mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for applying negative pressure to a wound, the apparatus comprising: a wound dressing configured to be placed over a wound of a patient; a negative pressure source disposed on or within the wound dressing, the negative pressure source configured to provide negative pressure to the wound dressing via a fluid flow path; a switch disposed on or within the wound dressing, the switch being configured to receive a first user input; an interface element disposed on or within the wound dressing, the interface element being configured to receive a second user input; and control circuitry electrically coupled to the switch and the interface element, the control circuitry being configured to: when in a first mode, supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is not supplying negative pressure, prevent supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is supplying negative pressure, and change from the first mode to a second mode different from the first mode in response to receipt of the second user input, when in the second mode, disable supply of negative pressure with the negative pressure source. a wound dressing configured to be placed over a wound of a patient; a negative pressure source disposed on or within the wound dressing, the negative pressure source configured to provide negative pressure to the wound dressing via a fluid flow path; a switch disposed on or within the wound dressing, the switch being configured to receive a first user input; an interface element disposed on or within the wound dressing, the interface element being configured to receive a second user input; and control circuitry electrically coupled to the switch and the interface element, the control circuitry being configured to: when in a first mode, supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is not supplying negative pressure, prevent supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is supplying negative pressure, and change from the first mode to a second mode different from the first mode in response to receipt of the second user input, when in the second mode, disable supply of negative pressure with the negative pressure source. when in a first mode, supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is not supplying negative pressure, prevent supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is supplying negative pressure, and change from the first mode to a second mode different from the first mode in response to receipt of the second user input, when in the second mode, disable supply of negative pressure with the negative pressure source.
A method for deposition of yttrium monoxide (YO) film on a substrate by reactive magnetron sputtering, comprising the following steps: (i) positioning a substrate in a vacuum chamber having a magnetron and yttrium source for sputtered particles and a process gas shroud means for partially enveloping the magnetron, the substrate having a surface facing the source; (ii) operating the magnetron to sputter yttrium particles from the yttrium source for coating the substrate surface, including introducing a process gas to the shroud means; (iii) withdrawing and depleting gas from the vacuum chamber and creating process pressure between 1×10 -3 and 5×10 -3 Torr with 1.40×10 -8 - 1.74×10 -5 Torr oxygen partial pressure by inletting the process gases and continuing sputtering yttrium particles from the yttrium source; as soon as the desired thickness of coating on the substrate surface is reached, disactivating the magnetron. (i) positioning a substrate in a vacuum chamber having a magnetron and yttrium source for sputtered particles and a process gas shroud means for partially enveloping the magnetron, the substrate having a surface facing the source; (ii) operating the magnetron to sputter yttrium particles from the yttrium source for coating the substrate surface, including introducing a process gas to the shroud means; (iii) withdrawing and depleting gas from the vacuum chamber and creating process pressure between 1×10 -3 and 5×10 -3 Torr with 1.40×10 -8 - 1.74×10 -5 Torr oxygen partial pressure by inletting the process gases and continuing sputtering yttrium particles from the yttrium source; as soon as the desired thickness of coating on the substrate surface is reached, disactivating the magnetron.
A robotic system comprising: a robot ; one or more three-dimensional sensor devices associated with the robot configured to scan a welding area and generate a scanned welding area; and being characterised by the following: one or more processors configured to receive the scanned welding area and to generate a three-dimensional point cloud based upon, at least in part the scanned welding area, the one or more processors further configured to perform processing on the three-dimensional point cloud in a two-dimensional domain, wherein performing processing on the three dimensional point cloud in a two-dimensional domain includes converting the three dimensional point cloud to a height field, applying a local minimum filter to the height field, and binary image thinning of a welding path, for reducing the thickness of a region without changing the length to provide regions of the image having a width of one pixel, the one or more processors further configured to generate one or more three-dimensional welding paths and to simulate the one or more three-dimensional welding paths. a robot ; one or more three-dimensional sensor devices associated with the robot configured to scan a welding area and generate a scanned welding area; and being characterised by the following: one or more processors configured to receive the scanned welding area and to generate a three-dimensional point cloud based upon, at least in part the scanned welding area, the one or more processors further configured to perform processing on the three-dimensional point cloud in a two-dimensional domain, wherein performing processing on the three dimensional point cloud in a two-dimensional domain includes converting the three dimensional point cloud to a height field, applying a local minimum filter to the height field, and binary image thinning of a welding path, for reducing the thickness of a region without changing the length to provide regions of the image having a width of one pixel, the one or more processors further configured to generate one or more three-dimensional welding paths and to simulate the one or more three-dimensional welding paths. converting the three dimensional point cloud to a height field, applying a local minimum filter to the height field, and binary image thinning of a welding path, for reducing the thickness of a region without changing the length to provide regions of the image having a width of one pixel, the one or more processors further configured to generate one or more three-dimensional welding paths and to simulate the one or more three-dimensional welding paths.
