mhurhangee/ep-ind-claims huggingface dataset:
A measuring device operably engageable with a skin surface portion of a skin surface of an animal body for measuring water content in a bodily media discharged by the skin surface, the measurement device being configured as a patch-like structure, wherein the measuring device is characterized by: a reactor comprising a reactant gas donor, wherein the reactor is configured to liberate a hydrogen stream having a stoichiometric equivalent to water in the media, the reactant gas donor having an ability to liberate hydrogen gas upon reaction with water; and a transducing element configured to transduce the hydrogen stream into an electrical signal, wherein the reactor is configured such that the reactant gas donor can be continuously subjected to flow of the bodily media. a reactor comprising a reactant gas donor, wherein the reactor is configured to liberate a hydrogen stream having a stoichiometric equivalent to water in the media, the reactant gas donor having an ability to liberate hydrogen gas upon reaction with water; and a transducing element configured to transduce the hydrogen stream into an electrical signal, wherein the reactor is configured such that the reactant gas donor can be continuously subjected to flow of the bodily media.
A method for subjecting a surface of a substrate to successive surface reactions of at least a first precursor, a second precursor and a first subsequent precursor according to the principles of atomic layer deposition for forming on the surface of the substrate a coating comprising two or more different coating layers (302, 304, 306), the method being carried out with a nozzle head comprising one or more first precursor nozzles (30, 98, 99) for forming a first precursor zone and one or more second precursor nozzles for forming a second precursor zone, the method comprises: - a primary deposition step comprising subjecting the surface of the substrate to the first precursor in the first precursor zone and subjecting the surface of the substrate to the second precursor in the second precursor zone for forming a first coating layer on the surface of the substrate; - transporting the substrate and simultaneously moving the nozzle head in reciprocating manner over the surface of the substrate for carrying out the primary deposition step, characterized in that the method comprises: - a first changing step comprising changing the first precursor in the first precursor zone to a first subsequent precursor which is different than the first and second precursors (A, B); - an alternate deposition step comprising subjecting the surface of the substrate to the first subsequent precursor in the first precursor zone and subjecting the surface of the substrate to the second precursor in the second precursor zone for forming a subsequent coating layer (304, 306) on the surface of the substrate; - transporting the substrate and simultaneously moving the nozzle head in reciprocating manner over the surface of the substrate for carrying out the alternate deposition step. - a primary deposition step comprising subjecting the surface of the substrate to the first precursor in the first precursor zone and subjecting the surface of the substrate to the second precursor in the second precursor zone for forming a first coating layer on the surface of the substrate; - transporting the substrate and simultaneously moving the nozzle head in reciprocating manner over the surface of the substrate for carrying out the primary deposition step, - a first changing step comprising changing the first precursor in the first precursor zone to a first subsequent precursor which is different than the first and second precursors (A, B); - an alternate deposition step comprising subjecting the surface of the substrate to the first subsequent precursor in the first precursor zone and subjecting the surface of the substrate to the second precursor in the second precursor zone for forming a subsequent coating layer (304, 306) on the surface of the substrate; - transporting the substrate and simultaneously moving the nozzle head in reciprocating manner over the surface of the substrate for carrying out the alternate deposition step.
A continuously operating dough kneading device with a trough area which is arranged between an inlet and an outlet and comprises a kneading area in which kneading tools are arranged, wherein in the trough area at least one nozzle is arranged and the trough area is arranged in a trough which comprises a plurality of wall sections wherein at least two adjacent wall sections form an angle with regard to each other and a jet of the nozzle is directed at an angle onto at least one wall section, wherein the jet reflected from this wall section is directed to an area of the kneading area which screened off from the nozzle by the kneading tools.
Arrangement for administering a liquid medicament comprising a medicament container with a bag, further comprising a compression means for locally compressing the bag, wherein the bag has an outlet and an inner surface, characterized in that the inner surface is arranged to stick when subjected to the compression means and thus kept from returning to its initial shape after having been subjected to the compression means so intake of air or reflow of the remaining medicament into the emptied area is avoided when the compression means is pulled back from the bag after delivering a dose of medicament.
