mhurhangee/ep-ind-claims huggingface dataset:
A heat-exchange type ventilation apparatus, comprising: a main body in which a supply air path to supply outside air to an inside of a room and a discharge air path to discharge inside air to an outside of the room are formed; a heat exchanger placed in the main body to allow heat exchange between a supply airflow passing through the supply air path and a discharge airflow passing through the discharge air path; an air supplying fan to generate the supply airflow, the air supplying fan being fixed inside the main body; an air discharging fan to generate the discharge airflow, the air discharging fan being fixed inside the main body; and a drain pan including a supply-air-side drain pan portion and a discharge-air side drain pan portion that are integrally formed with each other and covering an entire bottom surface of the main body, the supply-air-side drain pan portion retaining drain water generated in the supply air path inside the heat exchanger, the discharge-air side drain pan portion retaining drain water generated in the discharge air path inside the heat exchanger, wherein the drain pan includes a first recess portion that forms the supply-air-side drain pan, a second recess portion that forms the discharge-air side drain pan, and a rib-like portion that separates the first recess portion and the second recess portion from each other, characterized in that the drain pan has a groove that faces a rib that surrounds a motor accommodating portion of the air supplying fan. a main body in which a supply air path to supply outside air to an inside of a room and a discharge air path to discharge inside air to an outside of the room are formed; a heat exchanger placed in the main body to allow heat exchange between a supply airflow passing through the supply air path and a discharge airflow passing through the discharge air path; an air supplying fan to generate the supply airflow, the air supplying fan being fixed inside the main body; an air discharging fan to generate the discharge airflow, the air discharging fan being fixed inside the main body; and a drain pan including a supply-air-side drain pan portion and a discharge-air side drain pan portion that are integrally formed with each other and covering an entire bottom surface of the main body, the supply-air-side drain pan portion retaining drain water generated in the supply air path inside the heat exchanger, the discharge-air side drain pan portion retaining drain water generated in the discharge air path inside the heat exchanger, wherein the drain pan includes a first recess portion that forms the supply-air-side drain pan, a second recess portion that forms the discharge-air side drain pan, and a rib-like portion that separates the first recess portion and the second recess portion from each other, characterized in that the drain pan has a groove that faces a rib that surrounds a motor accommodating portion of the air supplying fan.
A method to optimize reception of entitlement management messages in a subscriber unit comprising a security module, said subscriber unit being configured to receive a transport stream comprising audio / video program data and entitlement management messages providing to the subscriber unit and the security module conditional access information for a given Pay-TV program, the entitlement management messages being identified in the transport stream by packet identifiers are received by the subscriber unit via a default reception channel, the method comprises steps of: - receiving, by the subscriber unit from the security module, an information signal notifying a requirement to modify at least one operating parameter controlling the subscriber unit or the security module or both the subscriber unit and the security module, the information signal activating a specific reception channel, whereby the information signal S is sent to the subscriber unit when at least one operating parameter becomes obsolete, - selecting, by the subscriber unit, the specific reception channel configured for receiving specific positive addressing entitlement management messages having a particular packet identifier different from the default packet identified, including instructions and data for modifying the operating parameter, said specific positive addressing entitlement management messages having a specific packet identifier, - at reception of the specific positive addressing entitlement management message, modifying the operating parameter according to instructions and data comprised in the specific positive addressing entitlement management message, - after terminating the modification of the operating parameter, selecting the default reception channel configured for receiving default entitlement management messages having a default packet identifier. - receiving, by the subscriber unit from the security module, an information signal notifying a requirement to modify at least one operating parameter controlling the subscriber unit or the security module or both the subscriber unit and the security module, the information signal activating a specific reception channel, - selecting, by the subscriber unit, the specific reception channel configured for receiving specific positive addressing entitlement management messages having a particular packet identifier different from the default packet identified, including instructions and data for modifying the operating parameter, said specific positive addressing entitlement management messages having a specific packet identifier, - at reception of the specific positive addressing entitlement management message, modifying the operating parameter according to instructions and data comprised in the specific positive addressing entitlement management message, - after terminating the modification of the operating parameter, selecting the default reception channel configured for receiving default entitlement management messages having a default packet identifier.
A breath sampling tube comprising an inner conduit, wherein the cross-section of the inner conduit is an n-petal flower or an n-point star, wherein n is an integer having the value of between 4-100; and wherein the walls of said inner conduit comprise a hydrophilic material so that the inner conduit is adapted to store liquids along said breath sampling tube.
