mhurhangee/ep-ind-claims huggingface dataset:
An dressing interface for managing fluid in a system for treating a tissue site, the apparatus comprising: a first layer (331, 731) including polymeric film; a second layer (332, 732) including polymeric film coupled to the first layer (331, 731) to form a sealed space between the first layer (331, 731) and the second layer (332, 732), the sealed space including a port at a proximal end of the sealed space; a first inner layer including a polymeric film disposed between the first layer (331, 731) and the second layer (332, 732) and defining a plurality of closed cells (340, 740) with the first layer (331, 731), the closed cells (340, 740) including sidewalls having a thickness tapering from the first layer (331, 731) to a distal end within the sealed space; and an applicator having an aperture formed in the second layer (332, 732) at a distal end of the sealed space, wherein the aperture exposes a portion of the plurality of closed cells (340, 740) to define a recessed space adapted to be fluidly coupled to the tissue site. a first layer (331, 731) including polymeric film; a second layer (332, 732) including polymeric film coupled to the first layer (331, 731) to form a sealed space between the first layer (331, 731) and the second layer (332, 732), the sealed space including a port at a proximal end of the sealed space; a first inner layer including a polymeric film disposed between the first layer (331, 731) and the second layer (332, 732) and defining a plurality of closed cells (340, 740) with the first layer (331, 731), the closed cells (340, 740) including sidewalls having a thickness tapering from the first layer (331, 731) to a distal end within the sealed space; and an applicator having an aperture formed in the second layer (332, 732) at a distal end of the sealed space, wherein the aperture exposes a portion of the plurality of closed cells (340, 740) to define a recessed space adapted to be fluidly coupled to the tissue site.
An integral two-layer preform obtained by injection moulding one layer on top of the other for the production of integrally blow-moulded dispensing bag-in-containers, said preform comprising: an inner layer and an outer layer, and at least one interface vent fluidly connecting an interface between inner and outer layers to the atmosphere, wherein said preform forms a two layer container upon blow-moulding, and wherein the thus obtained inner layer of said container releases from the thus obtained outer layer and is squeezed to thus dispense a liquid contained therein upon blowing a pressurized gas through said at least one interface vent, and the melting temperature of the inner layer is greater than or equal to the melting temperature of the outer layer.
A system, comprising: an engine-driven power source, comprising: an engine; one of a compressor or a hydraulic pump driven by the engine; a sensor configured to generate a first signal indicative of a demand for air pressure or hydraulic pressure respectively from the compressor, and a second signal indicative of no demand for air pressure or hydraulic pressure respectively from the compressor; and a controller communicatively coupled to the sensor and comprising one or more processing components configured to execute one or more algorithms configured to initiate a shutdown sequence in response to the second signal, wherein the shutdown sequence comprises an automatic engine shutdown in which the engine is shutdown after a fist time period while the second signal indicates no demand, the shutdown sequence further comprises an automatic controller shutdown in which the controller is shut down after a second time period while the second signal indicates no demand, and the second time period ends after the first time period. an engine; one of a compressor or a hydraulic pump driven by the engine; a sensor configured to generate a first signal indicative of a demand for air pressure or hydraulic pressure respectively from the compressor, and a second signal indicative of no demand for air pressure or hydraulic pressure respectively from the compressor; and a controller communicatively coupled to the sensor and comprising one or more processing components configured to execute one or more algorithms configured to initiate a shutdown sequence in response to the second signal, wherein the shutdown sequence comprises an automatic engine shutdown in which the engine is shutdown after a fist time period while the second signal indicates no demand, the shutdown sequence further comprises an automatic controller shutdown in which the controller is shut down after a second time period while the second signal indicates no demand, and the second time period ends after the first time period.
