mhurhangee/patent-ind-claim-en huggingface dataset:
A lifting device for carrying a supported apparatus, wherein the lifting device comprises a driving device , a first lever having a first length, a second lever having a second length, and a plurality of support feet ; wherein the driving device is adapted to be disposed at the bottom of the supported apparatus ; wherein the support feet are adapted to be vertically movably disposed at the bottom of the supported apparatus ; Characterized in that the lifting device comprises a connecting rod , wherein a first end of the connecting rod is pivotally connected to the driving device , and a second end of the connecting rod is pivotally connected to a first end of the first lever and a first end of the second lever respectively; wherein a second end of the first lever is pivotally connected to one of the support feet , and the first lever is adapted to be pivotally connected to the supported apparatus between the first end and the second end thereof; and wherein a second end of the second lever is pivotally connected to another one of the support feet , and the second lever is adapted to be pivotally connected to the supported apparatus between the first end and the second end thereof. wherein the driving device is adapted to be disposed at the bottom of the supported apparatus ; wherein the support feet are adapted to be vertically movably disposed at the bottom of the supported apparatus ; Characterized in that the lifting device comprises a connecting rod , wherein a first end of the connecting rod is pivotally connected to the driving device , and a second end of the connecting rod is pivotally connected to a first end of the first lever and a first end of the second lever respectively; wherein a second end of the first lever is pivotally connected to one of the support feet , and the first lever is adapted to be pivotally connected to the supported apparatus between the first end and the second end thereof; and wherein a second end of the second lever is pivotally connected to another one of the support feet , and the second lever is adapted to be pivotally connected to the supported apparatus between the first end and the second end thereof.
A method for manufacturing a processing apparatus equipped with a catalyst-supporting honeycomb structure, which is characterized by consisting of a step of baking a glass fiber paper containing an organic binder component to remove the organic binder component contained in the glass fiber paper by burning; a step of applying a functional catalyst-containing slurry which contains a silica sol on the glass fiber paper after removal of the organic binder component; a step of shaping the functional catalyst-containing slurry-applied glass fiber paper by a crimping die and a pressing jig; a step of drying the shaped, corrugated plate-like functional catalyst-containing slurry-applied glass fiber paper and peeling off it from the die; meanwhile, a step of drying the flat plate-like functional catalyst slurry-applied glass fiber paper having not been shaped in a corrugated plate-like form; a step of calcinating the corrugated plate-like functional catalyst-containing slurry-applied glass fiber paper and the flat plate-like functional catalyst slurry-applied glass fiber paper to form a functional catalyst-supporting, flat plate-like glass fiber paper and a functional catalyst-supporting, corrugated plate-like glass fiber paper; a step of laying an inorganic fiber blanket in a casing ; and a step of alternately laminating the functional catalyst-supporting, flat plate-like glass fiber paper after calcination and the functional catalyst-supporting, corrugated plate-like glass fiber paper after calcination without being bonded to each other, to form a catalyst-supporting honeycomb structure and packing this catalyst-supporting honeycomb structure in the casing .
An apparatus for generating a plurality of phase-shifted clock signals, comprising: a first input node configured to receive a first reference clock signal ; a second input node configured to receive a second reference clock signal ; a plurality of output nodes (140-1, ..., 140-M) each configured to output one of the plurality of phase-shifted clock signals (103-1, ..., 103-M); and a cascade of coupled clock generation circuits (110-1, ..., 110-N) configured to generate the plurality of phase-shifted clock signals (103-1, ..., 103-M) based on the first reference clock signal and the second reference clock signal , wherein input nodes of the first clock generation circuit (110-1) of the cascade of clock generation circuits (110-1, ..., 110-N) are coupled to the first input node and the second input node , wherein output nodes of the last clock generation circuit (110-N) of the cascade of clock generation circuits (110-1, ..., 110-N) are coupled to the plurality of output nodes (140-1, ..., 140-M), wherein at least one of the plurality of clock generation circuits (110-1, ..., 110-N) is an active circuit, and wherein at least one of the plurality of clock generation circuits (110-1, ..., 110-N) is a passive circuit. a first input node configured to receive a first reference clock signal ; a second input node configured to receive a second reference clock signal ; a plurality of output nodes (140-1, ..., 140-M) each configured to output one of the plurality of phase-shifted clock signals (103-1, ..., 103-M); and a cascade of coupled clock generation circuits (110-1, ..., 110-N) configured to generate the plurality of phase-shifted clock signals (103-1, ..., 103-M) based on the first reference clock signal and the second reference clock signal , wherein input nodes of the first clock generation circuit (110-1) of the cascade of clock generation circuits (110-1, ..., 110-N) are coupled to the first input node and the second input node , wherein output nodes of the last clock generation circuit (110-N) of the cascade of clock generation circuits (110-1, ..., 110-N) are coupled to the plurality of output nodes (140-1, ..., 140-M), wherein at least one of the plurality of clock generation circuits (110-1, ..., 110-N) is an active circuit, and wherein at least one of the plurality of clock generation circuits (110-1, ..., 110-N) is a passive circuit.
