mhurhangee/patent-ind-claim-en huggingface dataset:
Fluid conductor for conducting a fluid, comprising: a barrier layer which limits a conductor interior of the fluid conductor for conducting the fluid, wherein the barrier layer is configured to reduce a diffusion of the fluid through the barrier layer , wherein the barrier layer comprises a peroxide crosslinked thermoplastic elastomer vulcanizate (TPE-V), wherein the fluid conductor comprises a further conductor layer which is arranged radially outside of the barrier layer , wherein the further conductor layer comprises a peroxide crosslinked thermoplastic elastomer vulcanizate (TPE-V) or a sulfur-crosslinked thermoplastic elastomer vulcanizate (TPE-V) or a resin-crosslinked thermoplastic elastomer vulcanizate (TPE-V). a barrier layer which limits a conductor interior of the fluid conductor for conducting the fluid, wherein the barrier layer is configured to reduce a diffusion of the fluid through the barrier layer , wherein the barrier layer comprises a peroxide crosslinked thermoplastic elastomer vulcanizate (TPE-V), wherein the fluid conductor comprises a further conductor layer which is arranged radially outside of the barrier layer , wherein the further conductor layer comprises a peroxide crosslinked thermoplastic elastomer vulcanizate (TPE-V) or a sulfur-crosslinked thermoplastic elastomer vulcanizate (TPE-V) or a resin-crosslinked thermoplastic elastomer vulcanizate (TPE-V).
A two-sided adhesive tape comprising: a substrate; and an acrylic adhesive layer on both surfaces of the substrate, the substrate comprising a polyolefin foam containing 30 to 90% by weight of a polypropylene resin which is an ethylene-propylene random copolymer containing propylene as a main component, the substrate having a thickness of 1,500 μm or less, the foam having a crystal melting peak temperature measured with a differential scanning calorimeter on 100 mg of the polyolefin foam in the air at a rate of temperature rise of 10°C/min of 140°C or higher, an expansion ratio of 15 cm 3 /g or less, the expansion ratio being defined as the reciprocal value of the density of the foam and the density being determined in conformity with JIS K 6767, and an aspect ratio of bubbles (average bubble size in MD/average bubble size in TD) of 0.9 to 3 measured as specified in the description. a substrate; and an acrylic adhesive layer on both surfaces of the substrate, the substrate comprising a polyolefin foam containing 30 to 90% by weight of a polypropylene resin which is an ethylene-propylene random copolymer containing propylene as a main component, the substrate having a thickness of 1,500 μm or less, the foam having a crystal melting peak temperature measured with a differential scanning calorimeter on 100 mg of the polyolefin foam in the air at a rate of temperature rise of 10°C/min of 140°C or higher, an expansion ratio of 15 cm 3 /g or less, the expansion ratio being defined as the reciprocal value of the density of the foam and the density being determined in conformity with JIS K 6767, and an aspect ratio of bubbles (average bubble size in MD/average bubble size in TD) of 0.9 to 3 measured as specified in the description.
A laser joining method comprising: a step of placing at least two metal plates so as to be superposed with one another at a superposed region , and irradiating laser light from a laser light irradiating device through a through-portion , which is formed in a third plate that is disposed at an interval apart from the superposed region , onto the superposed region , and forming a first laser welded portion at the superposed region ; and characterized in further comprising: a step of, by changing a laser light irradiation angle of the laser light irradiating device and irradiating laser light through the same through-portion onto the superposed region , forming one or two or more laser welded portions , which are different from the first laser welded portion , at the superposed region .
A method for tracking a chain-of-manipulation, CoM, of an audio-video, AV, content having a plurality of segments , the method comprising: detecting, by a CoM tagging software code , a modification of the AV content by an AV processing application modifying the AV content , wherein the modification modifies at least one of a video content or an audio content of one or more segments of the AV content ; generating, by the CoM tagging software code after detecting the modification of the AV content by the AV processing application , one or more CoM tags to track the modification, wherein the one or more CoM tags include a device identification tag identifying the device which performed the modification of the AV content ; and inserting, by the CoM tagging software code , the one or more CoM tags in each of the one or more modified segments , wherein the inserted one or more CoM tags are human and machine imperceptible when the AV content is played back by a playback device on a display . detecting, by a CoM tagging software code , a modification of the AV content by an AV processing application modifying the AV content , wherein the modification modifies at least one of a video content or an audio content of one or more segments of the AV content ; generating, by the CoM tagging software code after detecting the modification of the AV content by the AV processing application , one or more CoM tags to track the modification, wherein the one or more CoM tags include a device identification tag identifying the device which performed the modification of the AV content ; and inserting, by the CoM tagging software code , the one or more CoM tags in each of the one or more modified segments , wherein the inserted one or more CoM tags are human and machine imperceptible when the AV content is played back by a playback device on a display .
