mhurhangee/ep-ind-claims huggingface dataset:
A cured or non-cured structure of composite material, comprising: - a structural component in the form of a matrix; - a structural component in the form of fiber; - a layer of polymer viscoelastic material with a glass transition temperature that is less than -55°C and with a melting temperature for a thermoplastic polymer or degradation temperature for a thermostable polymer that is greater than 180°C. - a layer of impact-protection material; characterized in that: - the matrix and the fiber form a continuous first layer of the composite material; - the layer of viscoelastic material is added in the form of a second layer on top of the first layer, formed by the matrix and the fiber; the layer of impact-protection material is added in the form of a continuous third layer on top of the second layer of viscoelastic material, said third layer of impact-protection material forming the outermost layer of the composite material, and the third layer being electrically conductive, wherein the thickness of the viscoelastic second layer of the composite material is between 0.1 and 0.2 mm, the third layer of the composite material has a maximum thickness equal to one third (33.33%) the total thickness of the composite material, and the third layer of the composite material has a minimum thickness that is: a) greater than 22% the total thickness of the composite material, or b) greater than 0.8 mm,the first of these two minimum requirements that is met being applied. - a structural component in the form of a matrix; - a structural component in the form of fiber; - a layer of polymer viscoelastic material with a glass transition temperature that is less than -55°C and with a melting temperature for a thermoplastic polymer or degradation temperature for a thermostable polymer that is greater than 180°C. - a layer of impact-protection material; - the matrix and the fiber form a continuous first layer of the composite material; - the layer of viscoelastic material is added in the form of a second layer on top of the first layer, formed by the matrix and the fiber; a) greater than 22% the total thickness of the composite material, or b) greater than 0.8 mm,the first of these two minimum requirements that is met being applied.
A method for generating a frame of an image on a field sequential liquid crystal display, LCD, (222, 430) of a handheld wireless communication device (102, 202) having a plurality of light-sources (322, 324, 326), said method comprising the steps of: scanning a first region of contiguous lines of pixels of the LCD (222, 430) to produce a colour region on the LCD (222, 430), using a first scanning frequency; scanning a second region of contiguous lines of pixels of the LCD (222, 430) pixels to produce a monochrome region on the LCD (222, 430) using a second scanning frequency less than the first scanning frequency; wherein said colour region is produced by scanning said first region a first number of times; and wherein said monochrome region is produced by scanning said second region a second number of times, wherein said first number of times is N times said second number of times, wherein during scanning said monochrome region, each pixel in said region is activated once and a clock pulse is used to enter a binary value into a pixel to cause the pixel to be on or off for the pixels in said monochrome region, and activating said light sources (322, 324, 326) during a portion of said frame, wherein the number of pixel lines and the starting pixel line of the monochrome and colour regions are allocated depending on the data being displayed. scanning a first region of contiguous lines of pixels of the LCD (222, 430) to produce a colour region on the LCD (222, 430), using a first scanning frequency; scanning a second region of contiguous lines of pixels of the LCD (222, 430) pixels to produce a monochrome region on the LCD (222, 430) using a second scanning frequency less than the first scanning frequency; wherein said colour region is produced by scanning said first region a first number of times; and wherein said monochrome region is produced by scanning said second region a second number of times, wherein said first number of times is N times said second number of times, wherein during scanning said monochrome region, each pixel in said region is activated once and a clock pulse is used to enter a binary value into a pixel to cause the pixel to be on or off for the pixels in said monochrome region, and activating said light sources (322, 324, 326) during a portion of said frame, wherein the number of pixel lines and the starting pixel line of the monochrome and colour regions are allocated depending on the data being displayed.
Method for presenting the reconnaissance results during the locating of a firearm, the distance from the firing position as a radial coordinate and the direction of the firing position as an angular coordinate being presented on a display in a first circular indicator in polar coordinates, with the own position as the centre of the circle, characterized in that the reconnaissance results of previous firing events are indicated in a circular-ring-shaped or circular second indicator, adjacent to the indicator, likewise in polar coordinates in the chronological order thereof in such a way that the respective firing time is presented as a radial coordinate and the respective direction of the firing position is presented as an angular coordinate.
