mhurhangee/ep-ind-claims huggingface dataset:
A magnetic switch in which a current flows as a movable contact arm is brought into contact with a stationary contact arm, comprising: a housing; a cylinder coupled to an inner side of the housing; a stationary contact arm coupled to the housing; a movable contact arm positioned to be movable within the housing and brought into contact with the stationary contact arm or separated therefrom; a coil assembly installed within the housing and configured to form a magnetic field when a current is applied thereto; a movable shaft coupled to the movable contact arm in an upper portion thereof; a fixed core inserted into the cylinder and surrounding the movable shaft; and movable core fixed to the movable shaft and configured to press the movable shaft by a magnetic field formed by the coil assembly to move the movable shaft, characterized in that, wherein the movable core include protrusion portion extending toward the movable shaft and fixed to the movable shaft and body portion configured to move in contact with an inner diameter of the cylinder, and the fixed core has an accommodation portion for accommodating the protrusion portion, wherein the protrusion portion and the body portion are provided as separate members, wherein a depth of the accommodation portion is greater than a height of the protrusion portion such that the protrusion portion is accommodated within the accommodation portion. a housing; a cylinder coupled to an inner side of the housing; a stationary contact arm coupled to the housing; a movable contact arm positioned to be movable within the housing and brought into contact with the stationary contact arm or separated therefrom; a coil assembly installed within the housing and configured to form a magnetic field when a current is applied thereto; a movable shaft coupled to the movable contact arm in an upper portion thereof; a fixed core inserted into the cylinder and surrounding the movable shaft; and movable core fixed to the movable shaft and configured to press the movable shaft by a magnetic field formed by the coil assembly to move the movable shaft,
A thermal magnetic circuit breaker, comprising: an insulating case and a handle; wherein, the insulating case is disposed with a part portion and a wiring terminal portion, the part portion comprises an arc blowout chamber, a magnetic tripper, a bimetallic strip and a tripping mechanism, the wiring terminal portion comprises a first wiring terminal and a second wiring terminal, a movable contact of the arc blowout chamber is connected to the tripping mechanism through an upper end connecting rod of the tripping mechanism, the tripping mechanism is connected to one end of a coil of the magnetic tripper through a flexible connector, the other end of the coil of the magnetic tripper is connected to the bimetallic strip and one end of the second wiring terminal through a flexible connector, and one end of the first wiring terminal is connected to a static contact seat of the arc blowout chamber; the handle passes through a handle penetration hole and is hinged to the tripping mechanism; and the handle penetration hole is disposed on one side of the insulating case; and wherein, the insulating case is a cuboid, the wiring terminal portion is disposed at the same side or opposite side of the handle, and longitudinal height of the wiring terminal portion is less than or equal to longitudinal height of the part portion.
A method of generating a collision diagnosis for a traffic event involving a vehicle, the method comprising: receiving an output from a single electrode self-capacitance sensor which is arranged to use the bodywork of the vehicle as the single electrode of the sensor, wherein the self-capacitance sensor detects the self-capacitance of the bodywork of the vehicle; comparing the received output with at least one threshold to generate provisional collision detection data; correlating the provisional collision detection data with further data relating to the traffic event to produce correlation data; and generating the collision diagnosis on the basis of the correlation data. receiving an output from a single electrode self-capacitance sensor which is arranged to use the bodywork of the vehicle as the single electrode of the sensor, wherein the self-capacitance sensor detects the self-capacitance of the bodywork of the vehicle; comparing the received output with at least one threshold to generate provisional collision detection data; correlating the provisional collision detection data with further data relating to the traffic event to produce correlation data; and generating the collision diagnosis on the basis of the correlation data.
Radiation source having at least one semiconductor substrate, on which at least two field effect transistors (31, 32, 33, 34) are formed, each containing a gate electrode (21, 22, 23, 24) with a gate length L G, a source contact (11, 12, 13) and a drain contact (41, 42, 43), which delimit a channel (311, 321, 331, 341), characterized in that the at least two field effect transistors (31, 32, 33, 34) are arranged next to one another on the substrate, wherein each field effect transistor (31, 32, 33, 34) has precisely one gate electrode (21, 22, 23, 24), and at least one source contact (11, 12,13) and/or at least one drain contact is arranged between two adjacent gate electrodes (21, 22, 23, 24), wherein adjacent source contacts (11, 12, 13) and/or drain contacts (41, 42, 43) have in each case a distance Λ from one another that complies with the following condition: Λ = 4 nL G 2 k − 1, wherein L G is the gate length of the field effect transistors (31, 32, 33, 34) and n and k are natural numbers, wherein k can adopt values from 1 to 2n.