A stapling apparatus, comprising: an anvil head including a top surface and a bottom surface, the bottom surface defining staple forming pockets; a buttress supported on the bottom surface of the anvil head and positioned to cover the staple forming pockets; and an anvil cap secured to the top surface of the anvil head and positioned to selectively secure the buttress to the anvil head, characterised in that the anvil cap includes an inner ring assembly and an outer ring, wherein the outer ring is selectively engagable with the buttress and movable relative to the inner ring assembly to separate the anvil cap from the buttress and release the buttress from the anvil head. an anvil head including a top surface and a bottom surface, the bottom surface defining staple forming pockets; a buttress supported on the bottom surface of the anvil head and positioned to cover the staple forming pockets; and an anvil cap secured to the top surface of the anvil head and positioned to selectively secure the buttress to the anvil head, characterised in that the anvil cap includes an inner ring assembly and an outer ring, wherein the outer ring is selectively engagable with the buttress and movable relative to the inner ring assembly to separate the anvil cap from the buttress and release the buttress from the anvil head.
A flat optical drop cable (1; 2; 3) comprising: - an outer sheath (11; 21; 31) forming a cavity (12; 22; 32), the cavity (12; 22; 32) being shaped in the form of a stadium; - at least one strength member (13; 23; 33); and - at least one optical fiber element (14; 24; 34) comprising one or more optical fibers (15; 25), wherein said at least one optical fiber element (14; 24; 34) oscillates within said cavity (12; 22; 32) on an oscillation plane parallel to a longitudinal plane of said cable (1; 2; 3), wherein "oscillate" refers to a static pattern of the optical element (14; 24; 34) on the oscillation plane in a confined space in the cavity (12; 22; 32) of the outer sheath (11; 21; 31); and wherein an height of said cavity (12; 22; 32) substantially corresponds to an height of said at least one optical fiber element (14; 24; 34), characterized in that a diameter of said at least one optical fiber element (14; 24; 34) is comprised between 0.5 mm and 3.0 mm, a period of oscillation of said at least one optical fiber element (14; 24; 34) is comprised between 30 mm and 300 mm and a ratio between a peak-to-peak amplitude of said oscillation and width of said at least one optical fiber element is comprised between 1.3 and 5, wherein the width indicates a dimension of the at least one optical fiber element along a direction parallel to the longitudinal plane of the cable, wherein the optical fiber elements have said diameter. - an outer sheath (11; 21; 31) forming a cavity (12; 22; 32), the cavity (12; 22; 32) being shaped in the form of a stadium; - at least one strength member (13; 23; 33); and - at least one optical fiber element (14; 24; 34) comprising one or more optical fibers (15; 25),
A coating thickness measuring instrument comprising: a magnetic induction probe comprising at least one drive coil and at least one pick-up coil (122, 123); a driver for driving an alternating current in the or each drive coil; a detector for detecting the output of the or each pick-up coil; and a processor configured to apply a transfer function to the detector output to produce an instrument output corresponding to a measured coating thickness; characterised in that the processor is also configured to scale both the drive current and detector output simultaneously in response to the instrument output. a magnetic induction probe comprising at least one drive coil and at least one pick-up coil (122, 123); a driver for driving an alternating current in the or each drive coil; a detector for detecting the output of the or each pick-up coil; and a processor configured to apply a transfer function to the detector output to produce an instrument output corresponding to a measured coating thickness; characterised in that the processor is also configured to scale both the drive current and detector output simultaneously in response to the instrument output.
A hybrid composite-metallic containment system (216; 322; 400), comprising: a cylindrical structure disposed radially outward of a fan blade and having a first composite layer extending about a circumference; a first metallic layer extending about the circumference, wherein the first composite layer is disposed radially inward of the first metallic layer; a second composite layer extending about the circumference, wherein the second composite layer is disposed radially inward of the first composite layer and the first metallic layer; and a binding component; characterised by: a second metallic layer extending about the circumference radially inward of the second composite layer to sandwich the first and second composite layers (404,412) between the first and second metallic layers (406,410). a cylindrical structure disposed radially outward of a fan blade and having a first composite layer extending about a circumference; a first metallic layer extending about the circumference, wherein the first composite layer is disposed radially inward of the first metallic layer; a second composite layer extending about the circumference, wherein the second composite layer is disposed radially inward of the first composite layer and the first metallic layer; and a binding component; characterised by: a second metallic layer extending about the circumference radially inward of the second composite layer to sandwich the first and second composite layers (404,412) between the first and second metallic layers (406,410).
