mhurhangee/ep-ind-claims huggingface dataset:
A headset transmission adapted to mount to or about a steerer tube rotationally mounted relative to a head-tube of a cycle frame via a headset, comprising or including: a first transmission member mountable at least in part about a rotational axis of said steerer tube, which first transmission member: can rotate with said steerer tube about said rotational axis; can translate relative to said steerer tube to transmit a first displacement force to or from a handle bar mounted lever or device; and wherein said first displacement force is transmitted to or from said first transmission member to said handle bar mounted lever or device from an interior of said steerer tube; a second transmission member mountable at least in part about said rotational axis of said steerer tube, which second transmission member: is adapted to be mounted only on, or from, said steerer tube; is rotationally isolated, so as to rotate relative to said first transmission member; can directly or indirectly translate with said first transmission member; and wherein said second transmission member allows transmission of a second displacement force, at least proportional to said first displacement force, to or from a cycle frame mounted lever or device (17, 41). a first transmission member mountable at least in part about a rotational axis of said steerer tube, which first transmission member: can rotate with said steerer tube about said rotational axis; can translate relative to said steerer tube to transmit a first displacement force to or from a handle bar mounted lever or device; and wherein said first displacement force is transmitted to or from said first transmission member to said handle bar mounted lever or device from an interior of said steerer tube; can rotate with said steerer tube about said rotational axis; can translate relative to said steerer tube to transmit a first displacement force to or from a handle bar mounted lever or device; and wherein said first displacement force is transmitted to or from said first transmission member to said handle bar mounted lever or device from an interior of said steerer tube; a second transmission member mountable at least in part about said rotational axis of said steerer tube, which second transmission member: is adapted to be mounted only on, or from, said steerer tube; is rotationally isolated, so as to rotate relative to said first transmission member; can directly or indirectly translate with said first transmission member; and wherein said second transmission member allows transmission of a second displacement force, at least proportional to said first displacement force, to or from a cycle frame mounted lever or device (17, 41). is adapted to be mounted only on, or from, said steerer tube; is rotationally isolated, so as to rotate relative to said first transmission member; can directly or indirectly translate with said first transmission member; and wherein said second transmission member allows transmission of a second displacement force, at least proportional to said first displacement force, to or from a cycle frame mounted lever or device (17, 41).
A filtration system comprising: - a filtration unit comprising at least one filter element for filtration of a fluid, the at least one filter element having a main flow direction for the fluid, and wherein the filtration unit is configured to tilt the at least one filter element around a tilting axis to change an orientation of the main flow direction; - a main unit fluidly connectable to the filtration unit, the main unit comprising: - a supply unit configured to supply the fluid to the at least one filter element; and - a control unit configured to control supplying and/or evacuating the fluid to/from the at least one filter element and to control tilting of the at least one filter element around the tilting axis, wherein the control unit is configured to tilt the at least one filter element around the tilting axis to change the orientation of the main flow direction between a first orientation and a second orientation, the first orientation being a horizontal orientation and the second orientation being a vertical orientation, and wherein the control unit is configured, for a filtration phase, to tilt the at least one filter element around the tilting axis to change the orientation of the main flow direction into an orientation between the first orientation and the second orientation. - a filtration unit comprising at least one filter element for filtration of a fluid, the at least one filter element having a main flow direction for the fluid, and wherein the filtration unit is configured to tilt the at least one filter element around a tilting axis to change an orientation of the main flow direction; - a main unit fluidly connectable to the filtration unit, the main unit comprising: - a supply unit configured to supply the fluid to the at least one filter element; and - a control unit configured to control supplying and/or evacuating the fluid to/from the at least one filter element and to control tilting of the at least one filter element around the tilting axis, wherein the control unit is configured to tilt the at least one filter element around the tilting axis to change the orientation of the main flow direction between a first orientation and a second orientation, the first orientation being a horizontal orientation and the second orientation being a vertical orientation, and wherein the control unit is configured, for a filtration phase, to tilt the at least one filter element around the tilting axis to change the orientation of the main flow direction into an orientation between the first orientation and the second orientation. - a supply unit configured to supply the fluid to the at least one filter element; and - a control unit configured to control supplying and/or evacuating the fluid to/from the at least one filter element and to control tilting of the at least one filter element around the tilting axis,