A dispensing device comprising: a probe unit that includes: a housing configured to receive and store a sealant in a fluid state, a cannula extending from a distal end of the housing, the cannula in fluid communication with the sealant stored inside the housing, an identification tag configured to wirelessly transmit an identifier that identifies the probe unit, and a magnet configured to provide a magnetic field; and a driver unit , wherein the probe unit is detachably mounted on the driver unit, the driver unit including: at least one rail positioned on a top side of the driver unit and configured to provide a track for receiving and retaining the probe unit when the probe unit is mounted on the driver unit, a hall sensor arranged to detect the magnet in response to the probe unit being mounted on the driver unit, a controller configured to obtain the identifier from the identification tag of the probe unit in response to the hall sensor detecting the magnet, and a display configured to display an indication of the identifier of the probe unit. a probe unit that includes: a housing configured to receive and store a sealant in a fluid state, a cannula extending from a distal end of the housing, the cannula in fluid communication with the sealant stored inside the housing, an identification tag configured to wirelessly transmit an identifier that identifies the probe unit, and a magnet configured to provide a magnetic field; and a driver unit , a housing configured to receive and store a sealant in a fluid state, a cannula extending from a distal end of the housing, the cannula in fluid communication with the sealant stored inside the housing, an identification tag configured to wirelessly transmit an identifier that identifies the probe unit, and a magnet configured to provide a magnetic field; and a driver unit , wherein the probe unit is detachably mounted on the driver unit, the driver unit including: at least one rail positioned on a top side of the driver unit and configured to provide a track for receiving and retaining the probe unit when the probe unit is mounted on the driver unit, a hall sensor arranged to detect the magnet in response to the probe unit being mounted on the driver unit, a controller configured to obtain the identifier from the identification tag of the probe unit in response to the hall sensor detecting the magnet, and a display configured to display an indication of the identifier of the probe unit. at least one rail positioned on a top side of the driver unit and configured to provide a track for receiving and retaining the probe unit when the probe unit is mounted on the driver unit, a hall sensor arranged to detect the magnet in response to the probe unit being mounted on the driver unit, a controller configured to obtain the identifier from the identification tag of the probe unit in response to the hall sensor detecting the magnet, and a display configured to display an indication of the identifier of the probe unit.
A gas turbine engine comprising: an engine static structure ; a rotating structure (40; 72) configured to rotate relative to the engine static structure , the rotating structure (40; 72) having a target area (94; 96) that is larger in a first direction than in a second direction ; and a lubrication system characterized in that the lubrication system comprises a structure providing a fluid passage terminating in a nozzle (68; 90; 92) having an exit (106; 206; 306; 406; 506; 606), the exit (106; 206; 306; 406; 506; 606) having a width and a height , the width greater than the height , the exit has a non-circular shape, the exit (106; 206; 306; 406; 506; 606) configured to spray a lubricant on a target area (94; 96) of a component (74; 76), and the width oriented in the first direction , the rotating structure (40; 72) includes a shaft (40; 72), a bearing supports the shaft (40; 72) for rotation relative to the engine static structure , and the nozzle (68; 90; 92) is arranged in a compartment with the bearing , the rotating structure (40; 72) includes a spacer abutting the bearing , the spacer providing the target area , and the target area is provided by a window in the spacer to flow oil underneath a bearing raceway and then to a cage and rolling elements of the bearing radially outward. an engine static structure ; a rotating structure (40; 72) configured to rotate relative to the engine static structure , the rotating structure (40; 72) having a target area (94; 96) that is larger in a first direction than in a second direction ; and a lubrication system characterized in that the lubrication system comprises a structure providing a fluid passage terminating in a nozzle (68; 90; 92) having an exit (106; 206; 306; 406; 506; 606), the exit (106; 206; 306; 406; 506; 606) having a width and a height , the width greater than the height , the exit has a non-circular shape, the exit (106; 206; 306; 406; 506; 606) configured to spray a lubricant on a target area (94; 96) of a component (74; 76), and the width oriented in the first direction , the rotating structure (40; 72) includes a shaft (40; 72), a bearing supports the shaft (40; 72) for rotation relative to the engine static structure , and the nozzle (68; 90; 92) is arranged in a compartment with the bearing , the rotating structure (40; 72) includes a spacer abutting the bearing , the spacer providing the target area , and the target area is provided by a window in the spacer to flow oil underneath a bearing raceway and then to a cage and rolling elements of the bearing radially outward.