A microorganism derived from Escherichia sp. for producing O-succinylhomoserine, said microorganism: (i) comprising a methionine feedback inhibition resistant homoserine O-succinyltransferase having an amino acid sequence of SEQ ID No: 14, 16, 18, 20 or 22; (ii) having an aspartokinase or homoserine dehydrogenase having the amino acid sequence of SEQ ID No: 29; and (iii) having a cystathionine gamma synthase activity which is inactivated. (i) comprising a methionine feedback inhibition resistant homoserine O-succinyltransferase having an amino acid sequence of SEQ ID No: 14, 16, 18, 20 or 22; (ii) having an aspartokinase or homoserine dehydrogenase having the amino acid sequence of SEQ ID No: 29; and (iii) having a cystathionine gamma synthase activity which is inactivated.
A lighting driver (600, 800, 900), comprising: a rectifier (630, 830, 930) having an input configured to receive an AC Mains voltage and further having an output configured to output a rectified voltage; an output stage configured to supply an output current in response to the rectified voltage; a surge protection circuit (840, 940), comprising: a voltage clamping device connected across the output of the rectifier (630, 830, 930), and a differentiator circuit (843/845/847/849, 943/945/947/949) configured to differentiate between a temporary voltage spike at the input to the rectifier (630, 830, 930) and a loss of a neutral connection to the lighting driver, and when the temporary voltage spike is detected to activate the voltage clamping device to clamp the rectified voltage until the temporary voltage spike ends, and when the loss of the neutral connection is detected to latch the voltage clamping device into a disabled state until the AC Mains voltage input to the lighting driver (600, 800, 900)is turned off. a rectifier (630, 830, 930) having an input configured to receive an AC Mains voltage and further having an output configured to output a rectified voltage; an output stage configured to supply an output current in response to the rectified voltage; a surge protection circuit (840, 940), comprising: a voltage clamping device connected across the output of the rectifier (630, 830, 930), and a differentiator circuit (843/845/847/849, 943/945/947/949) configured to differentiate between a temporary voltage spike at the input to the rectifier (630, 830, 930) and a loss of a neutral connection to the lighting driver, and when the temporary voltage spike is detected to activate the voltage clamping device to clamp the rectified voltage until the temporary voltage spike ends, and when the loss of the neutral connection is detected to latch the voltage clamping device into a disabled state until the AC Mains voltage input to the lighting driver (600, 800, 900)is turned off. a voltage clamping device connected across the output of the rectifier (630, 830, 930), and a differentiator circuit (843/845/847/849, 943/945/947/949) configured to differentiate between a temporary voltage spike at the input to the rectifier (630, 830, 930) and a loss of a neutral connection to the lighting driver, and when the temporary voltage spike is detected to activate the voltage clamping device to clamp the rectified voltage until the temporary voltage spike ends, and when the loss of the neutral connection is detected to latch the voltage clamping device into a disabled state until the AC Mains voltage input to the lighting driver (600, 800, 900)is turned off.
A controller comprising: a base; a continuous sealing layer connected to a periphery of the base to form a compartment between the base and a lower surface of the continuous sealing layer; a circuit board positioned within the compartment; a rotary knob encoder is positioned on an upper surface of the continuous sealing layer, movement of the rotary knob encoder being detectable through the continuous sealing layer characterised in that the continuous sealing layer includes a pedestal support formed in an upper surface, the pedestal support extending into and supporting the rotary knob encoder through a plurality of pins spaced apart about the pedestal support. a base; a continuous sealing layer connected to a periphery of the base to form a compartment between the base and a lower surface of the continuous sealing layer; a circuit board positioned within the compartment; a rotary knob encoder is positioned on an upper surface of the continuous sealing layer, movement of the rotary knob encoder being detectable through the continuous sealing layer
A tensioning device configured to tension a wire, the tensioning device comprising: a frame body; a slider slidably mounted onto the frame body; a roller rotatably mounted onto the slider and configured to tension the wire thereon; and a spring compressed between the slider and the frame body, wherein the spring is configured to push the slider to move in a direction to tension the wire so as to increase a tension force on the wire when the tension force on the wire is less than a predetermined minimum tension force; and the slider is configured to be moved in a direction to loosen the wire against the pushing of the spring so as to reduce the tension force on the wire when the tension force on the wire is greater than a predetermined maximum tension force; characterized in that the slider is provided with a receiving hole, and one end of the spring is received in the receiving hole of the slider and is pushed against the slider. a frame body; a slider slidably mounted onto the frame body; a roller rotatably mounted onto the slider and configured to tension the wire thereon; and a spring compressed between the slider and the frame body, wherein the spring is configured to push the slider to move in a direction to tension the wire so as to increase a tension force on the wire when the tension force on the wire is less than a predetermined minimum tension force; and the slider is configured to be moved in a direction to loosen the wire against the pushing of the spring so as to reduce the tension force on the wire when the tension force on the wire is greater than a predetermined maximum tension force; characterized in that the slider is provided with a receiving hole, and one end of the spring is received in the receiving hole of the slider and is pushed against the slider.