A device implantable or mountable to a body for determining its orientation relative to the body, comprising: - a three-dimensional orientation detection unit adapted to measure orientation data in a reference system of the orientation detection unit (x a, y a, z a); and - a control unit adapted to determine the relative orientation of the device with respect to the body by determining a transformation relation between the body reference system (x b, y b, z b) and the reference system of the orientation detection unit (x a, y a, z a); characterised in that the control unit is adapted to automatically determine the transformation relation by means of at least one predetermined reference condition defined in a body reference system (x b, y b, z b) and the measured orientation data, wherein the reference condition comprises a reference posture and/or a reference posture range defined in the body reference system (x b, y b, z b) having at least one predetermined characteristic, the at least one predetermined characteristic relating to the prevalence level and/or activity level associated with the reference posture and/or with the reference posture range. - a three-dimensional orientation detection unit adapted to measure orientation data in a reference system of the orientation detection unit (x a, y a, z a); and - a control unit adapted to determine the relative orientation of the device with respect to the body by determining a transformation relation between the body reference system (x b, y b, z b) and the reference system of the orientation detection unit (x a, y a, z a);
A method performed by a wireless communication device, the method comprising: receiving one or more first segments, but not a last segment, of a segmented Radio Resource Control, RRC, message, and; discarding the one or more first segments of the segmented Radio Resource Control, RRC, message if a Radio Link Failure, RLF, occurs. receiving one or more first segments, but not a last segment, of a segmented Radio Resource Control, RRC, message, and; discarding the one or more first segments of the segmented Radio Resource Control, RRC, message if a Radio Link Failure, RLF, occurs.
A QKD transmission apparatus comprising: a GPS receiver module operable to receive a GPS signal; a processor operable to use the GPS signal to derive a clock signal for transmission of a QKD signal to a QKD reception apparatus; and characterised in that the derived clock signal is shifted by the processor by a predetermined time value in order to provide a modified clock signal, said predetermined time value being known only to the QKD transmission and reception apparatus. a GPS receiver module operable to receive a GPS signal; a processor operable to use the GPS signal to derive a clock signal for transmission of a QKD signal to a QKD reception apparatus; and characterised in that the derived clock signal is shifted by the processor by a predetermined time value in order to provide a modified clock signal, said predetermined time value being known only to the QKD transmission and reception apparatus.
An anoikis-inducing agent comprising a Tiarella polyphylla extract, a ti-arellic acid isolated therefrom or a pharmaceutically acceptable salt thereof for use in the treatment and prevention of cancer cells expressing a tumor-associated antigen L6 or a homolog thereof.
A modular pallet having a self-supporting platform which is connected to at least two substructures via form-fitting and force-fitting, but releasable, connections, wherein the platform has platform tongues and a substructure comprises a transporting rail and an intermediate component, wherein the intermediate components have a platform groove and a transporting groove and the transporting rail has a transporting tongue, wherein the intermediate component and transporting rail are connected to one another in a form-fitting and releasable manner via a transporting groove and a transporting tongue, the transporting rail has recesses allowing stubs of an adapter to engage in the recesses.
Power module for a converter, in particular for a multi-level converter, the power module comprising - an intermediate circuit capacitor, - two connection terminals (32, 33), - exactly one half-bridge connected in parallel with the intermediate circuit capacitor and having two semiconductor switches (36, 37) and, - for the half-bridge, a bypass diode connected in parallel with a first semiconductor switch of the half-bridge and a load-relief circuit unit connected in parallel with the first semiconductor switch, which load-relief circuit unit comprises a load-relief thyristor, wherein the first semiconductor switch, on the input side and the output side, is directly electrically connected to one connection terminal (32, 33) respectively, characterized in that the load-relief circuit unit comprises a load-relief diode connected in series with the load-relief thyristor, and the load-relief circuit unit comprises a smoothing capacitor connected in parallel with the load-relief thyristor. - an intermediate circuit capacitor, - two connection terminals (32, 33), - exactly one half-bridge connected in parallel with the intermediate circuit capacitor and having two semiconductor switches (36, 37) and, - for the half-bridge, a bypass diode connected in parallel with a first semiconductor switch of the half-bridge and a load-relief circuit unit connected in parallel with the first semiconductor switch, which load-relief circuit unit comprises a load-relief thyristor, wherein the first semiconductor switch, on the input side and the output side, is directly electrically connected to one connection terminal (32, 33) respectively, the load-relief circuit unit comprises a load-relief diode connected in series with the load-relief thyristor, and the load-relief circuit unit comprises a smoothing capacitor connected in parallel with the load-relief thyristor.
