mhurhangee/patent-ind-claim-en huggingface dataset:
An air conditioner comprising: a floor-standing indoor unit ; a control board installed in the floor-standing indoor unit to control the floor-standing indoor unit ; a refrigerant sensor installed in the floor-standing indoor unit to output a detection signal with a duty ratio varied in accordance with concentration of a detected refrigerant; a luminous unit installed in the floor-standing indoor unit to change between a first illuminated state indicating that a signal transmission path transmitting the detection signal to the control board is disconnected, and a second illuminated state indicating that the signal transmission path is not disconnected; an illumination controller to turn on or turn off the luminous unit in the first illuminated state and blink the luminous unit in the second illuminated state; and further comprising a relay board disposed between the control board and the refrigerant sensor , wherein the illumination controller is installed on the relay board to turn off the luminous unit when the signal transmission path between the control board and the relay board is disconnected, and turn on the luminous unit when the signal transmission path between the relay board and the refrigerant sensor is disconnected. a floor-standing indoor unit ; a control board installed in the floor-standing indoor unit to control the floor-standing indoor unit ; a refrigerant sensor installed in the floor-standing indoor unit to output a detection signal with a duty ratio varied in accordance with concentration of a detected refrigerant; a luminous unit installed in the floor-standing indoor unit to change between a first illuminated state indicating that a signal transmission path transmitting the detection signal to the control board is disconnected, and a second illuminated state indicating that the signal transmission path is not disconnected; an illumination controller to turn on or turn off the luminous unit in the first illuminated state and blink the luminous unit in the second illuminated state; and further comprising a relay board disposed between the control board and the refrigerant sensor , wherein the illumination controller is installed on the relay board to turn off the luminous unit when the signal transmission path between the control board and the relay board is disconnected, and turn on the luminous unit when the signal transmission path between the relay board and the refrigerant sensor is disconnected.
A first user equipment, UE, comprising: a processor configured to: identify a layer 2, L2, destination identification, ID, determine whether to initiate a sidelink discontinuous, SL DRX, operation for a SL groupcast/broadcast operation, and determine a SL DRX start offset based on the L2 destination ID, and a transceiver operably connected to the processor, the transceiver configured to receive, from a second UE associated with the L2 destination ID, a physical sidelink control channel, PSCCH, and a physical sidelink shared channel, PSSCH, based on the SL DRX start offset. a processor configured to: identify a layer 2, L2, destination identification, ID, determine whether to initiate a sidelink discontinuous, SL DRX, operation for a SL groupcast/broadcast operation, and determine a SL DRX start offset based on the L2 destination ID, and identify a layer 2, L2, destination identification, ID, determine whether to initiate a sidelink discontinuous, SL DRX, operation for a SL groupcast/broadcast operation, and determine a SL DRX start offset based on the L2 destination ID, and a transceiver operably connected to the processor, the transceiver configured to receive, from a second UE associated with the L2 destination ID, a physical sidelink control channel, PSCCH, and a physical sidelink shared channel, PSSCH, based on the SL DRX start offset.
A pipe extending from a first portion to a second portion and arranged to transfer fluid at an operational pressure from the first portion to the second portion ; wherein the pipe comprises a first bend portion between the first and second portions in which the pipe transitions from extending in a first direction (C) to extending in a second direction (D), and a second bend portion between the first and second portions , in which the pipe transitions from extending in the second direction (D) to extending in a third direction (E); and wherein the first bend portion of the pipe comprises a first non-circular cross section and the second bend portion comprises a second, different, non-circular cross section , the first and second non-circular cross sections having shapes selected to resist relative movement of the first and second portions when the pipe is subject to the operational pressure; characterized in that the first non-circular cross section has a longest axis which lies in a plane defined by the first and second directions (C, D); and the second non-circular cross section has a longest axis which lies perpendicular to a plane defined by the second and third directions (D, E). wherein the pipe comprises a first bend portion between the first and second portions in which the pipe transitions from extending in a first direction (C) to extending in a second direction (D), and a second bend portion between the first and second portions , in which the pipe transitions from extending in the second direction (D) to extending in a third direction (E); and wherein the first bend portion of the pipe comprises a first non-circular cross section and the second bend portion comprises a second, different, non-circular cross section , the first and second non-circular cross sections having shapes selected to resist relative movement of the first and second portions when the pipe is subject to the operational pressure; characterized in that the first non-circular cross section has a longest axis which lies in a plane defined by the first and second directions (C, D); and the second non-circular cross section has a longest axis which lies perpendicular to a plane defined by the second and third directions (D, E).
