mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a sulfide solid electrolyte material, comprising: a preparing process of preparing composite particles including a solid solution including a Li 2 S component, a LiBr component and a LiI component; an addition process of adding the composite particles and a phosphorus source to a reaction chamber; and a milling process in which a mechanical milling treatment is performed on the composite particles and the phosphorus source in the reaction chamber while thermal energy is applied. a preparing process of preparing composite particles including a solid solution including a Li 2 S component, a LiBr component and a LiI component; an addition process of adding the composite particles and a phosphorus source to a reaction chamber; and a milling process in which a mechanical milling treatment is performed on the composite particles and the phosphorus source in the reaction chamber while thermal energy is applied.
(Currently Amended) An apparatus for removing a needle shield from a syringe, comprising: a tubular member (502, 504, 1002, 1004) for enclosing the needle shield coupled to the syringe; one or more cap engagement mechanisms (510a, 510b, 1010a, 1010b) provided at a distal end of the tubular member and configured for engagement with a cap provided for covering a distal end of the syringe; two inwardly projecting shield engagement mechanisms (516a, 516b, 1016a, 1016b) provided at a proximal end of the tubular member and configured for engagement with the needle shield, wherein an inner diameter of the tubular member (502, 504, 1002, 1004, 1504) at the two inwardly projecting shield engagement mechanisms is less than an outer diameter of the needle shield, and the two inwardly projecting shield engagement mechanisms are configured for engagement with a gap between the needle shield and the syringe such that, when the apparatus is pulled away from the syringe, the two shield engagement mechanisms exert force against the needle shield to remove the needle shield from the syringe; two apertures (518a, 518b, 1018a, 1018b) disposed in a sidewall of the tubular member, wherein each of the two shield engagement mechanisms (516a, 516b, 1016a, 1016b) is provided in a respective one of the two apertures; and two cutout portions (526a, 526b, 1026a, 1026b) formed in the sidewall of the tubular member and circumferentially disposed in an alternating manner with the two apertures (518a, 518b, 1018a, 1018b) about the tubular member. a tubular member (502, 504, 1002, 1004) for enclosing the needle shield coupled to the syringe; one or more cap engagement mechanisms (510a, 510b, 1010a, 1010b) provided at a distal end of the tubular member and configured for engagement with a cap provided for covering a distal end of the syringe; two inwardly projecting shield engagement mechanisms (516a, 516b, 1016a, 1016b) provided at a proximal end of the tubular member and configured for engagement with the needle shield, wherein an inner diameter of the tubular member (502, 504, 1002, 1004, 1504) at the two inwardly projecting shield engagement mechanisms is less than an outer diameter of the needle shield, and the two inwardly projecting shield engagement mechanisms are configured for engagement with a gap between the needle shield and the syringe such that, when the apparatus is pulled away from the syringe, the two shield engagement mechanisms exert force against the needle shield to remove the needle shield from the syringe; two apertures (518a, 518b, 1018a, 1018b) disposed in a sidewall of the tubular member, wherein each of the two shield engagement mechanisms (516a, 516b, 1016a, 1016b) is provided in a respective one of the two apertures; and two cutout portions (526a, 526b, 1026a, 1026b) formed in the sidewall of the tubular member and circumferentially disposed in an alternating manner with the two apertures (518a, 518b, 1018a, 1018b) about the tubular member.
A system, comprising: - a lifting device for lifting a motor vehicle; - a support structure for mounting the lifting device in a pit; - a carriage for supporting the lifting device from the support structure and being movable within the support structure; and - a cover coupled to opposite sides of the carriage so that the cover extends away from the carriage and continuously between the opposite sides of the carriage, wherein the lifting device is capable of moving between an extended position in which a portion of the lifting device extends from the support structure; and a retracted position in which a substantial entirety of the lifting device is positioned within the support structure, and the cover translates in response to movement of the carriage so that the lift can be moved between the extended and retracted positions at any location within a range of travel of the carriage within the support structure, characterized in that the lifting device comprises: - a base; - a first leg pivotably coupled to the base; - a first leg leaf pivotally coupled to the base and the first leg; - a second leg pivotally coupled to a bolster or a third tier; - a second leg leaf pivotally coupled to the bolster or the third tier and the second leg, wherein the second leg is coupled to one of the first leg and the first leg leaf, and the second leg leaf is coupled to the other of the first leg and the first leg leaf so that pivotal movement of the first leg in relation to the first leg leaf and pivotal movement of the second leg in relation to the second leg leaf causes the bolster or third tier to rise and lower in relation to the base. - a lifting device for lifting a motor vehicle; - a support structure for mounting the lifting device in a pit; - a carriage for supporting the lifting device from the support structure and being movable within the support structure; and - a cover coupled to opposite sides of the carriage so that the cover extends away from the carriage and continuously between the opposite sides of the carriage, - a base; - a first leg pivotably coupled to the base; - a first leg leaf pivotally coupled to the base and the first leg; - a second leg pivotally coupled to a bolster or a third tier; - a second leg leaf pivotally coupled to the bolster or the third tier and the second leg, wherein the second leg is coupled to one of the first leg and the first leg leaf, and the second leg leaf is coupled to the other of the first leg and the first leg leaf so that pivotal movement of the first leg in relation to the first leg leaf and pivotal movement of the second leg in relation to the second leg leaf causes the bolster or third tier to rise and lower in relation to the base.
