp deployment device, the second control including a lever repositionably mounted to the handle housing, where the lever is operatively coupled to the occlusion clamp so that repositioning of the lever is operative to open and close the occlusion clamp when operatively coupled thereto; and, wherein the third control is operatively coupled to the occlusion clamp and the occlusion clamp deployment device and controls disengagement of the occlusion clamp from the occlusion clamp deployment device.