A cartridge configured to accommodate developer, comprising: a detected member (96, 150) configured to rotate in a first direction about a first rotational axis extending in an axial direction, the detected member comprising a first detected part (114, 153) configured to be detected by an external first sensor; and a drive-force transmission member configured to transmit a drive force to the detected member upon receipt of the drive force from outside, the detected member further including a receiving part (110, 153) configured to contact the drive-force transmission member to receive the drive force therefrom, a portion of the first detected part and a portion of the receiving part, both portions being arranged at the same position in the axial direction, and wherein the detected member is configured to rotate from a first position to a second position, the first detected part (114, 153) being configured to receive the drive force from the drive-force transmission member at the first position, the first detected part being detectable by the external first sensor at the second position, characterized in that the first detected part (114, 153) constitutes a part of the receiving part (110, 153). a detected member (96, 150) configured to rotate in a first direction about a first rotational axis extending in an axial direction, the detected member comprising a first detected part (114, 153) configured to be detected by an external first sensor; and a drive-force transmission member configured to transmit a drive force to the detected member upon receipt of the drive force from outside, the detected member further including a receiving part (110, 153) configured to contact the drive-force transmission member to receive the drive force therefrom, a portion of the first detected part and a portion of the receiving part, both portions being arranged at the same position in the axial direction, and
An extrusion-based additive manufacturing method for manufacturing an object using a 3D-printing apparatus, wherein the 3D-printing apparatus comprises a nozzle (210, 310, 450) arranged to deposit one or more adjacently arranged filaments of printing material, and wherein the method comprises the steps of: - depositing the one or more adjacently arranged filaments of printing material to form at least one layer of the object, bringing at least one exterior surface of the nozzle (210, 310, 450) into abutting contact with a peripheral edge of the at least one layer; and - guiding the nozzle (210, 310, 450) along at least a portion of the peripheral edge of the at least one layer and on a predetermined distance into the at least one layer. - depositing the one or more adjacently arranged filaments of printing material to form at least one layer of the object, bringing at least one exterior surface of the nozzle (210, 310, 450) into abutting contact with a peripheral edge of the at least one layer; and - guiding the nozzle (210, 310, 450) along at least a portion of the peripheral edge of the at least one layer and on a predetermined distance into the at least one layer.
A method for inputting characters in a mobile communication device having a display, a keyboard and a memory, the method comprising: responsive to a first input, receiving an input character; associating a plurality of available language character sets in the memory with particular positions in a first menu, wherein the character sets are permanently assigned to the particular positions; displaying the first menu containing the plurality of available language character sets for selection; responsive to a second input reflecting a directional swipe (232, 332) toward the particular position of one of the language character sets on the first menu, displaying available language variant characters associated with both the input character and the language character set associated with the directional swipe at particular positions in a second menu; and responsive to a third input reflecting a directional swipe (234, 334) toward the position of a particular one of the language variant characters on the second menu, outputting the particular language variant character as a selected character. responsive to a first input, receiving an input character; associating a plurality of available language character sets in the memory with particular positions in a first menu, wherein the character sets are permanently assigned to the particular positions; displaying the first menu containing the plurality of available language character sets for selection; responsive to a second input reflecting a directional swipe (232, 332) toward the particular position of one of the language character sets on the first menu, displaying available language variant characters associated with both the input character and the language character set associated with the directional swipe at particular positions in a second menu; and responsive to a third input reflecting a directional swipe (234, 334) toward the position of a particular one of the language variant characters on the second menu, outputting the particular language variant character as a selected character.