A fuel cell module (M) including: an electrode member having a membrane electrode assembly , which is formed from an electrolyte membrane and a pair of electrode catalyst layers that is disposed on both sides of the electrolyte membrane in the thickness direction, and having a pair of porous layers disposed on both sides of the membrane electrode assembly in the thickness direction; and a separator disposed layered on the electrode member so as to contact at least one of the porous layers , characterized in that at least one porous layer among the pair of porous layers has a gas diffusion layer and a gas flow path layer whose porosity is larger than that of the gas diffusion layer , and the area of the membrane electrode assembly is larger than the area of at least one gas diffusion layer an adhesive rubber member is disposed on a peripheral edge portion of the electrode member so as to contact respectively the electrolyte membrane , the pair of electrode catalyst layers , and the pair of porous layers , a part of the adhesive rubber member impregnates the end portion of the pair of porous layers , the adhesive rubber member adheres to the separator , the electrode member and the separator are integrated by the adhesive rubber member , the adhesive rubber member is formed from solid rubber including one or more rubber components selected from a group consisting of ethylene-propylene rubber, ethylene-propylene- diene rubber, acrylonitrile-butadiene rubber, hydrogenated acrylonitrile-butadiene rubber, styrene-butadiene rubber, and butadiene rubber. an electrode member having a membrane electrode assembly , which is formed from an electrolyte membrane and a pair of electrode catalyst layers that is disposed on both sides of the electrolyte membrane in the thickness direction, and having a pair of porous layers disposed on both sides of the membrane electrode assembly in the thickness direction; and a separator disposed layered on the electrode member so as to contact at least one of the porous layers , characterized in that at least one porous layer among the pair of porous layers has a gas diffusion layer and a gas flow path layer whose porosity is larger than that of the gas diffusion layer , and the area of the membrane electrode assembly is larger than the area of at least one gas diffusion layer an adhesive rubber member is disposed on a peripheral edge portion of the electrode member so as to contact respectively the electrolyte membrane , the pair of electrode catalyst layers , and the pair of porous layers , a part of the adhesive rubber member impregnates the end portion of the pair of porous layers , the adhesive rubber member adheres to the separator , the electrode member and the separator are integrated by the adhesive rubber member , the adhesive rubber member is formed from solid rubber including one or more rubber components selected from a group consisting of ethylene-propylene rubber, ethylene-propylene- diene rubber, acrylonitrile-butadiene rubber, hydrogenated acrylonitrile-butadiene rubber, styrene-butadiene rubber, and butadiene rubber.