A method of manufacturing a liquid crystal display device by applying particles comprising a process of coating a coating composition comprising ball spacer microparticles having a particle diameter of 1 μm to less than 100 μm, a curable resin and a solvent on a base material having a surface roughness (Ra) of from 3 nm to 100 nm, followed by drying and curing, wherein said ball spacer microparticles have a density of 0.61 g/cm 3 to 2.1 g/cm 3 , and the density of said ball spacer microparticles is greater than the density of the solvent.
A method for producing an hydrophilic gauze comprising the following steps: - providing a gauze; - during the same step, treating one or more areas of the gauze with a mixture formed of fluorescent UV-sensitive inks, with the addition of transparent silicone, in order to make said one or more areas of the gauze impermeable to blood. - providing a gauze; - during the same step, treating one or more areas of the gauze with a mixture formed of fluorescent UV-sensitive inks, with the addition of transparent silicone, in order to make said one or more areas of the gauze impermeable to blood.
A threaded connection for steel pipe , suitable for prospecting or production in oil wells, developing non-conventional resources such as oil sand or shale gas, retrieving or storing carbon dioxide (Carbon dioxide Capture and Storage (CCS)), for geothermal power generation, or in hot springs, the threaded connection for steel pipe comprising a tubular pin provided on a tip of a steel pipe with an outer diameter OD larger than 240 mm, and a tubular box adapted to be made up on the pin as the pin is screwed in, wherein the pin includes a male threadform made with a taper thread formed on an outer periphery of the pin , the box includes a female threadform made with a taper thread formed on an inner periphery of the box , each of the male and female threadforms has a dovetail-shaped cross section, and a stab-flank pitch for the male threadform and the female threadform is smaller than a load-flank pitch for the male threadform and the female threadform , and characterised in that the male threadform satisfies the following expressions, and : 0.40 ≦ D W + 2 T H 2 − D W 2 × W min OD 2 − ID 2 ≦ 0.60 and W min ≥ 3.0 mm where, in expressions and , OD is the outer diameter of the steel pipe, ID is the inner diameter of the steel pipe , D W is the diameter of the root adjacent to the load flank at the end of the male threadform closer to the tip, T H is the thread height of the male threadform, and W min is the width of the thread, measured at its thread base, in an end region of the male threadform closer to the tip. characterised in that the male threadform satisfies the following expressions, and : 0.40 ≦ D W + 2 T H 2 − D W 2 × W min OD 2 − ID 2 ≦ 0.60 and W min ≥ 3.0 mm where, in expressions and , OD is the outer diameter of the steel pipe, ID is the inner diameter of the steel pipe , D W is the diameter of the root adjacent to the load flank at the end of the male threadform closer to the tip, T H is the thread height of the male threadform, and W min is the width of the thread, measured at its thread base, in an end region of the male threadform closer to the tip.