A method of enhancing crops in increasing tolerance and/or resistance to abiotic stress factors, by applying to the plants, plant parts, plant propagation material, or a plant growing locus, a compound of formula I
A system comprising: a radiation source; a marker; a first image sensor; and a second image sensor; wherein the first image sensor is configured to capture images of the marker; wherein the second image sensor is configured to move between a first position relative to the radiation source and a second position relative to the radiation source; wherein the second image sensor is configured to capture, with radiation from the radiation source, a first set of images of portions of a scene when the second image sensor is at the first position relative to the radiation source; wherein the second image sensor is configured to capture, with the radiation from the radiation source, a second set of images of portions of the scene when the second image sensor is at the second position relative to the radiation source; wherein the second image sensor and the radiation source are configured to collectively rotate relative to the scene; wherein the second image sensor is configured to form an image of the scene by selecting an image from the first set based on the images of the marker and selecting an image from the second set based on the images of the marker, and configured to stitch the image selected from the first set and the image selected from the second set. a radiation source; a marker; a first image sensor; and a second image sensor; wherein the first image sensor is configured to capture images of the marker; wherein the second image sensor is configured to move between a first position relative to the radiation source and a second position relative to the radiation source; wherein the second image sensor is configured to capture, with radiation from the radiation source, a first set of images of portions of a scene when the second image sensor is at the first position relative to the radiation source; wherein the second image sensor is configured to capture, with the radiation from the radiation source, a second set of images of portions of the scene when the second image sensor is at the second position relative to the radiation source; wherein the second image sensor and the radiation source are configured to collectively rotate relative to the scene; wherein the second image sensor is configured to form an image of the scene by selecting an image from the first set based on the images of the marker and selecting an image from the second set based on the images of the marker, and configured to stitch the image selected from the first set and the image selected from the second set.
A wholly aromatic liquid crystalline polyester resin comprising, structural unit derived from 6-hydroxy-2-naphthoic acid, structural unit derived from an aromatic diol compound, structural unit derived from an aromatic dicarboxylic compound, wherein structural unit comprises structural unit (III A) derived from terephthalic acid, structural unit (III B) derived from 2,6-naphthalene dicarboxylic acid and structural unit (III C) derived from isophthalic acid, wherein the composition ratio (mol %) of said structural units is characterized by satisfying the following conditions: 45 mol % ≤ structural unit I ≤ 75 mol % 12 mol % ≤ structural unit II ≤ 30 mol % 3 mol % ≤ structural unit III A ≤ 28 mol % 2 mol % ≤ structural unit III B ≤ 9 mol % 0 mol % ≤ structural unit III C < 5 mol % wherein the wholly aromatic liquid crystalline polyester resin has a dielectric tangent in measurement frequency 10 GHz as measured according to the description of 0.85 × 10 -3 or less, and wherein the wholly aromatic liquid crystalline polyester resin has a melt tensile force according to the description of 3 mN or more. structural unit derived from 6-hydroxy-2-naphthoic acid, structural unit derived from an aromatic diol compound, structural unit derived from an aromatic dicarboxylic compound, wherein structural unit comprises structural unit (III A) derived from terephthalic acid, structural unit (III B) derived from 2,6-naphthalene dicarboxylic acid and structural unit (III C) derived from isophthalic acid, wherein the composition ratio (mol %) of said structural units is characterized by satisfying the following conditions: 45 mol % ≤ structural unit I ≤ 75 mol % 12 mol % ≤ structural unit II ≤ 30 mol % 3 mol % ≤ structural unit III A ≤ 28 mol % 2 mol % ≤ structural unit III B ≤ 9 mol % 0 mol % ≤ structural unit III C < 5 mol % wherein the wholly aromatic liquid crystalline polyester resin has a dielectric tangent in measurement frequency 10 GHz as measured according to the description of 0.85 × 10 -3 or less, and wherein the wholly aromatic liquid crystalline polyester resin has a melt tensile force according to the description of 3 mN or more.