A polypeptide comprising a human tenth fibronectin type III ( 10 Fn3) domain comprising BC, DE and FG loops, wherein the polypeptide binds specifically to human glypican-3 (GPC3) with a K D of 1 μM or less, and wherein (a)the BC, DE and FG loops comprise SEQ ID NOs: 6, 7 and 8, respectively; (b) the BC, DE and FG loops comprise SEQ ID NOs: 19, 20 and 21, respectively; (c)the BC, DE and FG loops comprise SEQ ID NOs: 32, 33 and 34, respectively; (d) the BC, DE and FG loops comprise SEQ ID NOs: 45, 46 and 47, respectively; (e)the BC, DE and FG loops comprise SEQ ID NOs: 58, 59 and 60, respectively; (f) the BC, DE and FG loops comprise SEQ ID NOs: 71, 72 and 73, respectively; (g) the BC, DE and FG loops comprise SEQ ID NOs: 84, 85 and 86, respectively; or (h) the BC, DE and FG loops comprise SEQ ID NOs: 99, 100 and 101, respectively. (a)the BC, DE and FG loops comprise SEQ ID NOs: 6, 7 and 8, respectively; (b) the BC, DE and FG loops comprise SEQ ID NOs: 19, 20 and 21, respectively; (c)the BC, DE and FG loops comprise SEQ ID NOs: 32, 33 and 34, respectively; (d) the BC, DE and FG loops comprise SEQ ID NOs: 45, 46 and 47, respectively; (e)the BC, DE and FG loops comprise SEQ ID NOs: 58, 59 and 60, respectively; (f) the BC, DE and FG loops comprise SEQ ID NOs: 71, 72 and 73, respectively; (g) the BC, DE and FG loops comprise SEQ ID NOs: 84, 85 and 86, respectively; or (h) the BC, DE and FG loops comprise SEQ ID NOs: 99, 100 and 101, respectively.
Lighting assembly configured to be embedded preferably in a floor , in which there is a containing seating , comprising a support member configured to be inserted, preferably permanently, into said containing seating , a lighting unit provided with clamping means to selectively and preferably removably clamp said lighting unit with respect to said support member , and anti-rotation means configured to prevent the rotation of said lighting unit with respect to said support member , characterized in that said anti-rotation means are different and independent from said clamping means and comprise first anti-rotation means present on said support member , and mating second anti-rotation means present on said lighting unit and configured to cooperate with said first anti-rotation means in a plurality of positions, wherein said first anti-rotation means comprise a plurality of first radial teeth .
Sleeve extending in an axial direction (X) comprising at least one casing (5; 15; 105, 115, 125) and at least a plurality of optical fibres arranged in the casing, the casing comprising at least one laser mark (8; 18; 108, 109; 118, 119, 120, 121; 128, 129) locally forming a weakened zone of the casing to allow opening of the casing in this weakened zone without the use of tools.
Method for detecting the status and failure of a door-lock device of a household appliance door, wherein said door-lock device is of the type having electrical or electronic components and a first and a second terminal for power supplying, wherein said door-lock device has different door-lock states, wherein said method comprises the following steps: A. applying a first control signal (P 1 (p)) having a first polarization; B. detecting the impedance to the ends of said first and second terminals due to the application of said first control signal (P 1 (p)); C. applying a second control signal (P 2 (p)), having opposite polarization to said first control signal (P 1 (p)); D. detecting the impedance to the ends of said first and second terminals following the application of said second control signal (P2(p)); E. providing a reference table, wherein the impedances at the ends of said first and second terminal of said door-lock device in each of said door-lock device states are provided; and F. comparing the impedance values measured at the ends of said first and second terminals with those of said comparative table, so as to detect the states of the door-lock device and therefore any faults of said door-lock device , according to the detected impedance values. A. applying a first control signal (P 1 (p)) having a first polarization; B. detecting the impedance to the ends of said first and second terminals due to the application of said first control signal (P 1 (p)); C. applying a second control signal (P 2 (p)), having opposite polarization to said first control signal (P 1 (p)); D. detecting the impedance to the ends of said first and second terminals following the application of said second control signal (P2(p)); E. providing a reference table, wherein the impedances at the ends of said first and second terminal of said door-lock device in each of said door-lock device states are provided; and F. comparing the impedance values measured at the ends of said first and second terminals with those of said comparative table, so as to detect the states of the door-lock device and therefore any faults of said door-lock device , according to the detected impedance values.