A method for laser welding of one or more workpieces made from press hardenable manganese-boron steel, in a butt joint, in which the workpiece or the workpieces (1, 2; 1, 2') have a thickness of at least 1.8 mm and/or a jump in thickness (d) of at least 0.4 mm arises at the butt joint, characterised in that the laser welding takes place with the supply of filler wire into the molten bath generated exclusively with a laser beam, the filler wire contains at least one alloy element from the group comprising manganese, chromium, molybdenum, silicon and/or nickel, which element promotes the formation of austenite in the molten bath generated using the laser beam, wherein this at least one alloy element is present in the filler wire with a mass proportion that is larger by 0.1 % by weight than in the press hardenable steel of the workpiece or the workpieces (1, 2; 1, 2'), wherein the filler wire has the following composition: 0.05 - 0.15 % by weight C, 0.5 - 2.0 % by weight Si, 1.0 - 2.5 % by weight Mn, 0.5 - 2.0 % by weight Cr + Mo, and 1.0 - 4.0 % by weight Ni, remainder Fe and unavoidable impurities, wherein the filler wire has a carbon mass proportion that is lower by at least 0.1 % by weight than the press hardenable steel of the workpiece or the workpieces (1, 2; 1, 2'), and wherein the workpiece used or the workpieces used (1, 2; 1, 2') are uncoated or, by removing in the edge region along the abutting edges to be welded to one another before the laser welding, are partly de-layered. 0.05 - 0.15 % by weight C, 0.5 - 2.0 % by weight Si, 1.0 - 2.5 % by weight Mn, 0.5 - 2.0 % by weight Cr + Mo, and 1.0 - 4.0 % by weight Ni,
A connection fastener comprising: a plurality of fasteners each of which includes a head portion provided at one end portion side and a tapered leading end portion provided at the other end portion side; a sheet-shaped connection portion that is configured to connect the plurality of fasteners in a parallel direction; and attaching portions that are separate from the connection portion attached to the fasteners such that each attaching portion covers at least one part of each leading end portion, wherein the connection portion includes: first holding portions each of which is configured to support a head portion side of each fastener; wherein the connection portion includes second holding portions each of which is configured to support and hold a tubular portion of each attaching portion. a plurality of fasteners each of which includes a head portion provided at one end portion side and a tapered leading end portion provided at the other end portion side; a sheet-shaped connection portion that is configured to connect the plurality of fasteners in a parallel direction; and attaching portions that are separate from the connection portion attached to the fasteners such that each attaching portion covers at least one part of each leading end portion, wherein the connection portion includes: first holding portions each of which is configured to support a head portion side of each fastener; wherein the connection portion includes second holding portions each of which is configured to support and hold first holding portions each of which is configured to support a head portion side of each fastener; wherein the connection portion includes second holding portions each of which is configured to support and hold a tubular portion of each attaching portion.
A touch display device, comprising: a display cathode electrode configured to receive a display cathode voltage a first touch cathode electrode (TCE1a) disposed in a same layer as the display cathode electrode and adjacent to the display cathode electrode; a first touch line electrically connected with a touch driving circuit; a first touch bridge (TB1a) electrically connected with the first touch line; a second touch cathode electrode (TCE2a) disposed in a same layer as the display cathode electrode and adjacent to the display cathode electrode; a second touch line electrically connected with the touch driving circuit; and a second touch bridge (TB2a) electrically connected with the second touch line, wherein the first touch cathode electrode (TCE1a) is electrically separated from the display cathode electrode, wherein the first touch bridge (TB1a) is electrically connected with the first touch cathode electrode (TCE1a), wherein the first touch line and the first touch cathode electrode (TCE1a) are electrically connected with each other through the first touch bridge (TB1a), wherein the second touch cathode electrode (TCE2a) is electrically shorted with the display cathode electrode, wherein the second touch bridge (TB2a) is electrically separated from the second touch cathode electrode (TCE2a), and wherein the second touch line and the second touch cathode electrode (TCE2a) are electrically separated from each other. a display cathode electrode configured to receive a display cathode voltage a first touch cathode electrode (TCE1a) disposed in a same layer as the display cathode electrode and adjacent to the display cathode electrode; a first touch line electrically connected with a touch driving circuit; a first touch bridge (TB1a) electrically connected with the first touch line; a second touch cathode electrode (TCE2a) disposed in a same layer as the display cathode electrode and adjacent to the display cathode electrode; a second touch line electrically connected with the touch driving circuit; and a second touch bridge (TB2a) electrically connected with the second touch line, wherein the first touch cathode electrode (TCE1a) is electrically separated from the display cathode electrode, wherein the first touch bridge (TB1a) is electrically connected with the first touch cathode electrode (TCE1a), wherein the first touch line and the first touch cathode electrode (TCE1a) are electrically connected with each other through the first touch bridge (TB1a), wherein the second touch cathode electrode (TCE2a) is electrically shorted with the display cathode electrode, wherein the second touch bridge (TB2a) is electrically separated from the second touch cathode electrode (TCE2a), and wherein the second touch line and the second touch cathode electrode (TCE2a) are electrically separated from each other.
