mhurhangee/ep-ind-claims huggingface dataset:
A suction throttle valve of a variable displacement compressor having a compressor housing including a suction chamber and a crank chamber, said compressor comprising: an inlet through which suction refrigerant gas is drawn into the compressor; and a suction passage connecting the inlet to the suction chamber; said suction throttle valve comprising a first valve body for adjusting an opening area of the suction passage, the first valve body being movably arranged in the suction passage; a valve housing accommodating the first valve body wherein the valve housing has a circumferential wall formed with a communication port opened to the suction passage; a second valve body accommodated in the valve housing; an urging member urging the first valve body in a direction that decreases an opening area of the suction passage; the urging member provided between the first valve body and the second valve body; and a valve chamber formed in the valve housing on an opposite side of the first valve body with respect to the suction passage, the valve chamber is partitioned by the first valve body, the second valve body, and a part of the circumferential wall of the valve housing along which the first valve body is slidably guided; characterized in that a communication hole is formed in the circumferential wall of the valve housing on an opposite side of the communication port with respect to the part of the circumferential wall of the valve housing, wherein the communication hole connects the suction chamber to the valve chamber, wherein an opening area of the communication hole is variable in accordance with a movement of the second valve body so that the opening area of the communication hole becomes maximum during a maximum displacement operation of the compressor and the opening area of the communication hole becomes reduced during an intermediate displacement operation of the compressor. said compressor comprising: an inlet through which suction refrigerant gas is drawn into the compressor; and a suction passage connecting the inlet to the suction chamber; an inlet through which suction refrigerant gas is drawn into the compressor; and a suction passage connecting the inlet to the suction chamber; said suction throttle valve comprising a first valve body for adjusting an opening area of the suction passage, the first valve body being movably arranged in the suction passage; a valve housing accommodating the first valve body wherein the valve housing has a circumferential wall formed with a communication port opened to the suction passage; a second valve body accommodated in the valve housing; an urging member urging the first valve body in a direction that decreases an opening area of the suction passage; the urging member provided between the first valve body and the second valve body; and a valve chamber formed in the valve housing on an opposite side of the first valve body with respect to the suction passage, the valve chamber is partitioned by the first valve body, the second valve body, and a part of the circumferential wall of the valve housing along which the first valve body is slidably guided;
A method for handling de-prioritization during cell reselection procedure in a wireless communication system, the method performed by a user equipment, UE, and comprising: receiving, from a network, de-prioritization request information including a de-prioritization frequency list during cell reselection procedure; starting a de-prioritization timer upon receiving the de-prioritization request information; applying the de-prioritization to all frequencies included in the de-prioritization frequency list, wherein when the de-prioritization is applied, a priority for each of the all frequencies is lowered to a lowest priority during the cell reselection procedure; receiving (S820, S940), from the network, a de-prioritization cancellation command while the de-prioritization timer is running, wherein the de-prioritization cancellation command indicates at least one specific frequency for which the applying the de-prioritization is cancelled; and handling (S830, S950, S971) the de-prioritization on the basis of the de-prioritization cancellation command, wherein if the all frequencies in the de-prioritization frequency list are cancelled by the de-prioritization cancellation command, the UE stops the de-prioritization timer, and wherein if some of frequencies in the de-prioritization frequency list are not cancelled by the de-prioritization cancellation command, the UE maintains the running of the de-prioritization timer and applies the de-prioritization while the de-prioritization timer is running. receiving, from a network, de-prioritization request information including a de-prioritization frequency list during cell reselection procedure; starting a de-prioritization timer upon receiving the de-prioritization request information; applying the de-prioritization to all frequencies included in the de-prioritization frequency list, wherein when the de-prioritization is applied, a priority for each of the all frequencies is lowered to a lowest priority during the cell reselection procedure; receiving (S820, S940), from the network, a de-prioritization cancellation command while the de-prioritization timer is running, wherein the de-prioritization cancellation command indicates at least one specific frequency for which the applying the de-prioritization is cancelled; and handling (S830, S950, S971) the de-prioritization on the basis of the de-prioritization cancellation command, wherein if the all frequencies in the de-prioritization frequency list are cancelled by the de-prioritization cancellation command, the UE stops the de-prioritization timer, and wherein if some of frequencies in the de-prioritization frequency list are not cancelled by the de-prioritization cancellation command, the UE maintains the running of the de-prioritization timer and applies the de-prioritization while the de-prioritization timer is running.