A fuel tank inerting system, comprising a fuel tank; an air source arranged to supply air into a reactive flow path; a catalytic reactor comprising a plurality of sub-reactors (308A-F) arranged along the reactive flow path; a heat exchanger , wherein the plurality of sub-reactors are arranged relative to the heat exchanger such that the reactive flow path passes through at least a portion of the heat exchanger between two of the plurality of sub-reactors along the reactive flow path; at least one fuel injector arranged relative to at least one sub-reactor of the plurality of sub-reactors (308A-F), the at least one fuel injector configured to inject fuel into the reactive flow path at at least one of upstream of and in the respective at least one sub-reactor to generate a fuel-air mixture; and a fuel tank ullage supply line fluidly connecting the reactive flow path to the fuel tank to supply an inert gas to a ullage of the fuel tank.
A quick slide-out-type outdoor tool pouch, comprising a pouch body (A) for accommodating content, wherein an opening for taking out the content is arranged on the top of the pouch body (A), a pouch cover is further provided and the rear end of the pouch cover is connected to the pouch body (A) and is rotatable to cover the opening, and wherein a sliding band is provided, an end of the sliding band is connected to the inner side of the pouch body (A) via a connection place , and the connection place is located on the inner side of the pouch body (A) on a side connected to the pouch cover ; a through-outlet for pass-through of the sliding band is opened on a side of the pouch body (A) opposite to the connection place ; a holding part is provided on the outer side of the front end of the pouch cover and has at least an upper entrance , and the front end of the sliding band can be inserted into the holding part after being folded, characterized in that , a pouch body lace is provided on the outer side of the pouch body (A) and above the through-outlet and the sliding band can pass between the pouch body lace and the pouch body (A). a sliding band is provided, an end of the sliding band is connected to the inner side of the pouch body (A) via a connection place , and the connection place is located on the inner side of the pouch body (A) on a side connected to the pouch cover ; a through-outlet for pass-through of the sliding band is opened on a side of the pouch body (A) opposite to the connection place ; a holding part is provided on the outer side of the front end of the pouch cover and has at least an upper entrance , and the front end of the sliding band can be inserted into the holding part after being folded, characterized in that , a pouch body lace is provided on the outer side of the pouch body (A) and above the through-outlet and the sliding band can pass between the pouch body lace and the pouch body (A).
A method for an assessment of a movement of a limb-related point in a predetermined 3D space effected by a user displacing said limb in the 3D space , comprising the steps of: providing a computer comprising a processor, memory and a computer program, providing one or more display surfaces (101-105) around the 3D space around the user , providing a limb position point connected to a predetermined portion of the limb of the user which is associated to the limb-related point , providing one or more sensors adapted to detect the position of the limb position point in the 3D space in relation to a predetermined plane, calculating, using the computer program adapted thereto, a position (x,y) of the limb-related point in said plane being a value of a first function of the position of the limb-related point , and providing a representation of the position of the limb-related point in the 3D space being related to the distance (z) to that plane as a second function of said value on one of the display surfaces (100-105). providing a computer comprising a processor, memory and a computer program, providing one or more display surfaces (101-105) around the 3D space around the user , providing a limb position point connected to a predetermined portion of the limb of the user which is associated to the limb-related point , providing one or more sensors adapted to detect the position of the limb position point in the 3D space in relation to a predetermined plane, calculating, using the computer program adapted thereto, a position (x,y) of the limb-related point in said plane being a value of a first function of the position of the limb-related point , and providing a representation of the position of the limb-related point in the 3D space being related to the distance (z) to that plane as a second function of said value on one of the display surfaces (100-105).