A powderized material composition for a varistor, comprising: a metal conductor, a semi-conductive metallic oxide or semi-conductive material; and a glass material; characterized in that the powderized material composition has a core-shell microstructure wherein a grain forming a cored-structure is made of said metal conductor, semi-conductive metallic oxide or semi-conductive material and a shelled-structure wrapped around the surface of the grain of the cored-structure to form an insulating layer is made from said glass material. a metal conductor, a semi-conductive metallic oxide or semi-conductive material; and a glass material;
A match making method in an electronic dart game device including a communication function with an external device, the method comprising: receiving, by a player input unit, a match making request that was input by a player; receiving, by a controller (190;405), information associated with an opposing player selected by a match making algorithm, wherein the controller (190;405) selects the opposing player which is in the same place among players associated with one or more other grouped electronic dart game devices based on electronic dart game device unique identification information and electronic dart game device positional information, and wherein the controller (190;405) selects the electronic dart game device for playing the game together with the selected opposing player at the same place based on the electronic dart game device unique identification information and the electronic dart game device positional information; outputting, by an output unit, information associated with the electronic dart game device which the player and the opposing player are to play, and signaling, by a network connection unit, to drive a selected electronic dart game device which the player and the opposing player are to play when a match approval input is received from the player and/or the opposing player, to allow the player and the opposing player to perform a play. receiving, by a player input unit, a match making request that was input by a player; receiving, by a controller (190;405), information associated with an opposing player selected by a match making algorithm, wherein the controller (190;405) selects the opposing player which is in the same place among players associated with one or more other grouped electronic dart game devices based on electronic dart game device unique identification information and electronic dart game device positional information, and wherein the controller (190;405) selects the electronic dart game device for playing the game together with the selected opposing player at the same place based on the electronic dart game device unique identification information and the electronic dart game device positional information; outputting, by an output unit, information associated with the electronic dart game device which the player and the opposing player are to play, and signaling, by a network connection unit, to drive a selected electronic dart game device which the player and the opposing player are to play when a match approval input is received from the player and/or the opposing player, to allow the player and the opposing player to perform a play.
An OCT microprobe comprising: a spring tube, which is capable of providing sufficient torque to keep synchronization of both a distal tip and a proximal tip of the probe when the probe with a certain length is rotating, and a single-mode optical fiber that transmits optical signals is inserted in the spring tube; a lens assembly, making the light from the optical fiber to be focused at a position with a preset working distance, wherein the lens assembly comprises: a glass rod; a grin lens; and a reflector, wherein the reflector changes forward light rays to lateral light rays, and the reflector is a cylindrical-surface reflector; characterized in that the glass rod is glued to the single-mode optical fiber, a gluing distance between the glass rod and the single-mode optical fiber is determined to achieve a working distance of the OCT microprobe; the grin lens is glued with the glass rod; and wherein the glass rod is configured to diffusely transmit the light, such that a clear aperture of the grin lens is increased by the glass rod glued between the single-mode optical fiber and the grin lens, thereby increasing a numerical aperture of the OCT microprobe and to improve a transverse resolution of the OCT microprobe. a spring tube, which is capable of providing sufficient torque to keep synchronization of both a distal tip and a proximal tip of the probe when the probe with a certain length is rotating, and a single-mode optical fiber that transmits optical signals is inserted in the spring tube; a lens assembly, making the light from the optical fiber to be focused at a position with a preset working distance, wherein the lens assembly comprises: a glass rod; a grin lens; and a reflector, wherein the reflector changes forward light rays to lateral light rays, and the reflector is a cylindrical-surface reflector; a glass rod; a grin lens; and a reflector, wherein the reflector changes forward light rays to lateral light rays, and the reflector is a cylindrical-surface reflector; characterized in that the glass rod is glued to the single-mode optical fiber, a gluing distance between the glass rod and the single-mode optical fiber is determined to achieve a working distance of the OCT microprobe; the grin lens is glued with the glass rod; and wherein the glass rod is configured to diffusely transmit the light, such that a clear aperture of the grin lens is increased by the glass rod glued between the single-mode optical fiber and the grin lens, thereby increasing a numerical aperture of the OCT microprobe and to improve a transverse resolution of the OCT microprobe.