A charging device configured to receive power from a power source, said charging device comprising: a motion detection device configured to provide a signal corresponding to a motion of said charging device; a system controller communicatively coupled to said motion detection device and configured to determine if the motion of said charging device has exceeded a predefined limit; further comprising a current controlling device operable to selectively electrically couple an output of said charging device to the power source, wherein said system controller is further communicatively coupled to said current controlling device and configured to control operation of said current controlling device based at least partially on the signal from said motion detection device; wherein said system controller generates a motion signal corresponding to a determination that motion of charging device has exceeded the predefined limit and transmits the motion signal to current controlling device that is configured to open upon receipt of the motion signal from system controller; characterized in that current controlling device is maintained in an open position until charging device is provided with a reset signal or until motion detection device indicates that charging device has been returned to its original orientation and is no longer moving. a motion detection device configured to provide a signal corresponding to a motion of said charging device; a system controller communicatively coupled to said motion detection device and configured to determine if the motion of said charging device has exceeded a predefined limit; further comprising a current controlling device operable to selectively electrically couple an output of said charging device to the power source, wherein said system controller is further communicatively coupled to said current controlling device and configured to control operation of said current controlling device based at least partially on the signal from said motion detection device; wherein said system controller generates a motion signal corresponding to a determination that motion of charging device has exceeded the predefined limit and transmits the motion signal to current controlling device that is configured to open upon receipt of the motion signal from system controller; characterized in that current controlling device is maintained in an open position until charging device is provided with a reset signal or until motion detection device indicates that charging device has been returned to its original orientation and is no longer moving.
A method for analyzing biomolecules, comprising the steps of: immobilizing biomolecules to be analyzed on surfaces of magnetic microparticles; reacting fluorophore-labeled probe molecules with the biomolecules to be analyzed; collecting and immobilizing the microparticles on a support substrate; and measuring the labels on the support substrate, wherein one molecule of the biomolecules to be analyzed is immobilized per each magnetic microparticle, and a single fluorophore for one molecule of the biomolecules is fluorescently observed by counting light spots, wherein the support substrate has a smooth planar surface on which the microparticles are collected and immobilized. immobilizing biomolecules to be analyzed on surfaces of magnetic microparticles; reacting fluorophore-labeled probe molecules with the biomolecules to be analyzed; collecting and immobilizing the microparticles on a support substrate; and measuring the labels on the support substrate, wherein one molecule of the biomolecules to be analyzed is immobilized per each magnetic microparticle, and a single fluorophore for one molecule of the biomolecules is fluorescently observed by counting light spots, wherein the support substrate has a smooth planar surface on which the microparticles are collected and immobilized.
A formulation comprising an agrochemical and a compound of formula where R 1 is hydrogen, methyl, ethyl, propyl or butyl; R 2 is methyl or ethyl; and R 3 is hydrogen, methyl or ethyl; where the agrochemical is a strobilurin, a triazole or a succinate dehydrogenase inhibitor and the formulation is an emulsifiable concentrate or an emulsion.
A combination of a cartridge (100; 701) and a main assembly (170; 800) of an electrophotographic image forming apparatus, the cartridge (100; 701) detachably mountable to the main assembly (170; 800), the main assembly (170; 800) including a driving force application member (180; 813) and a braking force application member (204, 208; 814, 818), the cartridge (100; 701) comprising: a casing (115, 116, 117, 125, 126, 127); a photosensitive drum (104; 707) rotatably supported by the casing (115, 116, 117, 125, 126, 127); a coupling (143; 770; 1043) connected with the photosensitive drum so as to be capable of drive transmission, wherein the coupling (143; 770; 1043) includes a driving force receiving portion (143b; 145b; 243b, 343b; 443b; 643i; 770b; 1043i) adapted to receive a driving force for rotating the coupling (143; 770; 1043) by engagement with the driving force application member (180; 813), and a braking force receiving portion (143c; 144c, 144t; 145c; 243c; 343c; 443c1, 443c2; 643i; 770c; 1043i) adapted to receive a braking force for applying a load against rotation of the coupling by engagement with the braking force application member (204, 208; 814, 818), and a guide (143d, 143n; 145d, 145n; 147f; 148d1, 148d2; 149d; 149d1, 149d2; 242d1, 343d2, 343n; 443d1, 443d2; 770d) adapted to move the braking force application member (204, 208; 814, 818) relative to the driving force application member (180; 813). a casing (115, 116, 117, 125, 126, 127); a photosensitive drum (104; 707) rotatably supported by the casing (115, 116, 117, 125, 126, 127); a coupling (143; 770; 1043) connected with the photosensitive drum so as to be capable of drive transmission, wherein the coupling (143; 770; 1043) includes a driving force receiving portion (143b; 145b; 243b, 343b; 443b; 643i; 770b; 1043i) adapted to receive a driving force for rotating the coupling (143; 770; 1043) by engagement with the driving force application member (180; 813), and a braking force receiving portion (143c; 144c, 144t; 145c; 243c; 343c; 443c1, 443c2; 643i; 770c; 1043i) adapted to receive a braking force for applying a load against rotation of the coupling by engagement with the braking force application member (204, 208; 814, 818), and a guide (143d, 143n; 145d, 145n; 147f; 148d1, 148d2; 149d; 149d1, 149d2; 242d1, 343d2, 343n; 443d1, 443d2; 770d) adapted to move the braking force application member (204, 208; 814, 818) relative to the driving force application member (180; 813).