A lost core mold component comprising: a first leg and a second leg, with a plurality of crossover members connecting said first and second legs, with said plurality of crossover members including outermost crossover members (164, 182) spaced from each other and adjacent ends of each of said first and second legs, second crossover members (178, 168) spaced closer to each other than are said outermost crossover members, and central crossover members (172, 174) extending between said first and second leg and between said second crossover members; and said outermost crossover members extending for a first cross-sectional area, said second crossover members extending for a second cross-sectional area and said central crossover members extending for a third cross-sectional area, with said first cross-sectional area being greater than said second cross-sectional area and said second cross-sectional area being greater than said third cross-sectional area. a first leg and a second leg, with a plurality of crossover members connecting said first and second legs, with said plurality of crossover members including outermost crossover members (164, 182) spaced from each other and adjacent ends of each of said first and second legs, second crossover members (178, 168) spaced closer to each other than are said outermost crossover members, and central crossover members (172, 174) extending between said first and second leg and between said second crossover members; and said outermost crossover members extending for a first cross-sectional area, said second crossover members extending for a second cross-sectional area and said central crossover members extending for a third cross-sectional area, with said first cross-sectional area being greater than said second cross-sectional area and said second cross-sectional area being greater than said third cross-sectional area.
An automatic culture system, comprising: a transfer part configured to transfer a first airtight container which accommodates cells in a sealed state; and an automatic culture device (20, 30) having a loading part (21, 31) provided within an isolated area and configured to receive the first airtight container transferred by the transfer part, take out the cells from the first airtight container and culture the taken-out cells, wherein the transfer part includes a ceiling, a rail provided in the ceiling and a holding portion configured to hold the first airtight container such that the first airtight container is suspended downward from the rail, wherein the isolated area is partitioned into a plurality of areas by an isolation member, wherein the plurality of areas include at least two areas being partitioned by the isolation member, and wherein the ceiling includes ceilings of the at least two areas, and the rail extends between the ceilings of the at least two areas, and the transfer part is configured to move along the rail and pass through the isolation member while holding the first airtight container, wherein the automatic culture device (20, 30) is configured to automatically perform replacement of a culture medium. a transfer part configured to transfer a first airtight container which accommodates cells in a sealed state; and an automatic culture device (20, 30) having a loading part (21, 31) provided within an isolated area and configured to receive the first airtight container transferred by the transfer part, take out the cells from the first airtight container and culture the taken-out cells, wherein the transfer part includes a ceiling, a rail provided in the ceiling and a holding portion configured to hold the first airtight container such that the first airtight container is suspended downward from the rail, wherein the isolated area is partitioned into a plurality of areas by an isolation member, wherein the plurality of areas include at least two areas being partitioned by the isolation member, and wherein the ceiling includes ceilings of the at least two areas, and the rail extends between the ceilings of the at least two areas, and the transfer part is configured to move along the rail and pass through the isolation member while holding the first airtight container, wherein the automatic culture device (20, 30) is configured to automatically perform replacement of a culture medium.
A middle frame image processing apparatus comprising: a first image sensor configured to output a first middle frame image data object based on a first full frame image size and a middle frame image size; a second image sensor configured to output a second middle frame image data object based on a second full frame image size and the middle frame image size; and a processor that is in data communication with the first image sensor and the second image sensor, the processor configured to: select an image sensor from the first image sensor and the second image sensor; receive a middle frame image data object from the selected image sensor, wherein the middle frame image data object is one of the first middle frame image data object and the second middle frame image data object; wherein the middle frame image size represents a shared image size for image data objects outputted by each of the plurality of image sensors; and process the middle frame image data object. a first image sensor configured to output a first middle frame image data object based on a first full frame image size and a middle frame image size; a second image sensor configured to output a second middle frame image data object based on a second full frame image size and the middle frame image size; and a processor that is in data communication with the first image sensor and the second image sensor, the processor configured to: select an image sensor from the first image sensor and the second image sensor; receive a middle frame image data object from the selected image sensor, select an image sensor from the first image sensor and the second image sensor; receive a middle frame image data object from the selected image sensor, wherein the middle frame image data object is one of the first middle frame image data object and the second middle frame image data object; wherein the middle frame image size represents a shared image size for image data objects outputted by each of the plurality of image sensors; and process the middle frame image data object. wherein the middle frame image size represents a shared image size for image data objects outputted by each of the plurality of image sensors; and process the middle frame image data object.