Umbilical cord tissue-derived cells for use in preserving motor neuron function in a patient with amyotrophic lateral sclerosis, wherein the umbilical cord tissue-derived cells are isolatable from human umbilical cord tissue substantially free of blood, are capable of self renewal and expansion in culture, have the potential to differentiate into cells of other phenotypes, can undergo at least 40 doublings, and have the following characteristics: (a) express each of CD 10, CD 13, CD44, CD73, CD90, PDGFr-alpha, PD-L2 and HLA-A,B,C; (b) does not express any ofCD31, CD34, CD45, CD80, CD86, CD117, CD141, CD 178, B7-H2, HLA-G, or HLA-DR,DP,DQ; and (c) have increased expression of interleukin-8; reticulon 1; and chemokine receptor ligand (C-X-C motif) ligand 3, relative to that of a human cell which is a fibroblast, a mesenchymal stem cell, or an iliac crest bone marrow cell. (a) express each of CD 10, CD 13, CD44, CD73, CD90, PDGFr-alpha, PD-L2 and HLA-A,B,C; (b) does not express any ofCD31, CD34, CD45, CD80, CD86, CD117, CD141, CD 178, B7-H2, HLA-G, or HLA-DR,DP,DQ; and (c) have increased expression of interleukin-8; reticulon 1; and chemokine receptor ligand (C-X-C motif) ligand 3, relative to that of a human cell which is a fibroblast, a mesenchymal stem cell, or an iliac crest bone marrow cell.
A recombinant avian herpes virus, which comprises at least two recombinant nucleotide sequences, each recombinant nucleotide sequence encoding a distinct antigenic peptide from an avian pathogen, wherein each of said at least two recombinant nucleotide sequences is inserted into a distinct non-coding region of the viral genome chosen among the region located between UL44 and UL45, the region located between UL45 and UL46, the region located between US 10 and SORF3, and the region located between SORF3 and US2.
Method for the secure display of ASIL-relevant data on a display device of a motor vehicle comprising a transmitting unit, a receiving unit, and a display unit for displaying the images outputted by the receiving unit, characterized in that images with higher security classifications in comparison with images with lower security classifications are represented on the display unit less modified by an image enhancement procedure, wherein an item of information about the security classification of an image to be displayed by a classifying binary coding in an item of color bit information of at least one pixel of the image to be displayed via a pixel matrix is introduced into a data stream by means of the transmitting unit in order to control, for images of all security classifications, a modification of the image during the image enhancement process in an image enhancer associated with the receiving unit that outputs the image data. images with higher security classifications in comparison with images with lower security classifications are represented on the display unit less modified by an image enhancement procedure, wherein an item of information about the security classification of an image to be displayed by a classifying binary coding in an item of color bit information of at least one pixel of the image to be displayed via a pixel matrix is introduced into a data stream by means of the transmitting unit in order to control, for images of all security classifications, a modification of the image during the image enhancement process in an image enhancer associated with the receiving unit that outputs the image data.