An intraoral sensor for intraoral X-ray imaging, comprising: a sensor panel for generating electric signals from X-rays; a first case for covering a side of the sensor panel on which the X-rays are incident; and a housing for covering the sensor panel and the first case; characterized in that the intraoral sensor further comprises: an elasticity adjustment member covering a side of the sensor panel that is opposite a side on which the X-ray incident; and a flexible printed circuit board covering the elasticity adjustment member, wherein the intraoral sensor is bendable along an intraoral structure during an intraoral X-ray imaging, and has a first area corresponding to a center part along a major axis and a second area corresponding to remaining parts at both ends of the major axis, the first area and the second area are bending to different extents, wherein the elasticity adjustment member is formed to have greater bendability along the major axis of the intraoral sensor than along the minor axis. a sensor panel for generating electric signals from X-rays; a first case for covering a side of the sensor panel on which the X-rays are incident; and a housing for covering the sensor panel and the first case; characterized in that the intraoral sensor further comprises: an elasticity adjustment member covering a side of the sensor panel that is opposite a side on which the X-ray incident; and a flexible printed circuit board covering the elasticity adjustment member, wherein the intraoral sensor is bendable along an intraoral structure during an intraoral X-ray imaging, and has a first area corresponding to a center part along a major axis and a second area corresponding to remaining parts at both ends of the major axis, the first area and the second area are bending to different extents, wherein the elasticity adjustment member is formed to have greater bendability along the major axis of the intraoral sensor than along the minor axis. an elasticity adjustment member covering a side of the sensor panel that is opposite a side on which the X-ray incident; and a flexible printed circuit board covering the elasticity adjustment member, wherein the intraoral sensor is bendable along an intraoral structure during an intraoral X-ray imaging, and has a first area corresponding to a center part along a major axis and a second area corresponding to remaining parts at both ends of the major axis, the first area and the second area are bending to different extents, wherein the elasticity adjustment member is formed to have greater bendability along the major axis of the intraoral sensor than along the minor axis.
A system for providing regulated flow of oxygen, for a pilot or a cockpit crew member on an aircraft, comprising: a first on-board oxygen supplier configured to rapidly supply oxygen; a second on-board oxygen supplier configured to supply oxygen; and a controller configured to control the first on-board oxygen supplier and the second on-board oxygen supplier, the system being characterized by: a pulsed oxygen delivery subsystem connected to the first on-board oxygen supplier by a first feed line and connected to the second on-board oxygen supplier by a second feed line and configured to receive oxygen supplied by said first on-board oxygen supplier and said second on-board oxygen supplier; a first sensor disposed in said first feed line connected between said first on-board oxygen supplier and said pulsed oxygen delivery subsystem; a second sensor disposed in said second feed line connected between said second on-board oxygen supplier and said pulsed oxygen delivery subsystem; and wherein said first on-board oxygen supplier includes a combination of a pressurized oxygen cylinder and a chemical oxygen generator, and said second on-board oxygen supplier includes a molecular sieve oxygen generator. a first on-board oxygen supplier configured to rapidly supply oxygen; a second on-board oxygen supplier configured to supply oxygen; and a controller configured to control the first on-board oxygen supplier and the second on-board oxygen supplier, the system being characterized by: a pulsed oxygen delivery subsystem connected to the first on-board oxygen supplier by a first feed line and connected to the second on-board oxygen supplier by a second feed line and configured to receive oxygen supplied by said first on-board oxygen supplier and said second on-board oxygen supplier; a first sensor disposed in said first feed line connected between said first on-board oxygen supplier and said pulsed oxygen delivery subsystem; a second sensor disposed in said second feed line connected between said second on-board oxygen supplier and said pulsed oxygen delivery subsystem; and wherein said first on-board oxygen supplier includes a combination of a pressurized oxygen cylinder and a chemical oxygen generator, and said second on-board oxygen supplier includes a molecular sieve oxygen generator. a pulsed oxygen delivery subsystem connected to the first on-board oxygen supplier by a first feed line and connected to the second on-board oxygen supplier by a second feed line and configured to receive oxygen supplied by said first on-board oxygen supplier and said second on-board oxygen supplier; a first sensor disposed in said first feed line connected between said first on-board oxygen supplier and said pulsed oxygen delivery subsystem; a second sensor disposed in said second feed line connected between said second on-board oxygen supplier and said pulsed oxygen delivery subsystem; and wherein said first on-board oxygen supplier includes a combination of a pressurized oxygen cylinder and a chemical oxygen generator, and said second on-board oxygen supplier includes a molecular sieve oxygen generator.