A method of printing onto a base which is an article of footwear (306, 1002) or an article of apparel (306, 1002), the method comprising: receiving the base on a platform; detecting a first depth of a first cavity on the base with a sensing device, which optionally is an optical sensing device; receiving an image file of a structure to be formed on the base; wherein the image file includes a predetermined thickness of a layer; generating a modified image file using the first depth, wherein the modified image file includes a first adjusted thickness for a portion of the layer corresponding to the first cavity; and inkjet printing a base layer directly onto the base using the modified image file, wherein a print material for printing the base layer is ink, a thermoplastic material, an acrylic resin, a polyurethane, a thermoplastic polyurethane, silicone or any other curable substance, wherein the base layer includes a first adjusted portion printed within the first cavity, wherein the first adjusted portion has the first adjusted thickness and the base layer includes a non-adjusted portion printed onto the base, wherein the non-adjusted portion has the predetermined thickness, wherein the first adjusted portion fills the first cavity and an upper surface of the first adjusted portion is flush to an upper surface of the non-adjusted portion, and wherein the method further comprises printing a three-dimensional object which is a performance rib directly onto the smooth surface without adjusting a predetermined thickness of the layer file for the performance rib. receiving the base on a platform; detecting a first depth of a first cavity on the base with a sensing device, which optionally is an optical sensing device; receiving an image file of a structure to be formed on the base; wherein the image file includes a predetermined thickness of a layer; generating a modified image file using the first depth, wherein the modified image file includes a first adjusted thickness for a portion of the layer corresponding to the first cavity; and inkjet printing a base layer directly onto the base using the modified image file, wherein a print material for printing the base layer is ink, a thermoplastic material, an acrylic resin, a polyurethane, a thermoplastic polyurethane, silicone or any other curable substance, wherein the base layer includes a first adjusted portion printed within the first cavity, wherein the first adjusted portion has the first adjusted thickness and the base layer includes a non-adjusted portion printed onto the base, wherein the non-adjusted portion has the predetermined thickness, wherein the first adjusted portion fills the first cavity and an upper surface of the first adjusted portion is flush to an upper surface of the non-adjusted portion, and wherein the method further comprises printing a three-dimensional object which is a performance rib directly onto the smooth surface without adjusting a predetermined thickness of the layer file for the performance rib.
Bakery dough comprising: 10 to 60 mass% of cereal flour containing 4 mass% or more of dietary fiber; and 1 to 35 mass% of medium-chain fatty acid containing triacylglycerol, wherein n-decanoic acid in the medium-chain fatty acid in the MTG is 60 to 100 mass%. 10 to 60 mass% of cereal flour containing 4 mass% or more of dietary fiber; and 1 to 35 mass% of medium-chain fatty acid containing triacylglycerol, wherein n-decanoic acid in the medium-chain fatty acid in the MTG is 60 to 100 mass%.
A method for irradiating semiconductor material comprising: - selecting a region of a semiconductor material layer surface, the region having a region size and shape; - irradiating the region of the semiconductor material layer surface with an excimer laser having a beam spot size and shape; and - adjusting the beam spot size and shape by variably matching the beam spot size and shape to the selected region size and shape by means of a variable aperture; characterized in that variably matching the beam spot size and shape to the selected region size and shape is done by varying the size and shape of the variable aperture whose image is formed on the semiconductor material layer surface by a high resolution imaging system for reducing attenuation regions and overlapping effects, said image of the variable aperture having a variable size and shape which defines the size and shape of said beam spot, and in that the method comprises alignment of the beam spot in XYZ-direction with the selected region and further providing a pattern recognition system having a camera able to locate several alignment marks etched on the semiconductor material. - selecting a region of a semiconductor material layer surface, the region having a region size and shape; - irradiating the region of the semiconductor material layer surface with an excimer laser having a beam spot size and shape; and - adjusting the beam spot size and shape by variably matching the beam spot size and shape to the selected region size and shape by means of a variable aperture; characterized in that variably matching the beam spot size and shape to the selected region size and shape is done by varying the size and shape of the variable aperture whose image is formed on the semiconductor material layer surface by a high resolution imaging system for reducing attenuation regions and overlapping effects, said image of the variable aperture having a variable size and shape which defines the size and shape of said beam spot, and in that the method comprises alignment of the beam spot in XYZ-direction with the selected region and further providing a pattern recognition system having a camera able to locate several alignment marks etched on the semiconductor material.