An ocean thermal energy conversion method wherein: - a motive fluid having predetermined characteristics is circulated in a closed loop between a cold source and a heat source, said sources being respectively generated by heat exchange between the motive fluid and cold deep ocean water, and heat exchange between the motive fluid and warm surface ocean water, - the motive fluid is compressed between the cold source and the heat source so that, considering the thermodynamic conditions of the sources and the nature of the motive fluid, the motive fluid is substantially totally vaporized at the heat source outlet, - the thermal energy of the vaporized heated motive fluid is recovered from a turbine, - the motive fluid is condensed in the cold source, the method being characterized in that said vaporized motive fluid is heated downstream from the heat source by means of a heat pump whose heat source is generated by heat exchange with warm surface ocean water. - a motive fluid having predetermined characteristics is circulated in a closed loop between a cold source and a heat source, said sources being respectively generated by heat exchange between the motive fluid and cold deep ocean water, and heat exchange between the motive fluid and warm surface ocean water, - the motive fluid is compressed between the cold source and the heat source so that, considering the thermodynamic conditions of the sources and the nature of the motive fluid, the motive fluid is substantially totally vaporized at the heat source outlet, - the thermal energy of the vaporized heated motive fluid is recovered from a turbine, - the motive fluid is condensed in the cold source,
A method for producing a rubber composition containing a rubber component of at least one selected from natural rubbers and synthetic dienic rubbers, a filler containing an inorganic filler, a silane coupling agent, at least one vulcanization accelerator selected from guanidines, sulfenamides and thiazoles, and an organic acid compound, wherein the rubber composition is kneaded in plural stages, the rubber component, all or a part of the inorganic filler, all or a part of the silane coupling agent, the vulcanization accelerator and the organic acid compound are kneaded in the first stage of kneading, and the number of molecules X of the organic acid compound in the rubber composition in the first stage is in a relation of the following formula relative to the number of molecules Y of the vulcanization accelerator therein: 0 < X ≤ 1.5 × Y wherein the number of molecules of the vulcanization accelerator in the rubber composition in the first stage of kneading is from 0.1 to 1.0 time the number of molecules of the silane coupling agent therein.
Drive device for driving the two-directional rotation of a windscreen wiper, which comprises: - a bearing body; - a drive shaft which is mounted to rotate about its axis with respect to the bearing body; - a guide housing for guiding the drive shaft in rotation about its axis which is pivot-mounted with respect to the bearing body about an axis which is orthogonal to the axis of the drive shaft; - a drive motor for driving the two-directional rotation of the drive shaft about its axis; - a mechanism (28, 30) which causes the drive shaft to pivot in order to vary the inclination (α) of the axis of the drive shaft with respect to the bearing body according to the angular position of the drive shaft about its axis of rotation, characterized in that the drive motor is supported by the guide housing and in that the mechanism (28, 30) comprises a pinion which is supported by the drive shaft to which it is rotationally connected, and a complementary rack which is supported by the bearing body. - a bearing body; - a drive shaft which is mounted to rotate about its axis with respect to the bearing body; - a guide housing for guiding the drive shaft in rotation about its axis which is pivot-mounted with respect to the bearing body about an axis which is orthogonal to the axis of the drive shaft; - a drive motor for driving the two-directional rotation of the drive shaft about its axis; - a mechanism (28, 30) which causes the drive shaft to pivot in order to vary the inclination (α) of the axis of the drive shaft with respect to the bearing body according to the angular position of the drive shaft about its axis of rotation,