A thick airfoil shape for arranging between a rotary hub of a rotor of an aircraft and a streamlined portion of a blade of said rotor , said thick airfoil shape extending firstly spanwise in a longitudinal direction (X) from a first end zone towards a second end zone , and secondly in a transverse direction (Y) from a leading edge to a trailing edge , said thick airfoil shape being made up of a succession of thick airfoil profiles situated in planes parallel to a transverse plane (P YZ ) perpendicular to said spanwise longitudinal direction (X), each thick airfoil profile having a suction side profile and a pressure side profile , each thick airfoil profile being defined by a chord c between said leading edge and said trailing edge , by a maximum thickness t equal to a maximum distance between said suction side profile and said pressure side profile measured perpendicularly to said chord c, and by a relative thickness t / c equal to the ratio of said maximum thickness t divided by said chord c, said relative thickness t / c being greater than or equal to 20% for each thick airfoil profile , each airfoil profile passing via extreme points ( C0 , C1 , C2 , C3 ), each extreme point ( C0 , C1 , C2, C3 ) being defined in a reference frame (U,V) attached to said airfoil profile and itself defined by an abscissa axis (U) formed by the direction of said chord c and by an ordinate axis (V) perpendicular to said abscissa axis (U), one unit of said abscissa and ordinate axes (U,V) being equal to said chord c, a first extreme point ( C0 ) of coordinates being situated at said leading edge , a second extreme point (C2) of coordinates being situated at said trailing edge , and third and fourth extreme points ( C1,C3 ) forming said maximum thickness t of said airfoil profile, tangents to each airfoil profile at said third and fourth extreme points ( C1,C3 ) being defined parallel to said abscissa axis (U), characterised in that the coordinates ( uCi,vCi ) of said third and fourth extreme points ( C1,C3 ) in said reference frame (U,V) are defined as a function of said relative thickness t / c and are situated within variation ranges bounded by low values (B) and high values (H) given in the following table: t / c uC 1 vC 1 uC 3 vC 3 20% B 0.55 0.12 0.55 -0.08 H 0.70 0.16 0.75 -0.04 25% B 0.63 0.14 0.55 -0.11 H 0.73 0.19 0.75 -0.06 30% B 0.65 0.18 0.62 -0.12 H 0.75 0.22 0.72 -0.08 35% B 0.65 0.20 0.62 -0.15 H 0.75 0.24 0.73 -0.11 40% B 0.48 0.23 0.45 -0.17 H 0.63 0.28 0.65 -0.12 50% B 0.35 0.28 0.37 -0.22 H 0.49 0.37 0.57 -0.13 60% B 0.25 0.34 0.30 -0.26 H 0.42 0.45 0.50 -0.15 70% B 0.20 0.44 0.20 -0.26 H 0.40 0.56 0.30 -0.14 80% B 0.36 0.47 0.19 -0.33 H 0.52 0.57 0.31 -0.23 90% B 0.37 0.47 0.20 -0.43 H 0.52 0.59 0.30 -0.31 100% B 0.40 0.45 0.22 -0.55 H 0.50 0.60 0.32 -0.40
An apparatus , comprising: a first slave (120-1) and a second slave (120-2); and a master comprising a host controller , the host controller being configured to communicate with the first slave (120-1) and with the second slave (120-2) via a serial communication bus , in accordance with a serial communication protocol, characterized in that the host controller comprises a master-slave module configured to communicate with the first slave (120-1) and with the second slave (120-2) via the serial communication bus in accordance with the serial communication protocol and be in a low-power mode while the first slave (120-1) and the second slave (120-2) are in a direct communication, and an always-on module configured to, while the master-slave module is in the low-power mode, clock the serial communication bus for the direct communication. a first slave (120-1) and a second slave (120-2); and a master comprising a host controller , the host controller being configured to communicate with the first slave (120-1) and with the second slave (120-2) via a serial communication bus , in accordance with a serial communication protocol, characterized in that the host controller comprises a master-slave module configured to communicate with the first slave (120-1) and with the second slave (120-2) via the serial communication bus in accordance with the serial communication protocol and be in a low-power mode while the first slave (120-1) and the second slave (120-2) are in a direct communication, and an always-on module configured to, while the master-slave module is in the low-power mode, clock the serial communication bus for the direct communication. the host controller being configured to communicate with the first slave (120-1) and with the second slave (120-2) via a serial communication bus , in accordance with a serial communication protocol, characterized in that the host controller comprises a master-slave module configured to communicate with the first slave (120-1) and with the second slave (120-2) via the serial communication bus in accordance with the serial communication protocol and be in a low-power mode while the first slave (120-1) and the second slave (120-2) are in a direct communication, and an always-on module configured to, while the master-slave module is in the low-power mode, clock the serial communication bus for the direct communication. a master-slave module configured to communicate with the first slave (120-1) and with the second slave (120-2) via the serial communication bus in accordance with the serial communication protocol and be in a low-power mode while the first slave (120-1) and the second slave (120-2) are in a direct communication, and an always-on module configured to, while the master-slave module is in the low-power mode, clock the serial communication bus for the direct communication.
