mhurhangee/ep-ind-claims huggingface dataset:
A thermal-cycle cryocooler comprising: a compressor; a displacer; characterized by further comprising: a regenerator; and a sealed housing enclosing the compressor and the displacer; wherein the compressor and the displacer are both configured to act on a single combined working volume within the sealed housing; wherein one of the compressor or the displacer includes a first movable part that is configured to move within a second movable part of the other of the compressor or the displacer; wherein the first movable part includes a piston; wherein the second movable part includes a cylinder; and wherein at least part of the piston is configured to move within the cylinder; and wherein the regenerator is attached to and is configured to move with the displacer. a compressor; a displacer; characterized by further comprising: a regenerator; and a sealed housing enclosing the compressor and the displacer; wherein the compressor and the displacer are both configured to act on a single combined working volume within the sealed housing; wherein one of the compressor or the displacer includes a first movable part that is configured to move within a second movable part of the other of the compressor or the displacer; wherein the first movable part includes a piston; wherein the second movable part includes a cylinder; and wherein at least part of the piston is configured to move within the cylinder; and wherein the regenerator is attached to and is configured to move with the displacer.
An electronic apparatus, comprising: a main circuit unit; a power source supplier configured to generate power, and supply the generated power to the main circuit unit; a surge protector disposed between the main circuit unit and the power source supplier, the surge protector being configured to, based on a surge occurring within the power source supplier, perform a first clamping operation on a power output from the power source supplier at a first voltage level or lower; the electronic apparatus is characterised to further comprise an overvoltage protection circuit unit coupled to the main circuit unit, wherein the overvoltage protection circuit unit comprises a capacitor, and wherein the overvoltage protection circuit unit is configured to, based on an output voltage level of the main circuit unit charging the capacitor to a value equal to or greater than a third voltage level, stop the first clamping operation, wherein the power source supplier is further configured to, based on the first clamping operation being stopped, perform a second clamping operation within the power source supplier at a second voltage level greater than the first voltage level. a main circuit unit; a power source supplier configured to generate power, and supply the generated power to the main circuit unit; a surge protector disposed between the main circuit unit and the power source supplier, the surge protector being configured to, based on a surge occurring within the power source supplier, perform a first clamping operation on a power output from the power source supplier at a first voltage level or lower; the electronic apparatus is characterised to further comprise an overvoltage protection circuit unit coupled to the main circuit unit, wherein the overvoltage protection circuit unit comprises a capacitor, and wherein the overvoltage protection circuit unit is configured to, based on an output voltage level of the main circuit unit charging the capacitor to a value equal to or greater than a third voltage level, stop the first clamping operation, wherein the power source supplier is further configured to, based on the first clamping operation being stopped, perform a second clamping operation within the power source supplier at a second voltage level greater than the first voltage level.
A vehicle, comprising a galley, said galley comprising at least two galley sections (16, 18), each of the at least two galley sections (16,18) having a longitudinal axis (22, 24) and the vehicle having a longitudinal centerline, said centerline divides the vehicle into left and right hand sides and wherein the vehicle has outer sidewalls (28, 34) defining planes that angle outwardly from the centerline, the at least two galley sections (16,18) are positioned so that their longitudinal axis (22, 24) are angled or rotated with respect to the vehicle centreline, characterized in that the at least two galley sections (16, 18) are positioned so that their longitudinal axis (22, 24) are generally parallel to one another but are not parallel to the vehicle centerline such that a first galley section of the at least two galley sections is positioned so that its longitudinal axis is generally parallel with one of the outer sidewall planes so as to provide an additional space along a rear side of a second galley section of the at least two galley sections and the outer sidewall of the vehicle.