A bottom head of a vessel , the bottom head comprising a first feed/effluent nozzle and a first distributor disposed in the first feed/effluent nozzle , the first distributor comprising: at least one flow permitting surface ; and at least one structural support fin configured to provide structural support to the at least one flow permitting surface , to transfer load from the first distributor to the first feed/effluent nozzle , and to removably attach to the first feed/effluent nozzle , wherein a flow gap is defined between a bottom portion of the first distributor and the first feed/effluent nozzle , the flow gap having dimensions sufficient to permit a liquid to drain from the vessel into the first feed/effluent nozzle and to retain a solid medium including an adsorption medium or a catalyst disposed within the vessel proximate the first distributor . at least one flow permitting surface ; and at least one structural support fin configured to provide structural support to the at least one flow permitting surface , to transfer load from the first distributor to the first feed/effluent nozzle , and to removably attach to the first feed/effluent nozzle , wherein a flow gap is defined between a bottom portion of the first distributor and the first feed/effluent nozzle , the flow gap having dimensions sufficient to permit a liquid to drain from the vessel into the first feed/effluent nozzle and to retain a solid medium including an adsorption medium or a catalyst disposed within the vessel proximate the first distributor .
Support for a leading steering device for a wheel chair enabling to hold the leading steering device in an assembly position for assembling the leading steering device with the wheel chair to form a wheel chair combination , wherein the support comprises a spring means enabling to resiliently pivot at least a part of the support in a straight travelling direction of the wheel chair combination , characterized in that , related to the three space axes of a Cartesian coordinate system, of which a first one is the straight travelling direction of the wheel chair combination , the spring rigidity of the spring means is, in the straight travelling direction of the wheel chair combination , lower than the spring rigidity of the spring means in at least one of the two other space axes.
Repair kit for repairing motor vehicle tyres having a portable compressed air source and a compressor unit which has a reciprocating piston compressor which is driven by an electric motor , wherein the reciprocating piston compressor contains a piston which can be moved in an oscillating fashion in a cylinder by means of a slider crank mechanism , so that the cylinder and piston bound a compression space, wherein the cylinder is closed off on the outlet side by a cylinder head with an outlet valve , characterized in that the compressor unit has an electric pressure switch which is connected to the pressure in the compression space, and the electric motor can be switched on and off by means of the pressure switch , wherein the pressure switch is arranged in the cylinder head of the reciprocating piston compressor .
A water jet peening device comprising: a jet nozzle adapted to jet a high-pressure fluid to create a cavitation bubble toward a surface to be executed; and a screen arranged in a periphery of the jet nozzle , wherein the jet nozzle is configured to diagonally jet the fluid against the surface to be executed, and the screen is arranged on the surface to be executed, the surface to be executed being positioned at a downstream side in a flow direction of the fluid jetted against and flowing on the surface to be executed, wherein the screen is formed into an arc shape that surrounds the jet nozzle , characterized in that the water jet peening device further comprises: a rotation mechanism adapted to relatively rotate the screen centered at the jet nozzle . a jet nozzle adapted to jet a high-pressure fluid to create a cavitation bubble toward a surface to be executed; and a screen arranged in a periphery of the jet nozzle , wherein the jet nozzle is configured to diagonally jet the fluid against the surface to be executed, and the screen is arranged on the surface to be executed, the surface to be executed being positioned at a downstream side in a flow direction of the fluid jetted against and flowing on the surface to be executed, wherein the screen is formed into an arc shape that surrounds the jet nozzle , characterized in that the water jet peening device further comprises: a rotation mechanism adapted to relatively rotate the screen centered at the jet nozzle .