A computer-assisted surgery system, comprising: a processing circuit configured to establish a plurality of virtual geometries (400a, 400b, 400c) including a first and a second virtual geometry, each virtual geometry having a target feature (402a, 402b, 402c) and being available to be activated to guide an instrument (103, 210) to the target feature by restricting movement of the instrument within the confines of the virtual geometry; a display (203a, 203b) configured to display the plurality of virtual geometries to a user; an input/output device configured to receive user input; and a tracking system configured to track a position of a reference point of the instrument; wherein in response to the input/output device receiving user input selecting the first or second virtual geometry from the displayed plurality of virtual geometries, the processing circuit is further configured to activate the selected first or second virtual geometry; and wherein at least the first and second of the plurality of available geometries overlap at an overlapping region, and wherein the selective activation of the first or second virtual geometry based on the user input prevents forces associated with the unselected virtual geometry of the first or second virtual geometries from interfering with forces associated with the selected first or second virtual geometry while the instrument is in the overlapping region. a processing circuit configured to establish a plurality of virtual geometries (400a, 400b, 400c) including a first and a second virtual geometry, each virtual geometry having a target feature (402a, 402b, 402c) and being available to be activated to guide an instrument (103, 210) to the target feature by restricting movement of the instrument within the confines of the virtual geometry; a display (203a, 203b) configured to display the plurality of virtual geometries to a user; an input/output device configured to receive user input; and a tracking system configured to track a position of a reference point of the instrument; wherein in response to the input/output device receiving user input selecting the first or second virtual geometry from the displayed plurality of virtual geometries, the processing circuit is further configured to activate the selected first or second virtual geometry; and wherein at least the first and second of the plurality of available geometries overlap at an overlapping region, and wherein the selective activation of the first or second virtual geometry based on the user input prevents forces associated with the unselected virtual geometry of the first or second virtual geometries from interfering with forces associated with the selected first or second virtual geometry while the instrument is in the overlapping region.
A hot-stamping formed body comprising, as a chemical composition, by mass%: C: 0.40% to 0.70%; Si: 0.010% to 1.30%; Mn: 0.40% to 3.00%; sol. Al: 0.0010% to 0.500%; Ti: 0.010% to 0.100%; Cr: 0.010% to 0.80%; B: 0.0005% to 0.0100%; P: 0.100% or less; S: 0.0100% or less; N: 0.0100% or less; Nb: 0% to 0.100%; Mo: 0% to 1.00%; V: 0% to 0.100%; Ni: 0% to 0.50%; REM: 0% to 0.0100%; Mg: 0% to 0.0100%; Ca: 0% to 0.0100%; Co: 0% to 4.00%; and a remainder consisting of Fe and impurities, wherein an average grain size of prior austenite grains in a microstructure is 5.0 μm or less, an average Mn concentration at grain boundaries of the prior austenite grains is 1.0 mass% or less, and the area ratio of martensite is 90% or more, wherein the hot-stamping formed body has a tensile strength of 2000 MPa or more, and a hardness variation ΔHv of 50 Hv or less; wherein the average grain size, the average Mn concentration, the tensile strength and the hardness variation are determined as outlined in the description. C: 0.40% to 0.70%; Si: 0.010% to 1.30%; Mn: 0.40% to 3.00%; sol. Al: 0.0010% to 0.500%; Ti: 0.010% to 0.100%; Cr: 0.010% to 0.80%; B: 0.0005% to 0.0100%; P: 0.100% or less; S: 0.0100% or less; N: 0.0100% or less; Nb: 0% to 0.100%; Mo: 0% to 1.00%; V: 0% to 0.100%; Ni: 0% to 0.50%; REM: 0% to 0.0100%; Mg: 0% to 0.0100%; Ca: 0% to 0.0100%; Co: 0% to 4.00%; and a remainder consisting of Fe and impurities, wherein an average grain size of prior austenite grains in a microstructure is 5.0 μm or less, an average Mn concentration at grain boundaries of the prior austenite grains is 1.0 mass% or less, and the area ratio of martensite is 90% or more, wherein the hot-stamping formed body has a tensile strength of 2000 MPa or more, and a hardness variation ΔHv of 50 Hv or less; wherein the average grain size, the average Mn concentration, the tensile strength and the hardness variation are determined as outlined in the description.
Vapour extraction device, which has at least one filter element with at least two filter layers, wherein the filter element has a top layer consisting of filter material, which forms the upstream side of the filter element and covers the edges of the filter layers, and wherein the vapour extraction device has an intake opening, which is at an incline in the vertical or between the vertical and horizontal and wherein the at least one filter element is arranged on the intake opening so that the top layer forms the upstream side of the filter element, characterised in that the cover layer represents an expanded metal layer.