A printing apparatus in which a printing unit comprising an ejection head provided with ejection ports, through which liquid is ejected, is moved in a main scanning direction along the surface of a print medium so as to perform printing, the printing unit comprising: a first opening formed at a first surface in the main scanning direction, the first surface being a bottom surface of the printing unit, flush with an ejection port surface having the ejection ports formed thereat, and facing the print medium; characterized in that the printing unit further comprises: a second opening formed at a second surface in the main scanning direction, the second surface being a further bottom surface of the printing unit different from the first surface; and a first communication path that allows the first opening and the second opening to communicate with each other, wherein the first opening and the second opening are formed in different pressure regions, in which pressures different from each other are produced in a case where the printing unit is moved in the main scanning direction, so that air around the ejection head is sucked through the first opening or air is injected between the ejection port surface and the print medium. a first opening formed at a first surface in the main scanning direction, the first surface being a bottom surface of the printing unit, flush with an ejection port surface having the ejection ports formed thereat, and facing the print medium; characterized in that the printing unit further comprises: a second opening formed at a second surface in the main scanning direction, the second surface being a further bottom surface of the printing unit different from the first surface; and a first communication path that allows the first opening and the second opening to communicate with each other, wherein the first opening and the second opening are formed in different pressure regions, in which pressures different from each other are produced in a case where the printing unit is moved in the main scanning direction, so that air around the ejection head is sucked through the first opening or air is injected between the ejection port surface and the print medium. a second opening formed at a second surface in the main scanning direction, the second surface being a further bottom surface of the printing unit different from the first surface; and a first communication path that allows the first opening and the second opening to communicate with each other, wherein the first opening and the second opening are formed in different pressure regions, in which pressures different from each other are produced in a case where the printing unit is moved in the main scanning direction, so that air around the ejection head is sucked through the first opening or air is injected between the ejection port surface and the print medium.
A power feeding system comprising: a power transmission resonator (230, 240; 410) receiving electric power from a power source to generate an electromagnetic field, a power reception resonator (110, 120; 420) receiving electric power from said power transmission resonator by resonating with said power transmission resonator via said electromagnetic field, a rectifier rectifying electric power received by said power reception resonator, a voltage converter voltage-converting the electric power rectified by said rectifier for supply to a load, and a voltage control device (180, 180A, 180B) controlling a voltage between said rectifier and said voltage converter to attain a predetermined target voltage, characterized in that said voltage control device sets said target voltage based on a magnitude of reception electric power. a power transmission resonator (230, 240; 410) receiving electric power from a power source to generate an electromagnetic field, a power reception resonator (110, 120; 420) receiving electric power from said power transmission resonator by resonating with said power transmission resonator via said electromagnetic field, a rectifier rectifying electric power received by said power reception resonator, a voltage converter voltage-converting the electric power rectified by said rectifier for supply to a load, and a voltage control device (180, 180A, 180B) controlling a voltage between said rectifier and said voltage converter to attain a predetermined target voltage, characterized in that said voltage control device sets said target voltage based on a magnitude of reception electric power.
A device for controlling the switching of the contacts in an electrical apparatus comprising a unit inside which are mounted a control lever in a pivot connection with the unit and configured to be rotationally displaced between a first position corresponding to a position wherein the contacts are closed on a primary power supply and a second position corresponding to a position wherein the contacts are closed on a secondary power supply, a rotating element connected to the lever by an intermediate shaft, an actuating shaft mechanically connected to the rotating element and to electrical contacts and configured to pivot between a first and a second position to switch between the electrical contacts, the unit further comprising a slot traversed by the lever to allow it to be actuated from outside the unit in a manual operating mode of the device, characterized in that it comprises a torsion spring including a first end cooperating with the control lever and a second end cooperating with the rotating element, and a first pawl and a second pawl scissor-mounted via a torsion spring, the first pawl cooperating, in a manual operating mode of the device, with a first stop of the rotating element in a first position of the rotating element and with a first cam track of the control lever to disengage the first pawl from the first stop and release the rotating element, and the second pawl cooperating, in a manual operating mode of the device, with a second stop of the rotating element in a second position of the rotating element and with a second cam track of the control lever to disengage the second pawl from the second stop and release the rotating element. characterized in that it comprises a torsion spring including a first end cooperating with the control lever and a second end cooperating with the rotating element, and a first pawl and a second pawl scissor-mounted via a torsion spring, the first pawl cooperating, in a manual operating mode of the device, with a first stop of the rotating element in a first position of the rotating element and with a first cam track of the control lever to disengage the first pawl from the first stop and release the rotating element, and the second pawl cooperating, in a manual operating mode of the device, with a second stop of the rotating element in a second position of the rotating element and with a second cam track of the control lever to disengage the second pawl from the second stop and release the rotating element.