A method for controlling an application, comprising: accelerating startup of a target application of a mobile terminal when a control instruction of starting the target application is detected, wherein the mobile terminal has at least one high-performance core and at least one low-performance core; characterized in that the method further comprises: when a reference startup time length of the target application is less than a preset time length, determining whether a refresh rate of frames of a main thread of the target application during accelerating the startup of the target application is greater than or equal to an accelerating stop refresh rate of the target application, wherein the reference startup time length of the target application is determined according to multiple history records as an average time length of the accelerating startup time lengths contained in the multiple history records, and stopping the accelerating the startup of the target application based on a determination that the refresh rate of the frames of the main thread of the target application reaches or exceeds the accelerating stop refresh rate. accelerating startup of a target application of a mobile terminal when a control instruction of starting the target application is detected, wherein the mobile terminal has at least one high-performance core and at least one low-performance core; characterized in that the method further comprises: when a reference startup time length of the target application is less than a preset time length, determining whether a refresh rate of frames of a main thread of the target application during accelerating the startup of the target application is greater than or equal to an accelerating stop refresh rate of the target application, wherein the reference startup time length of the target application is determined according to multiple history records as an average time length of the accelerating startup time lengths contained in the multiple history records, and stopping the accelerating the startup of the target application based on a determination that the refresh rate of the frames of the main thread of the target application reaches or exceeds the accelerating stop refresh rate. when a reference startup time length of the target application is less than a preset time length, determining whether a refresh rate of frames of a main thread of the target application during accelerating the startup of the target application is greater than or equal to an accelerating stop refresh rate of the target application, wherein the reference startup time length of the target application is determined according to multiple history records as an average time length of the accelerating startup time lengths contained in the multiple history records, and stopping the accelerating the startup of the target application based on a determination that the refresh rate of the frames of the main thread of the target application reaches or exceeds the accelerating stop refresh rate.
A method to establish an asynchronous bidirectional forwarding detection, BFD, session with a defined return path to enable detection of data plane failures between an active node and a passive node in a network where a forward path and a return path between the active node and the passive node are not co-routed, the method for the passive node comprising the steps of: receiving a modified label switched path, LSP, ping including a BFD discriminator type length value, TLV, of the active node and a BFD return path TLV describing a return path to the active node; associating a BFD discriminator of the active node and a BFD discriminator of the passive node with the asynchronous BFD session; associating the return path with the asynchronous BFD session between the active node and the passive node; and sending BFD control packets to the active node using the return path to detect a failure on the return path. receiving a modified label switched path, LSP, ping including a BFD discriminator type length value, TLV, of the active node and a BFD return path TLV describing a return path to the active node; associating a BFD discriminator of the active node and a BFD discriminator of the passive node with the asynchronous BFD session; associating the return path with the asynchronous BFD session between the active node and the passive node; and sending BFD control packets to the active node using the return path to detect a failure on the return path.
A head cover comprising: a top surface; an anterior portion having a first height (h); a posterior portion having a second height; at least one side portion extending between the posterior portion and the anterior portion and having a bottom edge; wherein the bottom edge of the at least one side portion has a nonlinear contour; and the bottom edge of the at least one side portion has at least a first slope and a second slope, and where the first slope is not equal to the second slope, and characterized in that the top surface is formed from a spunbond material, and the at least one side portion is formed from a laminate spunbond-meltblown-spunbond material. a top surface; an anterior portion having a first height (h); a posterior portion having a second height; at least one side portion extending between the posterior portion and the anterior portion and having a bottom edge; wherein the bottom edge of the at least one side portion has a nonlinear contour; and the bottom edge of the at least one side portion has at least a first slope and a second slope, and where the first slope is not equal to the second slope, and characterized in that the top surface is formed from a spunbond material, and the at least one side portion is formed from a laminate spunbond-meltblown-spunbond material.