A power control method for calculating a duty command value to be used for a PWM control, and applying a PWM voltage to a load by driving an inverter based on the PWM signal, comprising correcting the duty command value depending on whether a strength of a carrier signal is increasing or decreasing and generating a PWM signal (P uu; P ul) corresponding to a comparison result between the corrected duty command value and a carrier signal, characterized by - obtaining a compensation amount according to a phase shift of the PWM signals (P uu; P ul) to compensate for the shift; - correcting the compensation amount according to a cycle of the carrier signal (S506-S508); and - correcting the duty command value using the corrected compensation amount (S514-S516). comprising correcting the duty command value depending on whether a strength of a carrier signal is increasing or decreasing and generating a PWM signal (P uu; P ul) corresponding to a comparison result between the corrected duty command value and a carrier signal, characterized by - obtaining a compensation amount according to a phase shift of the PWM signals (P uu; P ul) to compensate for the shift; - correcting the compensation amount according to a cycle of the carrier signal (S506-S508); and - correcting the duty command value using the corrected compensation amount (S514-S516). - obtaining a compensation amount according to a phase shift of the PWM signals (P uu; P ul) to compensate for the shift; - correcting the compensation amount according to a cycle of the carrier signal (S506-S508); and - correcting the duty command value using the corrected compensation amount (S514-S516).
A blocking device of a fan for blocking a direction of rotation of a rotor, via which a fan wheel of the fan can be driven, comprising a bearing tube, a rotor shaft and a freewheel sleeve, wherein the freewheel sleeve is accommodated in the bearing tube and is torque proof connected to the rotor shaft, which extends through the freewheel sleeve, and wherein the freewheel sleeve blocks rotation of the rotor shaft at least in relation to the bearing tube in the direction of rotation of the rotor, further comprising a bushing in which the freewheel sleeve is torque proof fixed, wherein the bushing limits a rotation of the freewheel sleeve in relation to the bearing tube, characterized in that the bearing tube has a recess on the inner wall side and the bushing has an axial head portion having an asymmetrical cross section, which engages into the recess of the bearing tube, wherein the recess is formed to be larger in the circumferential direction than the head portion of the bushing and allows a rotation of the bushing in the circumferential direction by a predetermined angle.
Process for the preparation of a glycosaminoglycan derivative inhibiting heparanase comprising: a) oxidation of 10% to 100%, of 2-0-, and 2N-, 3-O-, non-sulfated residues of a glycosaminoglycan, under conditions effective to convert adjacent diols and adjacent OH/NH 2 to dialdehydes; b) oxidation of the oxidized glycosaminoglycan under conditions effective to convert said dialdehydes to carboxylate groups, and wherein the glycosaminoglycan is a natural or synthetic glycosaminoglycan selected from heparin, low molecular weight heparins, heparan sulfate, optionally 2-O- and/or 2-N- desulfated. a) oxidation of 10% to 100%, of 2-0-, and 2N-, 3-O-, non-sulfated residues of a glycosaminoglycan, under conditions effective to convert adjacent diols and adjacent OH/NH 2 to dialdehydes; b) oxidation of the oxidized glycosaminoglycan under conditions effective to convert said dialdehydes to carboxylate groups,
A networked media station comprising: a first network interface; a second network interface; a peripheral device interface; and at least one multimedia interface; wherein the networked media station is configured to receive and publish capabilities of one or more input devices connected to the networked media station via the at least one multimedia interface to a computer connected to the networked media station via the first network interface or to the second network interface, to allow a user of the computer to select a multimedia input. a first network interface; a second network interface; a peripheral device interface; and at least one multimedia interface; wherein the networked media station is configured to receive and publish capabilities of one or more input devices connected to the networked media station via the at least one multimedia interface to a computer connected to the networked media station via the first network interface or to the second network interface, to allow a user of the computer to select a multimedia input.
Calibration device, comprising - a calibration sensor, • which has a longitudinal axis, • which has an electrical connection socket, and • which is provided with a screwdriver blade projecting from an end face along the longitudinal axis; and - a plug for insertion into the connection socket, which is connected with a connection cable in a torsion-proof manner, characterized, in that - a positioning auxiliary device is arranged on the plug including a contact surface which cooperates with a complementary counter surface of the screwdriver blade. - a calibration sensor, • which has a longitudinal axis, • which has an electrical connection socket, and • which is provided with a screwdriver blade projecting from an end face along the longitudinal axis; and • which has a longitudinal axis, • which has an electrical connection socket, and • which is provided with a screwdriver blade projecting from an end face along the longitudinal axis; and - a plug for insertion into the connection socket, which is connected with a connection cable in a torsion-proof manner, characterized, in that - a positioning auxiliary device is arranged on the plug including a contact surface which cooperates with a complementary counter surface of the screwdriver blade.