A light emitting module (100, 200, 300, 310, 400, 10) adapted to produce white output light having an emission peak in the wavelength range from 400 to 440 nm, comprising: - at least one first light emitting element (101, 201, 301, 401, 110) adapted to emit light having an emission peak in a first wavelength range from 440 to 460 nm; - at least one wavelength converting material (104, 204, 304, 306, 35, 85) arranged to receive light emitted by said first light emitting element, and being capable of emitting light having an emission peak in the green to red wavelength range; and - at least one second light emitting element (102, 202, 302, 402, 120) adapted to emit light having an emission peak in a second wavelength range from 400 to 440 nm, wherein said light emitting module is adapted to produce a ratio B of the integral spectral power distribution E(λ) of the wavelength range from 435 to 465 nm to the integral spectral power distribution of the total spectrum emitted by the light emitting module defined by ∫ 435 465 E λ d ⁢ λ ∫ 380 780 E λ d ⁢ λ = B, wherein 0 < B < 0.15. - at least one first light emitting element (101, 201, 301, 401, 110) adapted to emit light having an emission peak in a first wavelength range from 440 to 460 nm; - at least one wavelength converting material (104, 204, 304, 306, 35, 85) arranged to receive light emitted by said first light emitting element, and being capable of emitting light having an emission peak in the green to red wavelength range; and - at least one second light emitting element (102, 202, 302, 402, 120) adapted to emit light having an emission peak in a second wavelength range from 400 to 440 nm,
A method for coupling electrode leads of unit modules or battery cells (unit cells) in a battery module comprising the step consisting of: (i) Providing a battery module including unit modules or a battery module comprising battery cells (unit cells), said unit modules or battery cells comprising electrode leads having a plate-shaped structure; (ii) Providing a bus bar having a plate-shaped structure and a protrusion projecting toward the electrode leads formed on the bus bar at a portion thereof; (iii) Placing the electrode leads on the bus bar to provide portions of the electrode leads in contact with the bus bar, (iv) Depressing the electrode leads at both sides of the electrode leads, centered on the protrusion of the bus bar, and (v) Performing a laser welding by irradiating with laser light the portions of the electrode leads (i) Providing a battery module including unit modules or a battery module comprising battery cells (unit cells), said unit modules or battery cells comprising electrode leads having a plate-shaped structure; (ii) Providing a bus bar having a plate-shaped structure and a protrusion projecting toward the electrode leads formed on the bus bar at a portion thereof; (iii) Placing the electrode leads on the bus bar to provide portions of the electrode leads in contact with the bus bar, (iv) Depressing the electrode leads at both sides of the electrode leads, centered on the protrusion of the bus bar, and (v) Performing a laser welding by irradiating with laser light the portions of the electrode leads
An image processing apparatus comprising: a plurality of buffers (120,220), a first buffer from among the plurality of buffers (120,220) storing a first frame; and a controller (110,210) configured to obtain frame information of a second frame, comprising second object information about a second object added in the second frame and second object location information indicating a second object area of the second object in the second frame, to detect a duplicate area in the first frame, the duplicate area being a first object area excluding an overlapping area of the first object area of the first frame and the second object area of the second frame, to copy the duplicate area stored in the first buffer to a second buffer from among the plurality of buffers (120,220), and to draw the second object in the second buffer based on the frame information of the second frame, wherein the controller (110,210) is further configured to obtain frame information of a third frame, comprising third object information about a third object added in the third frame and third object location information indicating a third object area of the third object in the third frame, to detect a further duplicate area in the second frame, the further duplicate area being the second object area excluding an overlapping area of the second object area and the third object area, to copy the further duplicate area stored in the second buffer to the first frame stored in the first buffer, and to draw the third object in the first buffer, based on the frame information of the third frame. a plurality of buffers (120,220), a first buffer from among the plurality of buffers (120,220) storing a first frame; and a controller (110,210) configured to obtain frame information of a second frame, comprising second object information about a second object added in the second frame and second object location information indicating a second object area of the second object in the second frame, to detect a duplicate area in the first frame, the duplicate area being a first object area excluding an overlapping area of the first object area of the first frame and the second object area of the second frame, to copy the duplicate area stored in the first buffer to a second buffer from among the plurality of buffers (120,220), and to draw the second object in the second buffer based on the frame information of the second frame, wherein the controller (110,210) is further configured to obtain frame information of a third frame, comprising third object information about a third object added in the third frame and third object location information indicating a third object area of the third object in the third frame, to detect a further duplicate area in the second frame, the further duplicate area being the second object area excluding an overlapping area of the second object area and the third object area, to copy the further duplicate area stored in the second buffer to the first frame stored in the first buffer, and to draw the third object in the first buffer, based on the frame information of the third frame.