A vegetation cutter for cutting vegetation circumferent an obstacle, the vegetation cutter comprising: a frame comprising a dock for receiving the obstacle; characterized in that the vegetation cutter further comprises: a member carried by the frame, wherein the member is substantially planar and circular in shape and is rotatably coupled to the frame at a periphery of the member, the member comprising an object-receiving channel that extends between the periphery and centre of the member; at least one cutter that depends from the member, the at least one cutter being moveable relative to the frame in a cutting trajectory whereby vegetation circumferent a docked obstacle located at the centre of the member is cut; and a driver for moving the member, whereby the at least one cutter moves in the cutting trajectory. a frame comprising a dock for receiving the obstacle; characterized in that the vegetation cutter further comprises: a member carried by the frame, wherein the member is substantially planar and circular in shape and is rotatably coupled to the frame at a periphery of the member, the member comprising an object-receiving channel that extends between the periphery and centre of the member; at least one cutter that depends from the member, the at least one cutter being moveable relative to the frame in a cutting trajectory whereby vegetation circumferent a docked obstacle located at the centre of the member is cut; and a driver for moving the member, whereby the at least one cutter moves in the cutting trajectory. a member carried by the frame, wherein the member is substantially planar and circular in shape and is rotatably coupled to the frame at a periphery of the member, the member comprising an object-receiving channel that extends between the periphery and centre of the member; at least one cutter that depends from the member, the at least one cutter being moveable relative to the frame in a cutting trajectory whereby vegetation circumferent a docked obstacle located at the centre of the member is cut; and a driver for moving the member, whereby the at least one cutter moves in the cutting trajectory.
Milling system for introducing an installation slot into a ground surface , which system has a carrier vehicle and a milling device which is arranged on the front of the carrier vehicle , is connected to the carrier vehicle , and has a milling wheel , at least one hydraulic drive, and a milling wheel housing having an ejection window provided on the front of the milling wheel , on which ejection window a conveyor belt is provided during operation of the milling system , characterized in that a front hydraulic support cylinder which is oriented vertically in a working position of the milling system and can be extended downward is provided on the milling wheel housing in front of the axis of rotation (A) of the milling wheel in the forward direction of travel (V) of the milling system ; a rear hydraulic support cylinder which is oriented vertically in a working position of the milling system and can be extended upward is provided on the milling wheel housing behind the axis of rotation (A) of the milling wheel in the forward direction of travel (V) of the milling system ; and a hydraulic compensating cylinder which hydraulically couples the front and the rear hydraulic support cylinder is provided on the milling wheel housing.
Expander roller with working length L and on the outer circumference oblique implanted elastic brush plugs are placed , which are halfway the length L obliquely implanted to the opposite ends of said expander roller for expanding or stretching widths of thin materials such as foils, widths of paper or textile, wherein said expander roller is a type of built-up roller tube with a total circumference radius R, a usable length of 2 x L/2 and with his ends placed in a support structure for free rotation, wherein said circumference surface consists of a grid of obliquely implanted brush plugs with a free length t, wherein said brush plugs form an angle alpha (α) in axial direction over length L/2 to the two ends of the expander roller with the vertical placed on the outer circumference and with an angle partly beta β (β = α/ρ) with the normal in the tangential direction thereof, wherein the mutual centre distance of the-brush plugs in the rows is X in said axial direction, wherein the mutual distance of said radial distances of the brush plugs is determined by the centre angle beta (β) and radius r of the expander roller , characterized in that each following row of brush plugs on the circumference is shifted 1⁄2X to each other in axial direction.
A method of transmitting channel status information, CSI, at a user equipment, UE, through a physical uplink shared channel, PUSCH, in a wireless communication system, the method comprising: receiving (S1400) a radio resource control, RRC, signal including configuration information related to a feedback mode set including a plurality of feedback modes for CSI report, wherein each of the plurality of feedback modes includes information related to at least one component carrier, for triggering the CSI report, among the plurality of component carriers which is configured to the UE; receiving (S1402) a physical downlink control channel, PDCCH, signal with uplink allocation information for the PUSCH, wherein the uplink allocation information includes an indicator indicating one of the plurality of feedback modes; and transmitting (S1404), through the PUSCH, CSI for the one of the plurality of feedback modes. receiving (S1400) a radio resource control, RRC, signal including configuration information related to a feedback mode set including a plurality of feedback modes for CSI report, wherein each of the plurality of feedback modes includes information related to at least one component carrier, for triggering the CSI report, among the plurality of component carriers which is configured to the UE; receiving (S1402) a physical downlink control channel, PDCCH, signal with uplink allocation information for the PUSCH, wherein the uplink allocation information includes an indicator indicating one of the plurality of feedback modes; and transmitting (S1404), through the PUSCH, CSI for the one of the plurality of feedback modes.