A tape cartridge configured to be able to be loaded in and unloaded from a tape printing device, the tape cartridge characterized by a tab portion which is gripped at least at the time of unloading, wherein the tab portion is arranged at or near a position where pull-out resistance due to unloading is balanced within a plane intersecting with an unloading direction.
An oil decantation system for an internal combustion engine comprising at least one main wall provided with a passage opening for a blow-by gas flow and a separation device (19, 22) disposed downstream of said passage opening in the direction of circulation of said blow-by gas flow, the separation device comprising a valve provided with decantation means capable of retaining the oil contained in the blow-by gas and letting a purified blow-by gas flow pass, characterized in that the valve is pivotally mounted on the main wall so that its inclination relative to said main wall varies according to the blow-by gas flow.
Fibre-optic cable fanout (2, 3) for attachment to a support (121, 122), the fanout comprising a) a fanout input for entry into the cable fanout of an end of an optical multifibre cable comprising an outer jacket containing a plurality of individual optical fibres; b) a fanout output for individual exit from the cable fanout of the plurality of individual optical fibres; c) a fanout base comprising a base engagement element for engagement with the support such that the fanout base is movable relative to the support; d) a fanout cover (180, 181), connected to the fanout base such that the fanout base and the fanout cover form a fanout cavity to contain sections of the individual optical fibres; e) a locking element (170, 171), connected to the fanout cover (180, 181) and movable, relative to the fanout cover, so that, when the base engagement element is engaged with the support (121, 122), the locking element can be moved between an unlocked position, in which the locking element is not engaged with the support and the fanout base is movable relative to the support, and a locked position, in which the locking element is engaged with the support and secures the fanout base and the fanout cover in a fixed position relative to the support; characterized in that the locking element is slideably connected to the fanout cover and is slideably movable between the unlocked position and the locked position such that the locking element performs a translational movement during which the angular orientation of the locking element relative to the fanout base and the fanout cover (180, 181) remains unchanged. a) a fanout input for entry into the cable fanout of an end of an optical multifibre cable comprising an outer jacket containing a plurality of individual optical fibres; b) a fanout output for individual exit from the cable fanout of the plurality of individual optical fibres; c) a fanout base comprising a base engagement element for engagement with the support such that the fanout base is movable relative to the support; d) a fanout cover (180, 181), connected to the fanout base such that the fanout base and the fanout cover form a fanout cavity to contain sections of the individual optical fibres; e) a locking element (170, 171), connected to the fanout cover (180, 181) and movable, relative to the fanout cover, so that, when the base engagement element is engaged with the support (121, 122), the locking element can be moved between
A meat processing apparatus comprising an automated analysis stage comprising: a radiation-shielded chamber, a tomography scanner with a scanner controller, and arranged to perform analysis of meat parts, a digital data processor linked with the scanner for processing scan data and providing outputs, characterized in that the apparatus further comprises: a port for entry and exit of meat parts placed in carriers into and out of the chamber for analysis by the scanner, said port comprising an interlock chamber, having an inner door and an outer door and a port controller to ensure that while the scanner is operating only one door can open, and a handling system (245, 250) for automated movement of the carriers between the port and the scanner, and a handling system controller for the handling system, wherein said processor is configured to provide feedback data on meat quality determined by scanning, and to route said feedback data to suppliers; and to provide feedforward data to downstream processing stages for optimized boning and/or trimming. a radiation-shielded chamber, a tomography scanner with a scanner controller, and arranged to perform analysis of meat parts, a digital data processor linked with the scanner for processing scan data and providing outputs, characterized in that the apparatus further comprises: a port for entry and exit of meat parts placed in carriers into and out of the chamber for analysis by the scanner, said port comprising an interlock chamber, having an inner door and an outer door and a port controller to ensure that while the scanner is operating only one door can open, and a handling system (245, 250) for automated movement of the carriers between the port and the scanner, and a handling system controller for the handling system, wherein said processor is configured to provide feedback data on meat quality determined by scanning, and to route said feedback data to suppliers; and to provide feedforward data to downstream processing stages for optimized boning and/or trimming. a port for entry and exit of meat parts placed in carriers into and out of the chamber for analysis by the scanner, said port comprising an interlock chamber, having an inner door and an outer door and a port controller to ensure that while the scanner is operating only one door can open, and a handling system (245, 250) for automated movement of the carriers between the port and the scanner, and a handling system controller for the handling system, wherein said processor is configured to provide feedback data on meat quality determined by scanning, and to route said feedback data to suppliers; and to provide feedforward data to downstream processing stages for optimized boning and/or trimming.