A rotary press system, comprising: a first rotary press (105a; 802a); a second rotary press (105b; 802b) adjacent the first rotary press (105a; 802a), wherein the first and second rotary presses (105a, 105b; 802a, 802b) are to receive a strip material ; a common drive gear (112; 808) coupled to the first and second rotary presses (105a, 105b; 802a, 802b); and wherein the common drive gear (112; 808) is to directly drive a first drive gear (110b; 804b) of the first rotary press (105a; 802a) and a second drive gear (210b; 806b) of the second rotary press (105b; 802b); characterized by a motor coupled to the common drive gear (112; 808) to rotate the common drive gear (112; 808) and to cause the first and second rotary presses (105a, 105b; 802a, 802b) to process the strip material ; wherein the motor is to directly drive the common drive gear (112; 808) without interposing mechanism or transmission. a first rotary press (105a; 802a); a second rotary press (105b; 802b) adjacent the first rotary press (105a; 802a), wherein the first and second rotary presses (105a, 105b; 802a, 802b) are to receive a strip material ; a common drive gear (112; 808) coupled to the first and second rotary presses (105a, 105b; 802a, 802b); and wherein the common drive gear (112; 808) is to directly drive a first drive gear (110b; 804b) of the first rotary press (105a; 802a) and a second drive gear (210b; 806b) of the second rotary press (105b; 802b); characterized by a motor coupled to the common drive gear (112; 808) to rotate the common drive gear (112; 808) and to cause the first and second rotary presses (105a, 105b; 802a, 802b) to process the strip material ; wherein the motor is to directly drive the common drive gear (112; 808) without interposing mechanism or transmission.
A stable formulation for intracutaneous injection of a therapeutic agent, said formulation comprising an effective amount of said therapeutic agent in the form of particles, wherein said particles are homogeneously contained within a non-aqueous pharmaceutically acceptable carrier and comprise from 1.0 to 80 weight percent of the formulation, and wherein said therapeutic agent and pharmaceutically acceptable carrier form a paste suitable for intracutaneous injection, characterized in that said formulation has an injection volume of about 0.1 to about 10 microliters.
A reversible and indexable triangular tangential milling insert comprising two opposite triangular major surfaces and a peripheral surface extending therebetween, the milling insert further comprising a mid-plane (M) located midway between the major surfaces , and an insert clamping bore opening out directly to the major surfaces and having a central bore axis (H), the peripheral surface comprising exactly three identical elongated side surfaces , each side surface comprising exactly two cutting portions , two relief portions and two identical elongated, non-planar, minor abutment surfaces located on opposite sides of the mid-plane (M), each continuously extending between respective cutting portion and relief portion , each cutting portion comprising: a major cutting edge defined at a meeting of the side surface with a major surface , a minor cutting edge defined at a meeting of the side surface with an adjacent side surface , and a corner cutting edge extending between the major and minor cutting edges , characterized in that , in a cross section along a first imaginary plane (P1) which is perpendicular to the bore axis (H), each minor abutment surface is concavely curved; and on each side surface , the minor abutment surfaces converge outwardly, away from the insert clamping bore . the milling insert further comprising a mid-plane (M) located midway between the major surfaces , and an insert clamping bore opening out directly to the major surfaces and having a central bore axis (H), the peripheral surface comprising exactly three identical elongated side surfaces , each side surface comprising exactly two cutting portions , two relief portions and two identical elongated, non-planar, minor abutment surfaces located on opposite sides of the mid-plane (M), each continuously extending between respective cutting portion and relief portion , each cutting portion comprising: a major cutting edge defined at a meeting of the side surface with a major surface , a minor cutting edge defined at a meeting of the side surface with an adjacent side surface , and a corner cutting edge extending between the major and minor cutting edges , characterized in that , in a cross section along a first imaginary plane (P1) which is perpendicular to the bore axis (H), each minor abutment surface is concavely curved; and on each side surface , the minor abutment surfaces converge outwardly, away from the insert clamping bore . a major cutting edge defined at a meeting of the side surface with a major surface , a minor cutting edge defined at a meeting of the side surface with an adjacent side surface , and a corner cutting edge extending between the major and minor cutting edges , characterized in that , in a cross section along a first imaginary plane (P1) which is perpendicular to the bore axis (H), each minor abutment surface is concavely curved; and on each side surface , the minor abutment surfaces converge outwardly, away from the insert clamping bore .