Method of handling stacks of flexible substrates by means of a gripper , the gripper being arranged on an arm of a robot and having a lower finger and a corresponding upper finger , said method comprising the steps of inserting said lower finger below a bottom substrate of a stack resting on a base and said upper finger above a top substrate of the stack , and gripping the stack by clamping it between said lower and upper finger, characterised by the further steps of lifting the entire stack into a pendent state by first lifting a stack front by means of the gripper and, while letting the gripper follow a natural inclination direction of said front , lifting the gripper until it is directed vertically downwards, in the pendent state, moving the stack by means of the gripper to a support , at the support lowering the stack by means of the gripper such that a stack rear (20"), which is opposite to said stack front , comes into contact with the support , and then laying out the entire stack on the support with said bottom substrate up by further lowering the gripper while horizontally displacing it in a bottom-to-top substrate direction before finally letting it release the stack .
A touch panel comprising: a cover substrate comprising an active area (AA) and an unactive area (UA); a sensing electrode extending from the active area toward the unactive area; a printing layer on the unactive area (UA); and a wire electrode on the printing layer, wherein the printing layer includes a conductive member , wherein the sensing electrode makes contact with one surface of the cover substrate, wherein the printing layer covers one end of the sensing electrode, and a conductive member is provided in at least one of an inner area or an inner area and an outer area of the printing layer, characterized in that the printing layer comprises photoresist resin composition., in that the printing layer has surface roughness(Ra) in a range of 0.4 μ m to 0.6 μ m, in that the printing layer has straightness in a range of ±0.1 μ m to ±10 μ m, and in that the conductive member includes a conductive ball having a particle size in the range of 5 μ m to 10 μ m. a cover substrate comprising an active area (AA) and an unactive area (UA); a sensing electrode extending from the active area toward the unactive area; a printing layer on the unactive area (UA); and a wire electrode on the printing layer, wherein the printing layer includes a conductive member , wherein the sensing electrode makes contact with one surface of the cover substrate, wherein the printing layer covers one end of the sensing electrode, and a conductive member is provided in at least one of an inner area or an inner area and an outer area of the printing layer, characterized in that the printing layer comprises photoresist resin composition., in that the printing layer has surface roughness(Ra) in a range of 0.4 μ m to 0.6 μ m, in that the printing layer has straightness in a range of ±0.1 μ m to ±10 μ m, and in that the conductive member includes a conductive ball having a particle size in the range of 5 μ m to 10 μ m.
A stormwater drain insert comprising: a peripheral frame ; a top bib comprising water permeable fabric, an outer peripheral edge supported by the peripheral frame , and an opening inside the peripheral frame ; a sediment bag comprising water permeable fabric extending downward from the top bib and having a top rim adjacent to the opening of the top bib ; and at least one overflow port in a sidewall of the sediment bag ; characterized in that the stormwater drain insert further comprises an overhanging ring extending from the top bib laterally inward from the top rim of the sediment bag defining an overhang distance; and the at least one overflow port is located vertically below the overhanging ring . a peripheral frame ; a top bib comprising water permeable fabric, an outer peripheral edge supported by the peripheral frame , and an opening inside the peripheral frame ; a sediment bag comprising water permeable fabric extending downward from the top bib and having a top rim adjacent to the opening of the top bib ; and at least one overflow port in a sidewall of the sediment bag ; characterized in that the stormwater drain insert further comprises an overhanging ring extending from the top bib laterally inward from the top rim of the sediment bag defining an overhang distance; and the at least one overflow port is located vertically below the overhanging ring .
A directional valve for use in hydraulic systems, comprising a valve body having a cylindrical bore and at least four fluid passages (14a, 14b, 15; 62, 63, 64) connected to the cylindrical bore , a rotating body having at least one means for allowing fluid flowing through the fluid passages (14a, 14b, 15; 62, 63, 64), and at least one means for blocking fluid flowing through the fluid passages (14a, 14b, 15; 62, 63, 64), at least one sealing arranged inside said cylindrical bore , said sealing having an outer lateral surface parallel with the axis of the cylindrical bore , and an inner lateral surface parallel with the lateral surface of the rotating body , wherein the rotating body comprises a frusto-conical shape, and wherein the sealing comprises at least four openings aligned with said at least four fluid passages, characterized in that the valve body comprises a recess and said sealing comprises a non-circular lip at a bottom part of the sealing , the non-circular lip being received by said recess for preventing the sealing from rotating.