Hydraulic arrangement - having a working pump for conveying a hydraulic medium in the direction of a hydraulic working load , and - having a hydraulic tank which has a tank outlet for a hydraulic connection of the inlet side of the working pump , characterized by an electrically driven auxiliary pump which is mounted in the hydraulic tank and, in dependence on a controller of an associated electrical drive (EM), causes a hydraulic flow in the direction of the tank outlet . - having a working pump for conveying a hydraulic medium in the direction of a hydraulic working load , and - having a hydraulic tank which has a tank outlet for a hydraulic connection of the inlet side of the working pump , characterized by an electrically driven auxiliary pump which is mounted in the hydraulic tank and, in dependence on a controller of an associated electrical drive (EM), causes a hydraulic flow in the direction of the tank outlet .
A method for preparing a positive electrode material for a lithium-ion battery, characterized by comprising the following steps: a) stirring a liquid polyacrylonitrile (LPAN) solution at a temperature of between 80 and 300°C for between 8 and 72 h to yield a cyclized LPAN solution; b) adding positive electrode material for a lithium-ion battery, in a powder form, to the cyclized LPAN solution, and evenly mixing a resulting mixture; c) grinding the mixture, and drying the mixture at room temperature; and d) calcining the mixture at a temperature of between 500 and 1800°C for between 6 and 24 h in the presence of an inert gas and enabling the cyclized LPAN to form a graphene-like compound evenly distributed in the positive electrode material of the lithium-ion battery, thereby obtaining a graphene-like-compound-doped positive electrode material. a) stirring a liquid polyacrylonitrile (LPAN) solution at a temperature of between 80 and 300°C for between 8 and 72 h to yield a cyclized LPAN solution; b) adding positive electrode material for a lithium-ion battery, in a powder form, to the cyclized LPAN solution, and evenly mixing a resulting mixture; c) grinding the mixture, and drying the mixture at room temperature; and d) calcining the mixture at a temperature of between 500 and 1800°C for between 6 and 24 h in the presence of an inert gas and enabling the cyclized LPAN to form a graphene-like compound evenly distributed in the positive electrode material of the lithium-ion battery, thereby obtaining a graphene-like-compound-doped positive electrode material.
A window comprising a frame and a sash , each having a top member (6; 7), a bottom member (4; 5) and two side members (8, 10; 9, 11), each side member of the frame and sash defining a longitudinal direction between the top and bottom members, and the members all together defining a frame and a sash plane, respectively, said sash being connected to the frame by means of at least one hinge connection providing a hinge axis substantially parallel with said top and bottom members, so that through an opening movement of the window , the sash can be moved from a closed position to an open position, and into an intermediate ventilating position, in which ventilating position the sash plane forms an angle within a limited angle range with the frame plane to provide at least one ventilating aperture in the circumferential of the frame and/or sash , said window further comprising a screening arrangement arranged to cover the said ventilating aperture in said ventilating position and comprising at least one screening element incorporated in at least one member of said frame and/or sash , said screening element being arranged so as to form a ventilating passage , wherein said screening element automatically spans the ventilating aperture between the sash and frame plane in the ventilating position, wherein the ventilation passage is formed as a plurality of perforations in the material of the screening element opening into a cavity formed in the screening element and hence in turn of the frame member in which the screening element is incorporated, that the screening element has a length such that it extends the whole member it is incorporated in or a portion of the member, that the shape of said at least one screening element forms a cavity within a frame and/or sash member through which cavity air may enter and exit so as to provide the ventilating passage, and that said screening element is in the form of an L-shape, having a first flange and a second flange , said second flange extending perpendicularly to said first flange , wherein at least one of said first and/or second flanges comprises said ventilating passage , or said screening element is in the form of a U-shape, or having a rectangular profile shape.