Electrical system, comprising at least one capacitor element, at least one sensor (20, 20', 20'') configured to measure at least one parameter chosen from device parameters and environmental parameters, and a processing unit configured to process the at least one parameter and to evaluate a capacitor element information of the at least one capacitor element based on the at least one parameter, wherein the capacitor element information comprises one or more chosen from a capacitance loss, a tangent variation, a stress, a remaining lifetime, a failure condition, wherein the at least one sensor comprises one or more sensors configured to measure one or more gas species that are chosen from a gas species that can be created during a pyrolysis event of one or more components of the capacitor element. at least one capacitor element, at least one sensor (20, 20', 20'') configured to measure at least one parameter chosen from device parameters and environmental parameters, and a processing unit configured to process the at least one parameter and to evaluate a capacitor element information of the at least one capacitor element based on the at least one parameter, wherein the capacitor element information comprises one or more chosen from a capacitance loss, a tangent variation, a stress, a remaining lifetime, a failure condition, wherein the at least one sensor comprises one or more sensors configured to measure one or more gas species that are chosen from a gas species that can be created during a pyrolysis event of one or more components of the capacitor element.
A bi-fold door in which two rectangular-plate-shaped doors having end faces (2202,2204,2402,2404) at both ends in a width direction are bendably joined together at one end faces (2202,2402) and have outer surfaces positioned on one end in a thickness direction of the two doors, and the outer surfaces are folded in a V shape at the one end faces so as to open an opening part, the bi-fold door having a handle structure, the handle structure comprising: handles and finger insertion recesses provided at positions on the outer surfaces near the one end faces; the handles being provided with finger-hook plate pieces which extend vertically while protruding from vicinities of the one end faces (2202,2402) on the outer surfaces toward the other end faces (2204,2404); the finger insertion recesses being provided on the outer surfaces of the doors so as to face the finger-hook plate pieces; an interval between inner surfaces of the finger-hook plate pieces which face the finger insertion recesses and bottom surfaces of the finger insertion recesses being formed with dimensions which enable fingers to be hooked on the inner surfaces of the finger-hook plate pieces; upon viewing the outer surfaces of the doors from the front, the finger insertion recesses being formed up to positions outside of contours of the finger-hook plate pieces; and, the handles and the finger insertion recesses provided on the doors being (2202,2402) formed in a bilaterally symmetrical shape with the one end faces (2202,2402) in the center. handles and finger insertion recesses provided at positions on the outer surfaces near the one end faces; the handles being provided with finger-hook plate pieces which extend vertically while protruding from vicinities of the one end faces (2202,2402) on the outer surfaces toward the other end faces (2204,2404); the finger insertion recesses being provided on the outer surfaces of the doors so as to face the finger-hook plate pieces; an interval between inner surfaces of the finger-hook plate pieces which face the finger insertion recesses and bottom surfaces of the finger insertion recesses being formed with dimensions which enable fingers to be hooked on the inner surfaces of the finger-hook plate pieces; upon viewing the outer surfaces of the doors from the front, the finger insertion recesses being formed up to positions outside of contours of the finger-hook plate pieces; and, the handles and the finger insertion recesses provided on the doors being (2202,2402) formed in a bilaterally symmetrical shape with the one end faces (2202,2402) in the center.