Method for processing wet olive pomace, which comprises at least the following steps: a) providing wet olive pomace; b) adding a calcium compound and/or a calcium solution to the wet olive pomace; and c) filtering the wet olive pomace in a first separating device (10, 10', 10", 10''') to obtain a solid phase and at least one liquid phase, wherein the step b) takes place prior to step c) and wherein processing the wet olive pomace from its provision, according to step a), up to the mechanical separation of the liquid phase from the wet olive pomace by forming the liquid-reduced solid phase, according to step c), takes place within 1 hour maximum. a) providing wet olive pomace; b) adding a calcium compound and/or a calcium solution to the wet olive pomace; and c) filtering the wet olive pomace in a first separating device (10, 10', 10", 10''') to obtain a solid phase and at least one liquid phase, wherein the step b) takes place prior to step c) and wherein processing the wet olive pomace from its provision, according to step a), up to the mechanical separation of the liquid phase from the wet olive pomace by forming the liquid-reduced solid phase, according to step c), takes place within 1 hour maximum.
A lens barrel comprising: a cylindrical lens frame(106, 107, 108) supporting a lens unit(L31, L32, L51) and having three or more groove units(106A, 107A, 108A) arranged in a circumferential direction thereof; a cylindrical frame support unit supporting the lens frame and having three or more through holes (105A, 105B, 105C) formed in a circumferential direction of the frame support unit to penetrate the frame support unit; and three or more insertion units (301, 302, 303) inserted into the three or more groove units via the three or more through holes, wherein a plurality of openings are formed at each through hole, wherein the plurality of openings (105D, 105E, 105F, 105G) at each through hole have different opening widths and are arranged in a thicknesswise direction of the frame support unit, wherein each of two or more insertion units among the three or more insertion units includes a concentric cylinder unit (301B, 302A) arranged concentrically with respect to a pivot axis of the insertion portion of the respective insertion unit and an eccentric cylinder unit (301A, 302B) arranged eccentrically with respect to the pivot axis of the insertion portion of the respective insertion unit; and wherein one or more of the plurality of openings (105E, 105G) at each through hole has an elliptical shape with a major axis parallel to an optical axis of the lens barrel, and one or more of the other openings (105D, 105F) has an elliptical shape with a major axis parallel to the circumferential direction of the frame support unit. a cylindrical lens frame(106, 107, 108) supporting a lens unit(L31, L32, L51) and having three or more groove units(106A, 107A, 108A) arranged in a circumferential direction thereof; a cylindrical frame support unit supporting the lens frame and having three or more through holes (105A, 105B, 105C) formed in a circumferential direction of the frame support unit to penetrate the frame support unit; and three or more insertion units (301, 302, 303) inserted into the three or more groove units via the three or more through holes, wherein a plurality of openings are formed at each through hole, wherein the plurality of openings (105D, 105E, 105F, 105G) at each through hole have different opening widths and are arranged in a thicknesswise direction of the frame support unit, wherein each of two or more insertion units among the three or more insertion units includes a concentric cylinder unit (301B, 302A) arranged concentrically with respect to a pivot axis of the insertion portion of the respective insertion unit and an eccentric cylinder unit (301A, 302B) arranged eccentrically with respect to the pivot axis of the insertion portion of the respective insertion unit; and wherein one or more of the plurality of openings (105E, 105G) at each through hole has an elliptical shape with a major axis parallel to an optical axis of the lens barrel, and one or more of the other openings (105D, 105F) has an elliptical shape with a major axis parallel to the circumferential direction of the frame support unit.
A compound represented by formula where R 1 represents the following formula ring A represents either one of the rings represented by the following formula X represents -(CH 2) m -X 1 -(CH 2) n -; X 1 represents a bond, -O-, -NR a C(=O)-, -C(=O)NR b -, -NR c S(=O) 2 -, or -S(=O) 2 NR d -; R a, R b, R c, and R d which may be the same or different each represent a hydrogen atom or a C 1-6 alkyl group; m and n which may be the same or different each represent an integer of 0-3; R 2 represents an aryl group, a heteroaryl group (said aryl or heteroaryl group may be substituted by 1-3 substituent groups selected from the group consisting of a halogen atom, a -2-C 1-6 alkyl group, and a C 1-6 alkoxy group (said C 1-6 alkyl group or C 1-6 alkoxy group may be substituted by 1-3 substituent groups selected from the group consisting of a halogen atom and a hydroxy group)), a 1,3-benzodioxolanyl group, an indolyl group, a morpholyl group, a hydroxy group, a C 1-6 alkyl group (said C 1-6 alkyl group may be substituted by 1-2 hydroxy groups), an amino group, a mono-C 1-6 alkylamino group, a di-C 1-6 alkylamino group, a C 1-6 alkoxy group, a C 1-6 alkylsulfonyloxy group, a pyridonyl group, or a pyrimidinonyl group or a pharmaceutically acceptable salt thereof.