A computer implemented method comprising: receiving online measurement results of a human operator, who is monitoring and controlling an industrial process, the online measurements results comprising at least a delay associated with the human operator's interactions with the industrial process, the interactions including control actions; receiving online measurement results from the process, the online measurement results from the process indicating process responses to the control actions; characterized by receiving online measurement results of a control room where the human operator is located; inputting the measurement results of the human operator, the measurement results of the control room, and at least the measurement results indicating process responses to a first trained model, which utilizes machine learning; processing , by the first trained model, the inputted measurement results to one or more alertness levels; triggering , in response to the alertness level indicating too low level of alertness, an engagement session with the human operator. receiving online measurement results of a human operator, who is monitoring and controlling an industrial process, the online measurements results comprising at least a delay associated with the human operator's interactions with the industrial process, the interactions including control actions; receiving online measurement results from the process, the online measurement results from the process indicating process responses to the control actions; characterized by receiving online measurement results of a control room where the human operator is located; inputting the measurement results of the human operator, the measurement results of the control room, and at least the measurement results indicating process responses to a first trained model, which utilizes machine learning; processing , by the first trained model, the inputted measurement results to one or more alertness levels; triggering , in response to the alertness level indicating too low level of alertness, an engagement session with the human operator.
An epoxy resin composition comprising the following components: (A) from 38 to 54 parts by weight of an epoxy resin containing a DCPD structure; (B) from 30 to 36 parts by weight of an active ester curing agent; and (C) from 16 to 32 parts by weight of a cyanate ester resin. (A) from 38 to 54 parts by weight of an epoxy resin containing a DCPD structure; (B) from 30 to 36 parts by weight of an active ester curing agent; and (C) from 16 to 32 parts by weight of a cyanate ester resin.
A drive unit , particularly for driving a main rotor of a rotary wing aircraft, comprising: a planetary gear mechanism (PI), wherein the planetary gear mechanism (PI) comprises a plurality of planetary gears , wherein each planetary gear has at least one planet wheel (6; 6') with toothing and the planetary gears are arranged concentrically to a central axis (z) inside the planetary gear mechanism (PI), so that a rotatable shaft , in particular a rotor shaft of the rotary wing aircraft, can be driven by means of the planetary gears or a sun wheel , characterized in that a first drive , particularly an electric drive, is integrated into at least one planetary gear , as a result of which an inner drive is formed inside the planetary gear mechanism (PI) so that the shaft can be set rotating by the first drive . a planetary gear mechanism (PI), wherein the planetary gear mechanism (PI) comprises a plurality of planetary gears , wherein each planetary gear has at least one planet wheel (6; 6') with toothing and the planetary gears are arranged concentrically to a central axis (z) inside the planetary gear mechanism (PI), so that a rotatable shaft , in particular a rotor shaft of the rotary wing aircraft, can be driven by means of the planetary gears or a sun wheel , characterized in that a first drive , particularly an electric drive, is integrated into at least one planetary gear , as a result of which an inner drive is formed inside the planetary gear mechanism (PI) so that the shaft can be set rotating by the first drive .
A flow cell, comprising: a substrate; a lid bonded to the substrate; a flow channel defined between the lid and the substrate; a patterned electrode directly positioned on the substrate and in the flow channel, the patterned electrode including depressions that are defined by walls of the patterned electrode and that are separated by interstitial regions, wherein the interstitial regions are defined by a surface of the patterned electrode that is exposed to the flow channel; a functionalized surface of the substrate exposed at each of the depressions; and a primer grafted to the functionalized surface in each of the depressions. a substrate; a lid bonded to the substrate; a flow channel defined between the lid and the substrate; a patterned electrode directly positioned on the substrate and in the flow channel, the patterned electrode including depressions that are defined by walls of the patterned electrode and that are separated by interstitial regions, wherein the interstitial regions are defined by a surface of the patterned electrode that is exposed to the flow channel; a functionalized surface of the substrate exposed at each of the depressions; and a primer grafted to the functionalized surface in each of the depressions.
A transfer coupling comprising a static component and a rotatable component arranged in co-axial alignment, the static component including a first number of ports and the rotatable component including a second number of ports , the ports arranged in a common circumferential plane, wherein the ports are configured and arranged, in use, to homogenise a flow area for a fluid being transferred through the ports and thereby create a homogenous volume flow, wherein each of the static and rotatable components is provided with ports which are elongate slots, characterized in that the slots on a first of the components are all arranged with their main arr axis inclined to the co-axis of the components at a first angle and the slots on the second of the components are all arranged with their main axis inclined to the co-axis of the components at a second angle, different from the first angle.