An artificial urinary sphincter system comprising: a cuff having a pre-shaped spiral tube to be wrapped around a urethra, the cuff having a fluid lumen extending between a first end portion and a second end portion ; a connector having a fluid lumen coupled to the first end portion and the second end portion of the cuff such that fluid flows through the connector to the first end portion and the second end portion of the cuff; a reservoir to provide a fluid with a regulated fluid pressure; a control device to be fluidically coupled to the reservoir , the control device having a valve, that upon activation, allows the fluid to move from the reservoir into the cuff , thus expanding the cuff to allow the urethra to open for voiding. a cuff having a pre-shaped spiral tube to be wrapped around a urethra, the cuff having a fluid lumen extending between a first end portion and a second end portion ; a connector having a fluid lumen coupled to the first end portion and the second end portion of the cuff such that fluid flows through the connector to the first end portion and the second end portion of the cuff; a reservoir to provide a fluid with a regulated fluid pressure; a control device to be fluidically coupled to the reservoir , the control device having a valve, that upon activation, allows the fluid to move from the reservoir into the cuff , thus expanding the cuff to allow the urethra to open for voiding.
An integrated circuit device comprising: a microwell array having a plurality of reaction regions; each reaction region associated with two or more chemical sensors (331.1; 331.2; 331.3; 331.4), each chemical sensor comprising a row select switch (351.1; 351.2; 351.3; 351.4) and a chemically-sensitive field effect transistor (341.1; 341.2; 341.3; 341.4), the chemically-sensitive field effect transistors of a respective reaction region having a common floating gate in communication with the reaction region; the integrated circuit device further comprising: a column output circuit to obtain from each of the chemically-sensitive field effect transistors an individual output signal indicating an analyte within the respective reaction region. a microwell array having a plurality of reaction regions; each reaction region associated with two or more chemical sensors (331.1; 331.2; 331.3; 331.4), each chemical sensor comprising a row select switch (351.1; 351.2; 351.3; 351.4) and a chemically-sensitive field effect transistor (341.1; 341.2; 341.3; 341.4), the chemically-sensitive field effect transistors of a respective reaction region having a common floating gate in communication with the reaction region; the integrated circuit device further comprising: a column output circuit to obtain from each of the chemically-sensitive field effect transistors an individual output signal indicating an analyte within the respective reaction region.
An OLED display panel , comprising: a substrate ; a driver stack on the substrate, the driver stack including transistor arrays ; a visible light sensor stack , on the driver stack; and an emitter stack on the visible light sensor stack, the emitter stack comprising an OLED light emitter on the substrate, the OLED light emitter configured to emit light; wherein the visible light sensor stack comprises a visible light sensor on the substrate, the visible light sensor configured to detect at least a portion of the emitted light based on reflection of the portion of the emitted light from a recognition target, wherein the visible light sensor is between the substrate and a non-light emitting region that is adjacent to the OLED light emitter such that the visible light sensor is vertically aligned with the non-light emitting region in a vertical direction extending perpendicular to the upper surface of the substrate, and wherein the OLED light emitter includes a plurality of sub-pixels , including a red OLED sub-pixel , a green OLED sub-pixel , and a blue OLED sub-pixel , and characterized in that visible light sensor is partially overlapped with at least one OLED sub-pixel in the vertical direction. a substrate ; a driver stack on the substrate, the driver stack including transistor arrays ; a visible light sensor stack , on the driver stack; and an emitter stack on the visible light sensor stack, the emitter stack comprising an OLED light emitter on the substrate, the OLED light emitter configured to emit light; wherein the visible light sensor stack comprises a visible light sensor on the substrate, the visible light sensor configured to detect at least a portion of the emitted light based on reflection of the portion of the emitted light from a recognition target, wherein the visible light sensor is between the substrate and a non-light emitting region that is adjacent to the OLED light emitter such that the visible light sensor is vertically aligned with the non-light emitting region in a vertical direction extending perpendicular to the upper surface of the substrate, and wherein the OLED light emitter includes a plurality of sub-pixels , including a red OLED sub-pixel , a green OLED sub-pixel , and a blue OLED sub-pixel , and characterized in that visible light sensor is partially overlapped with at least one OLED sub-pixel in the vertical direction.