An apparatus for closed reduction of a bone fracture, the apparatus comprising: a pulling adaptor including: a handle configured to be gripped by an operator; an insertion rod that is extended from the handle in a longitudinal direction of the handle, and configured to be inserted into the bone fracture which is depressed in at least one area thereof; and a pulling lug that is bent and extended from a free end of the insertion rod such that the pulling lug is perpendicular to the insertion rod or such that the pulling lug is inclined with respect to the insertion rod, the pulling lug being configured to be inserted into the fracture, which is depressed, in order to pull the bone fracture, a slot that penetrates a portion of the insertion rod and a portion of the pulling lug, and a hand piece that supports at least the pulling adaptor and is configured to be gripped by an operator, characterized by further comprising: a mounting member comprising: a pivot joint configured to pivotably support the hand piece such that the hand piece is linearly moveable; and a plurality of legs configured to support the pivot joint while being spaced apart from the bone fracture. a handle configured to be gripped by an operator; an insertion rod that is extended from the handle in a longitudinal direction of the handle, and configured to be inserted into the bone fracture which is depressed in at least one area thereof; and a pulling lug that is bent and extended from a free end of the insertion rod such that the pulling lug is perpendicular to the insertion rod or such that the pulling lug is inclined with respect to the insertion rod, the pulling lug being configured to be inserted into the fracture, which is depressed, in order to pull the bone fracture, a slot that penetrates a portion of the insertion rod and a portion of the pulling lug, and a hand piece that supports at least the pulling adaptor and is configured to be gripped by an operator, characterized by further comprising: a mounting member comprising: a pivot joint configured to pivotably support the hand piece such that the hand piece is linearly moveable; and a plurality of legs configured to support the pivot joint while being spaced apart from the bone fracture.
An organ container (1,1d) for containing an organ (90,90d), comprising: a bag-shaped insulating sheet having an opening and capable of containing an organ (90,90d) inserted into an inner space through said opening, wherein said insulating sheet is formed of an extra flexible material, and said insulating sheet has a hardness less than or equal to F45 according to a durometer hardness test compliant with JIS K 6253-3:2012, said insulating sheet includes an upper sheet and a lower sheet, said upper sheet and said lower sheet each have a quadrangular shape in plan view and overlap each other in an up-down direction, the upper sheet and the lower sheet having approximately the same shape, and said upper sheet and said lower sheet are fixedly attached to each other at three sides of said quadrangular shape and are spaced from each other at a remaining one side to form said opening. a bag-shaped insulating sheet having an opening and capable of containing an organ (90,90d) inserted into an inner space through said opening, wherein said insulating sheet is formed of an extra flexible material, and said insulating sheet has a hardness less than or equal to F45 according to a durometer hardness test compliant with JIS K 6253-3:2012, said insulating sheet includes an upper sheet and a lower sheet, said upper sheet and said lower sheet each have a quadrangular shape in plan view and overlap each other in an up-down direction, the upper sheet and the lower sheet having approximately the same shape, and said upper sheet and said lower sheet are fixedly attached to each other at three sides of said quadrangular shape and are spaced from each other at a remaining one side to form said opening.
Ambulatory infusion device, including: (a) a user-replaceable energy storage for storing electrical energy required for powering the device, the energy storage having an off-circuit voltage, and an internal resistance, (b)a dosing unit with an electrically powered actuator and an electronic controller, the controller controlling operation of the actuator, (c) a testing unit, the testing unit including a measurement unit for determining the off-circuit voltage and the internal resistance of the energy storage, the testing unit being designed to carry out tests during operation of the device, a test including • determining the off-circuit voltage and the internal resistance, • evaluating the off-current voltage and the internal resistance, thus determining if the energy storage is capable for further powering the device, the testing unit being designed to repeatedly carry out tests and to vary a time interval between consecutive tests in dependence of a capability of the energy storage for further powering the device. (d) an alerting unit, the alerting unit being coupled to the testing unit to be activated by the testing unit if the test indicates a lack of capability of the energy storage for further powering the device. (a) a user-replaceable energy storage for storing electrical energy required for powering the device, the energy storage having an off-circuit voltage, and an internal resistance, (b)a dosing unit with an electrically powered actuator and an electronic controller, the controller controlling operation of the actuator, (c) a testing unit, the testing unit including a measurement unit for determining the off-circuit voltage and the internal resistance of the energy storage, the testing unit being designed to carry out tests during operation of the device, a test including • determining the off-circuit voltage and the internal resistance, • evaluating the off-current voltage and the internal resistance, thus determining if the energy storage is capable for further powering the device, the testing unit being designed to repeatedly carry out tests and to vary a time interval between consecutive tests in dependence of a capability of the energy storage for further powering the device. • determining the off-circuit voltage and the internal resistance, • evaluating the off-current voltage and the internal resistance, thus determining if the energy storage is capable for further powering the device, the testing unit being designed to repeatedly carry out tests and to vary a time interval between consecutive tests in dependence of a capability of the energy storage for further powering the device. (d) an alerting unit, the alerting unit being coupled to the testing unit to be activated by the testing unit if the test indicates a lack of capability of the energy storage for further powering the device.