An inductive angle sensor with common mode noise rejection, the inductive angle sensor comprising: an exciting coil formed with a ring shape and connected to an oscillator; a coupler formed with a semicircular shape and spaced a predetermined distance from the exciting coil; a pair of receiver coils (26, 28) disposed between the coupler and the exciting coil, the receiver coils (26, 28) each being formed with a semicircular shape in the same plane and disposed symmetrically on both sides of a center line; and a signal processor connected to the pair of receiver coils (26, 28) to output a signal obtained by adding and subtracting signals obtained from the receiver coils (26, 28) and then multiplying and dividing the signals, wherein the signal processor comprises an adder adding the signals obtained from the pair of receiver coils, a subtracter subtracting the signal obtained from one of the pair of receiver coils from the signal obtained from the other receiver coil, a first multiplier multiplying the value obtained from the adder by the value obtained from the subtracter and connected to a low pass filter, a second multiplier multiplying the value obtained from the subtracter by itself and connected to a low pass filter, and a divider dividing the value obtained from the first multiplier by the value obtained from the second multiplier. an exciting coil formed with a ring shape and connected to an oscillator; a coupler formed with a semicircular shape and spaced a predetermined distance from the exciting coil; a pair of receiver coils (26, 28) disposed between the coupler and the exciting coil, the receiver coils (26, 28) each being formed with a semicircular shape in the same plane and disposed symmetrically on both sides of a center line; and a signal processor connected to the pair of receiver coils (26, 28) to output a signal obtained by adding and subtracting signals obtained from the receiver coils (26, 28) and then multiplying and dividing the signals, wherein the signal processor comprises an adder adding the signals obtained from the pair of receiver coils, a subtracter subtracting the signal obtained from one of the pair of receiver coils from the signal obtained from the other receiver coil, a first multiplier multiplying the value obtained from the adder by the value obtained from the subtracter and connected to a low pass filter, a second multiplier multiplying the value obtained from the subtracter by itself and connected to a low pass filter, and a divider dividing the value obtained from the first multiplier by the value obtained from the second multiplier.
An oven, such as a microwave oven, a steamer or the like, configured to heat and/or cook food, comprising: an oven cavity to accommodate food to be heated; a plate placable inside the oven cavity for carrying the food; characterized in that: at least one moisture sensor is integrated into the plate and is configured to measure a moisture value of a partial surface of the food defining a moisture measuring area; and a control unit configured to control an operation of the oven based on the measured moisture value. an oven cavity to accommodate food to be heated; a plate placable inside the oven cavity for carrying the food; characterized in that: at least one moisture sensor is integrated into the plate and is configured to measure a moisture value of a partial surface of the food defining a moisture measuring area; and a control unit configured to control an operation of the oven based on the measured moisture value. at least one moisture sensor is integrated into the plate and is configured to measure a moisture value of a partial surface of the food defining a moisture measuring area; and a control unit configured to control an operation of the oven based on the measured moisture value.
A method of dust control comprising spraying a composition comprising spores that give rise to urease-producing microorganisms, a nitrogen source, a calcium source and water on a surface wherein the urease-producing microorganisms produce urease that catalyses formation of a crust of calcium carbonate.
A sound processing apparatus comprising: a speaker selecting unit configured to select four processing-target speakers from a plurality of speakers based on a target sound image position; a gain calculating unit configured to calculate gains of the selected processing-target speakers based on the target sound image position and the select information supplied from the speaker selecting unit, wherein the gain calculating unit is configured to: determine a position of a virtual speaker based on the target sound image position and the select information supplied from the speaker selecting unit, by performing three-dimensional Vector Base Amplitude Panning, VBAP, calculate gains for the virtual speaker and two of the selected processing-target speakers based on the target sound image position, the select information, and the position of the virtual speaker, by performing two-dimensional VBAP, calculate gains for other two of the selected processing-target speakers based on the select information and the position of the virtual speaker, and multiply the gains of the other two of the selected processing-target speakers by the gain of the virtual speaker. a speaker selecting unit configured to select four processing-target speakers from a plurality of speakers based on a target sound image position; a gain calculating unit configured to calculate gains of the selected processing-target speakers based on the target sound image position and the select information supplied from the speaker selecting unit, wherein the gain calculating unit is configured to: determine a position of a virtual speaker based on the target sound image position and the select information supplied from the speaker selecting unit, by performing three-dimensional Vector Base Amplitude Panning, VBAP, calculate gains for the virtual speaker and two of the selected processing-target speakers based on the target sound image position, the select information, and the position of the virtual speaker, by performing two-dimensional VBAP, calculate gains for other two of the selected processing-target speakers based on the select information and the position of the virtual speaker, and multiply the gains of the other two of the selected processing-target speakers by the gain of the virtual speaker. determine a position of a virtual speaker based on the target sound image position and the select information supplied from the speaker selecting unit, by performing three-dimensional Vector Base Amplitude Panning, VBAP, calculate gains for the virtual speaker and two of the selected processing-target speakers based on the target sound image position, the select information, and the position of the virtual speaker, by performing two-dimensional VBAP, calculate gains for other two of the selected processing-target speakers based on the select information and the position of the virtual speaker, and multiply the gains of the other two of the selected processing-target speakers by the gain of the virtual speaker.