An illumination device comprising: a first light-emission part that emits light of a first correlated color temperature; a second light-emission part that emits light of a second correlated color temperature, the second correlated color temperature being lower than the first correlated color temperature; an optical member that is disposed at least on an optical path of the light emitted from the second light-emission part; and a color adjustment unit that adjusts a color of light that is a mixture of the light emitted from the first light-emission part and the light emitted from the second light-emission part by controlling an intensity of the light emitted from the first light-emission part and an intensity of the light emitted from the second light-emission part, characterized in that: in a spectrum of the light emitted from the second light-emission part, a maximum intensity within a wavelength range from 400 nm to 500 nm is no greater than one-tenth of a maximum intensity within a wavelength range from 300 nm to 800 nm. a first light-emission part that emits light of a first correlated color temperature; a second light-emission part that emits light of a second correlated color temperature, the second correlated color temperature being lower than the first correlated color temperature; an optical member that is disposed at least on an optical path of the light emitted from the second light-emission part; and a color adjustment unit that adjusts a color of light that is a mixture of the light emitted from the first light-emission part and the light emitted from the second light-emission part by controlling an intensity of the light emitted from the first light-emission part and an intensity of the light emitted from the second light-emission part, characterized in that: in a spectrum of the light emitted from the second light-emission part, a maximum intensity within a wavelength range from 400 nm to 500 nm is no greater than one-tenth of a maximum intensity within a wavelength range from 300 nm to 800 nm. in a spectrum of the light emitted from the second light-emission part, a maximum intensity within a wavelength range from 400 nm to 500 nm is no greater than one-tenth of a maximum intensity within a wavelength range from 300 nm to 800 nm.
A combination of a marine peptide and a fish nucleotide for use in the treatment of a condition selected from the group consisting of pre-diabetes and diabetes, by reducing postprandial concentrations of glucose in a subject's blood wherein the combination is administered to the subject prior to or during a meal and wherein the marine peptide is a fish protein hydrolysate.
A flowmeter including a sensor assembly and a meter electronics, comprising: two or more flow tubes (130, 130'); a driver coupled to the two flow tubes (130, 130') and configured to induce a drive mode vibration in the two flow tubes (130, 130'); characterized by: two or more strain gages (200A-D) coupled to the two flow tubes (130, 130') and configured to detect a phase of the drive mode vibration, wherein a first strain gage of the two or more strain gages (200A-D) is mounted to a first flow tube and a second strain gage of the two or more strain gages (200A-D) is mounted to a second flow tube; one or more bridge circuits (206, 206') in electrical communication with the two or more strain gages (200A-D), configured to output a signal indicating an asymmetric flow between the two or more flow tubes (130, 130'); and wherein a strain gage of the two or more strain gages (200A-D) is placed proximate a brace bar (140, 140') so that the strain gage of the two or more strain gages (200A-D) is subjected to approximately a maximum strain amplitude of the two or more flow tubes (130, 130') induced by the drive mode vibration. two or more flow tubes (130, 130'); a driver coupled to the two flow tubes (130, 130') and configured to induce a drive mode vibration in the two flow tubes (130, 130'); characterized by: two or more strain gages (200A-D) coupled to the two flow tubes (130, 130') and configured to detect a phase of the drive mode vibration, wherein a first strain gage of the two or more strain gages (200A-D) is mounted to a first flow tube and a second strain gage of the two or more strain gages (200A-D) is mounted to a second flow tube; one or more bridge circuits (206, 206') in electrical communication with the two or more strain gages (200A-D), configured to output a signal indicating an asymmetric flow between the two or more flow tubes (130, 130'); and wherein a strain gage of the two or more strain gages (200A-D) is placed proximate a brace bar (140, 140') so that the strain gage of the two or more strain gages (200A-D) is subjected to approximately a maximum strain amplitude of the two or more flow tubes (130, 130') induced by the drive mode vibration. two or more strain gages (200A-D) coupled to the two flow tubes (130, 130') and configured to detect a phase of the drive mode vibration, wherein a first strain gage of the two or more strain gages (200A-D) is mounted to a first flow tube and a second strain gage of the two or more strain gages (200A-D) is mounted to a second flow tube; one or more bridge circuits (206, 206') in electrical communication with the two or more strain gages (200A-D), configured to output a signal indicating an asymmetric flow between the two or more flow tubes (130, 130'); and wherein a strain gage of the two or more strain gages (200A-D) is placed proximate a brace bar (140, 140') so that the strain gage of the two or more strain gages (200A-D) is subjected to approximately a maximum strain amplitude of the two or more flow tubes (130, 130') induced by the drive mode vibration.