Rotor position sensor for a DC motor, wherein the rotor position sensor comprises a housing (7, 7A), a sensor element, and a sheet-metal shield which encloses the housing (7, 7A); wherein the sheet-metal shield is configured as a circumferentially closed hollow member and is pushed over the housing (7, 7A); wherein the two ends (12A, 12B) of the sheet-metal shield at a connection point of the hollow member configure a mutually engaging connection contour; wherein the rotor position sensor is able to be disposed on the DC motor; wherein a second lower periphery (10.2) of the sheet-metal shield faces the DC motor; wherein a bending tab with an embossing is in each case configured on at least two mutually opposite sides on a first upper periphery (10.1) of the sheet-metal shield that faces away from the DC motor, said bending tabs exerting a pretensioning force on the housing (7, 7A).
A method comprising: projecting a content associated with a user device onto a surface; projecting, by a pointer device using invisible light, an invisible cursor onto the projected content; receiving, by the user device, an image of the projected content including an image of an invisible cursor content of the invisible cursor; determining a position of the invisible cursor content with respect to the projected content; outputting, by the user device, the content and a visible cursor having a position in correspondence to the invisible cursor; projecting the content and the visible cursor onto the surface; receiving, by the user device, an input from the pointer device; mapping, by the user device, the position of the visible cursor to the content; and performing, by the user device, an input operation that interacts with the content and corresponds to the input from the pointer device and the position of the visible cursor; wherein when determining the position of the invisible cursor content with respect to the projected content, the method further comprising detecting a size associated with the invisible cursor and at least one of an illumination level associated with the invisible cursor content, and a frequency associated with the invisible light, and using the size in combination with the illumination level and/or the frequency to detect the invisible cursor. projecting a content associated with a user device onto a surface; projecting, by a pointer device using invisible light, an invisible cursor onto the projected content; receiving, by the user device, an image of the projected content including an image of an invisible cursor content of the invisible cursor; determining a position of the invisible cursor content with respect to the projected content; outputting, by the user device, the content and a visible cursor having a position in correspondence to the invisible cursor; projecting the content and the visible cursor onto the surface; receiving, by the user device, an input from the pointer device; mapping, by the user device, the position of the visible cursor to the content; and performing, by the user device, an input operation that interacts with the content and corresponds to the input from the pointer device and the position of the visible cursor; wherein when determining the position of the invisible cursor content with respect to the projected content, the method further comprising detecting a size associated with the invisible cursor and at least one of an illumination level associated with the invisible cursor content, and a frequency associated with the invisible light, and using the size in combination with the illumination level and/or the frequency to detect the invisible cursor.
A catalyst regeneration vessel comprising a chlorination zone, the chlorination zone comprising: an outer mixing chamber at an outer edge of the chlorination zone, the outer mixing chamber including a lower portion and an upper portion, the lower portion of the outer mixing chamber including at least one air nozzle that injects a drying air stream into the outer mixing chamber, at least one chlorine input nozzle that injects a chlorine input stream into the outer mixing chamber, and at least a first baffle; a catalyst bed in a center of the chlorination zone; and an inner mixing chamber interposed between the outer mixing chamber and the catalyst bed, wherein the outer mixing chamber and the inner mixing chamber are defined by a downwardly extending chlorination zone wall, an outer wall, and an upwardly extending chlorination wall that is interposed between the downwardly extending chlorination zone wall and the outer wall, wherein the first baffle is located above the at least one chlorine input nozzle, wherein the chlorination zone further comprises a second baffle located above upwardly extending chlorination wall, wherein the second baffle extends from the outer wall to the downwardly extending chlorination wall. an outer mixing chamber at an outer edge of the chlorination zone, the outer mixing chamber including a lower portion and an upper portion, the lower portion of the outer mixing chamber including at least one air nozzle that injects a drying air stream into the outer mixing chamber, at least one chlorine input nozzle that injects a chlorine input stream into the outer mixing chamber, and at least a first baffle; a catalyst bed in a center of the chlorination zone; and an inner mixing chamber interposed between the outer mixing chamber and the catalyst bed, wherein the outer mixing chamber and the inner mixing chamber are defined by a downwardly extending chlorination zone wall, an outer wall, and an upwardly extending chlorination wall that is interposed between the downwardly extending chlorination zone wall and the outer wall, wherein the first baffle is located above the at least one chlorine input nozzle, wherein the chlorination zone further comprises a second baffle located above upwardly extending chlorination wall, wherein the second baffle extends from the outer wall to the downwardly extending chlorination wall.