A wiper holder, comprising: a body part; a first slot formed in said body part, said first slot for holding a first wiper element, wherein said first slot is bent to form-lock said first wiper element; and a second slot formed in said body part adjacent to said first slot, said second slot for holding a second wiper element, wherein said second slot is bent to form-lock said second wiper element; characterised in that said first slot is bent in a first direction and said second slot is bent in a second direction different from said first direction, in particular opposite from said first direction. a body part; a first slot formed in said body part, said first slot for holding a first wiper element, wherein said first slot is bent to form-lock said first wiper element; and a second slot formed in said body part adjacent to said first slot, said second slot for holding a second wiper element, wherein said second slot is bent to form-lock said second wiper element; characterised in that said first slot is bent in a first direction and said second slot is bent in a second direction different from said first direction, in particular opposite from said first direction.
An exhaust gas treatment method for treating exhaust gases collected from at least one foundry process, said method comprises the consecutive steps of: - passing an exhaust gas comprising VOCs and/or amines through a catalytic zone, said catalyst zone comprises a deNOx-catalyst and an oxidation catalyst, providing a first treated gas stream, and - subjecting the first treated gas stream to a photooxidation step, providing a second treated gas stream. - passing an exhaust gas comprising VOCs and/or amines through a catalytic zone, said catalyst zone comprises a deNOx-catalyst and an oxidation catalyst, providing a first treated gas stream, and - subjecting the first treated gas stream to a photooxidation step, providing a second treated gas stream.
Method for the specific adjustment of the direction of emission of at least one LED in a motor vehicle headlight, having at least one LED soldered as SMD on metallic surfaces (3-1, 3-2) of a printed circuit board with its terminals (4-1, 4-2), wherein the metallic surfaces are exposed from solder resist, and with optics which emit the light emitted by the at least one LED into the traffic space, the method including a step of printing a quantity of solder and a reflow process step, characterised in that for the specific adjustment of the radiation direction of the at least one LED, the latter is soldered with different solder thicknesses (d1, d2) between its terminals (4-1, 4-2) and the metallic surfaces (3-1, 3-2) of the printed circuit board, wherein, prior to the reflow process, the metallic surface which leads to a terminal (4-1, 4-2) with a greater solder thickness, such a quantity of solder is printed on the solder resist, which also extends on the solder resist, that after collecting the solder on the exposed metallic surface a height of the solder gap is obtained which is greater than that of the metallic surface with a smaller solder thickness.
A system for controlling analyte gas flow in a continuous flow isotope ratio analyzer, comprising a measuring cell having an inlet and an outlet for respectively receiving and releasing analyte gas flow; a gas inlet line, fluidly connected to the inlet; a gas outlet line, fluidly connected to the outlet; and at least one switchable flow restriction on the gas inlet line, for selectively controlling analyte gas flow into the isotope ratio analyzer; wherein the switchable flow restriction is provided by a bypass gas line that is connected to the gas inlet line at a first bypass junction and a second bypass junction, and a flow restriction that is arranged on the gas inlet line, between the first and second bypass junction; and wherein the system further comprises at least one valve (7, 8) for controlling gas flow in the bypass gas line and/or the gas inlet line having at least first and second valve positions wherein in a first position, gas is directed to flow through the bypass line and the isotope ratio analyser at a first non-zero flow rate and wherein in a second position, gas is directed to flow through the flow restriction on the gas inlet line and into the isotope ratio analyser at a second non-zero flow rate different to the first non-zero flow rate.
A height-adjustable towed or self-propelled rotary swather which is supported on the ground by means of a chassis, comprising at least two swathing rotors (6, 7) which are controlled and driven in rotation about vertical axes and equipped with raking prongs and which are supported on the ground in the working position by way of sensing and support wheels and are mounted pivotably to a carrier structure by means of cantilever arms, characterised in that the chassis is supported relative to the frame structure with a height adjusting and springing device with at least two variable-length pneumatic springs which can be pneumatically acted upon with a variable pressure, wherein the pneumatic springs are so designed and actuable that they are extended in the working position of a rotary swather and in same have a correspondingly hard spring characteristic while they are retracted in the transport position and have a correspondingly soft spring characteristic.