A user-vehicle interface comprising: a display being a user head-mounted display configured to display to the user an augmented display; and a gesture control system arranged to: sense a direction of a gesture of the user of the vehicle; and, process the sensed gesture to control a location of an indicator on the display in accordance with that sensed direction, such that a location of the indicator is arranged to move in accordance with changes in the sensed direction, the indicator being used to show a current position for user interaction with content on the display, and the indicator being in a plane in which that content resides; process the sensed gesture to control, on the display, a representation of the sensed direction, toward the current position for user interaction with the content, either as part of the displayed indicator, or in addition to the displayed indicator, such that the representation appears to the user to originate from the general perspective of the user from a general location of a body part used in the gesture, and extends to the plane in which content resides. a display being a user head-mounted display configured to display to the user an augmented display; and a gesture control system arranged to: sense a direction of a gesture of the user of the vehicle; and, process the sensed gesture to control a location of an indicator on the display in accordance with that sensed direction, such that a location of the indicator is arranged to move in accordance with changes in the sensed direction, the indicator being used to show a current position for user interaction with content on the display, and the indicator being in a plane in which that content resides; process the sensed gesture to control, on the display, a representation of the sensed direction, toward the current position for user interaction with the content, either as part of the displayed indicator, or in addition to the displayed indicator, sense a direction of a gesture of the user of the vehicle; and, process the sensed gesture to control a location of an indicator on the display in accordance with that sensed direction, such that a location of the indicator is arranged to move in accordance with changes in the sensed direction, the indicator being used to show a current position for user interaction with content on the display, and the indicator being in a plane in which that content resides; process the sensed gesture to control, on the display, a representation of the sensed direction, toward the current position for user interaction with the content, either as part of the displayed indicator, or in addition to the displayed indicator, such that the representation appears to the user to originate from the general perspective of the user from a general location of a body part used in the gesture, and extends to the plane in which content resides.
A composition comprising an agent that mediates upregulation of Transcription Factor EB for use in the treatment of a lysosomal storage disorder, wherein (i) the agent is cinnamic acid; or (ii) the agent is sodium benzoate. (i) the agent is cinnamic acid; or (ii) the agent is sodium benzoate.
A composite, comprising a layer sequence; wherein the layer sequence a) comprises as layers i) a first layer, comprising A. a first ceramic, and B. a first layer surface, ii) a second layer, A. comprising a second ceramic, B. superimposing the first layer surface; b) comprises i) a hole, connecting through each layer of the layer sequence; ii) a cermet element; wherein the cermet element comprises a first part and a second part; wherein the first part is comprised by the hole; wherein the second part is comprised between the first layer and the second layer; wherein the cermet element is in one piece; wherein the hole comprises a front face in a first surface of the layer sequence, an end face, and a lateral surface; wherein the first surface faces away from the layer sequence; wherein the lateral surface connects the front face to the end face. a) comprises as layers i) a first layer, comprising A. a first ceramic, and B. a first layer surface, ii) a second layer, A. comprising a second ceramic, B. superimposing the first layer surface; i) a first layer, comprising A. a first ceramic, and B. a first layer surface, A. a first ceramic, and B. a first layer surface, ii) a second layer, A. comprising a second ceramic, B. superimposing the first layer surface; A. comprising a second ceramic, B. superimposing the first layer surface; b) comprises i) a hole, connecting through each layer of the layer sequence; ii) a cermet element; i) a hole, connecting through each layer of the layer sequence; ii) a cermet element;
A method for compensating a cut-out of LEDs and associated wiring in an LED-based lighting unit comprising a grid of LEDs, characterised by: removing at least one LED from said grid of LEDs to create a grid opening in the grid of LEDs, said grid of LEDs connected in a series parallel configuration by conductive wiring; wherein removing said at least one LED disjoins portions of said conductive wiring and creates a plurality of free wire segments in said conductive wiring, said free wire segments electrically connected to said grid of LEDs and having previously been electrically connected to the removed said at least one LED; aligning an opening of a compensating unit at least partially with said grid opening; and mechanically coupling said compensating unit to said free wire segments; wherein said compensating unit is configured to alter current within said grid of LEDs to lessen the effect of increased current due to the removal of said at least one LED. removing at least one LED from said grid of LEDs to create a grid opening in the grid of LEDs, said grid of LEDs connected in a series parallel configuration by conductive wiring; wherein removing said at least one LED disjoins portions of said conductive wiring and creates a plurality of free wire segments in said conductive wiring, said free wire segments electrically connected to said grid of LEDs and having previously been electrically connected to the removed said at least one LED; aligning an opening of a compensating unit at least partially with said grid opening; and mechanically coupling said compensating unit to said free wire segments; wherein said compensating unit is configured to alter current within said grid of LEDs to lessen the effect of increased current due to the removal of said at least one LED.