A laser machining system for machining a workpiece using a laser beam, comprising: a machining head with a housing having an opening for emitting said laser beam from said machining head and at least one reflective reference for reflecting a measurement beam; and a measuring device comprising an evaluation unit and configured to direct an optical measurement beam through said opening onto said workpiece and onto said reflective reference, said optical measurement beam passing through said opening substantially in parallel to said laser beam and wherein said optical measurement beam is a continuous measurement beam having a circular cross-section, wherein a diameter of said optical measurement beam is greater than a diameter of said opening of said housing in order to simultaneously obtain a first reflection of the optical measurement beam from said reflective reference, a second reflection of the optical measurement beam from said workpiece, and a third reflection of the optical measurement beam from a machining point of said laser beam, wherein said evaluation unit is configured to determine a distance between said machining head and said workpiece based on said first reflection and on said second reflection, and to determine a distance to a machining ground based on said first reflection and said third reflection. a machining head with a housing having an opening for emitting said laser beam from said machining head and at least one reflective reference for reflecting a measurement beam; and a measuring device comprising an evaluation unit and configured to direct an optical measurement beam through said opening onto said workpiece and onto said reflective reference, said optical measurement beam passing through said opening substantially in parallel to said laser beam and wherein said optical measurement beam is a continuous measurement beam having a circular cross-section, wherein a diameter of said optical measurement beam is greater than a diameter of said opening of said housing in order to simultaneously obtain a first reflection of the optical measurement beam from said reflective reference, a second reflection of the optical measurement beam from said workpiece, and a third reflection of the optical measurement beam from a machining point of said laser beam, wherein said evaluation unit is configured to determine a distance between said machining head and said workpiece based on said first reflection and on said second reflection, and to determine a distance to a machining ground based on said first reflection and said third reflection.
A device for processing fluids comprising: a) a plurality of fin layers; b) a plurality of parting plates separating the plurality of fin layers so that a fluid flow passage is defined through each fin layer; c) a top inlet nozzle in fluid communication with an upper phase separation zone in turn in fluid communication with an upper end portion of the fluid flow passages and adapted to receive a first fluid stream; d) a bottom inlet nozzle in fluid communication with a bottom phase separation zone in turn in fluid communication with a lower end portion of the fluid flow passages and adapted to receive a second fluid stream; e) a bottom outlet nozzle in fluid communication with the bottom phase separation zone; f) a top outlet nozzle in fluid communication with the upper phase separation zone; g) said plurality of fin layers each comprising a plurality of alternating rows of offset serrated fins, and providing a shearing action on the second fluid stream as it flows through the fluid flow passages to provide mass transfer to the first fluid stream as it flows through the fluid flow passages and h) a plurality of side bar pairs, each side bar pair positioned adjacent to opposing side edges of each fin layer, each of said side bar pairs also positioned between a pair of bordering parting plates for each fin layer so that the side edges of each fin layer are enclosed i) wherein at least two of the alternating rows of fins feature differing fin thicknesses, or lengths, or heights. a) a plurality of fin layers; b) a plurality of parting plates separating the plurality of fin layers so that a fluid flow passage is defined through each fin layer; c) a top inlet nozzle in fluid communication with an upper phase separation zone in turn in fluid communication with an upper end portion of the fluid flow passages and adapted to receive a first fluid stream; d) a bottom inlet nozzle in fluid communication with a bottom phase separation zone in turn in fluid communication with a lower end portion of the fluid flow passages and adapted to receive a second fluid stream; e) a bottom outlet nozzle in fluid communication with the bottom phase separation zone; f) a top outlet nozzle in fluid communication with the upper phase separation zone; g) said plurality of fin layers each comprising a plurality of alternating rows of offset serrated fins, and providing a shearing action on the second fluid stream as it flows through the fluid flow passages to provide mass transfer to the first fluid stream as it flows through the fluid flow passages and h) a plurality of side bar pairs, each side bar pair positioned adjacent to opposing side edges of each fin layer, each of said side bar pairs also positioned between a pair of bordering parting plates for each fin layer so that the side edges of each fin layer are enclosed i) wherein at least two of the alternating rows of fins feature differing fin thicknesses, or lengths, or heights.