mhurhangee/ep-ind-claims huggingface dataset:
A process of extruding a molten polymeric composition onto a long, thin, continuous object such that the extruded composition forms on the object a coating with a matte finish on its surface, the process comprising the step of extruding the molten polymeric composition from a die assembly that comprises (i) a die body head having an internal surface, and (ii) a die land that extends the length of the internal surface of the die body head, the molten polymeric composition having a bulk temperature, onto the object, with the proviso that after the molten polymeric composition is applied to the object and before it exits the die assembly, the molten polymeric composition passes over and in contact with the die land of the die assembly, characterised in that the die land has a temperature below the bulk temperature of the molten polymeric composition.
A method of at least partially forming a reinforced package, the method comprising: moving a web of material in a downstream direction through a web forming section; at least partially forming a series of bag portions in the web of material during the moving the web of material through the web forming section; feeding a plurality of constructs sequentially onto a conveyor, the conveyor moving the constructs of the plurality of constructs toward a nip roller, wherein the feeding the plurality of constructs sequentially onto the conveyor comprises placing a first construct on the conveyor, moving the first construct toward the nip roller with the conveyor, placing a second construct on the conveyor comprising partially overlapping the second construct on the first construct, and moving the first construct and the second construct toward the nip roller with the conveyor; forming an attached web by engaging and adhering the constructs with respective bag portions of the series of bag portions of the web of material with the nip roller; moving the attached web through a separating station, the moving the attached web comprising moving the constructs with the web of material; separating a bag portion of the series of bag portions from a remainder of the web of material to form a bag during the moving the attached web through the separating station, the bag being attached to a construct of the plurality of constructs. moving a web of material in a downstream direction through a web forming section; at least partially forming a series of bag portions in the web of material during the moving the web of material through the web forming section; feeding a plurality of constructs sequentially onto a conveyor, the conveyor moving the constructs of the plurality of constructs toward a nip roller, wherein the feeding the plurality of constructs sequentially onto the conveyor comprises placing a first construct on the conveyor, moving the first construct toward the nip roller with the conveyor, placing a second construct on the conveyor comprising partially overlapping the second construct on the first construct, and moving the first construct and the second construct toward the nip roller with the conveyor; forming an attached web by engaging and adhering the constructs with respective bag portions of the series of bag portions of the web of material with the nip roller; moving the attached web through a separating station, the moving the attached web comprising moving the constructs with the web of material; separating a bag portion of the series of bag portions from a remainder of the web of material to form a bag during the moving the attached web through the separating station, the bag being attached to a construct of the plurality of constructs.
A sensor system for use in a gas turbine engine, comprising: a diffuser case, and a liner and shell assembly that defines a combustion chamber; a reflective surface (152; 352); an optical sensor (340, 341) configured to receive reflected optical features from the reflective surface (152; 352); and the liner and shell assembly (130; 330) and the diffuser case (118; 318) defining an inner shroud and an outer shroud between the diffuser case (118; 318) and the liner and shell assembly (130; 330), wherein the reflective surface (152; 352) is at least partially located in at least one of the inner shroud or the outer shroud, and the reflective surface (152; 352) is configured to reflect optical features corresponding to combustion in the combustion chamber that exit the combustion chamber via at least one opening (150; 350) therein and to reflect the optical features through at least one of the inner shroud or the outer shroud towards the optical sensor (340, 341), wherein the at least one opening (150; 350) is defined by the liner and shell assembly (130; 330); characterized in that the reflective surface (152; 352) is defined by at least one of the diffuser case (118; 318) or the liner and shell assembly (130; 330). a diffuser case, and a liner and shell assembly that defines a combustion chamber; a reflective surface (152; 352); an optical sensor (340, 341) configured to receive reflected optical features from the reflective surface (152; 352); and the liner and shell assembly (130; 330) and the diffuser case (118; 318) defining an inner shroud and an outer shroud between the diffuser case (118; 318) and the liner and shell assembly (130; 330), wherein the reflective surface (152; 352) is at least partially located in at least one of the inner shroud or the outer shroud, and the reflective surface (152; 352) is configured to reflect optical features corresponding to combustion in the combustion chamber that exit the combustion chamber via at least one opening (150; 350) therein and to reflect the optical features through at least one of the inner shroud or the outer shroud towards the optical sensor (340, 341), wherein the at least one opening (150; 350) is defined by the liner and shell assembly (130; 330); characterized in that the reflective surface (152; 352) is defined by at least one of the diffuser case (118; 318) or the liner and shell assembly (130; 330).
A control method of a heat blower system including: a heat blower having a fan and a heater that are disposed in a housing; an environmental information server having at least one outdoor environment information among an outdoor temperature, an outdoor humidity, an outdoor wind speed, a day length, and an ultraviolet ray intensity; and an operational condition calculation server determining at least one operational condition of an air volume or an air temperature of the heat blower, based on at least one outdoor environment information among the outdoor temperature, the outdoor humidity, the outdoor wind speed, the day length, and the ultraviolet ray intensity, the control method of the heat blower system comprising the steps of: obtaining the at least one outdoor environment information from the information server; providing the at least one outdoor environment information that is obtained to the operational condition calculation server; and obtaining at least one operational condition from the operational condition calculation server, characterized in that the heat blower further includes an ion generator (30, 40, 50), a charged-particle-liquid generator, and a controller that controls the ion generator and the charged-particle-liquid generator to adjust a generation amount of ions and a generation amount of charged particle liquid, wherein the controller decreases the generation amount of charged particle liquid while increasing the generation amount of ions, or increases the generation amount of charged particle liquid while decreasing the generation amount of ions. obtaining the at least one outdoor environment information from the information server; providing the at least one outdoor environment information that is obtained to the operational condition calculation server; and obtaining at least one operational condition from the operational condition calculation server, characterized in that the heat blower further includes an ion generator (30, 40, 50), a charged-particle-liquid generator, and a controller that controls the ion generator and the charged-particle-liquid generator to adjust a generation amount of ions and a generation amount of charged particle liquid, wherein the controller decreases the generation amount of charged particle liquid while increasing the generation amount of ions, or increases the generation amount of charged particle liquid while decreasing the generation amount of ions.
Self-propelled wrapping machine movable on a supporting plane to wrap a load with a film, comprising: - a self-propelled carriage provided with at least one drive wheel and a guiding system comprising at least one steering wheel manoeuvred by a steering that can be manually operated by means of a guiding bar in a manual manoeuvring procedure of the self-propelled wrapping machine; - an upright fixed to said carriage; - an unwinding unit provided with a reel of film and movable along said upright; - actuator means to operate at least said drive wheel and said unwinding unit along said upright; - a control unit to control at least said actuator means; - at least one scanning device to scan a defined area (A, B) of said supporting plane which extends frontally and laterally from a front portion of said carriage in order to detect a possible obstacle in said area (A, B) and in presence of said obstacle to send an obstacle alarm signal to said control unit to stop said actuator means and said self-propelled wrapping machine; characterized in that said scanning device is configured to scan a first area of said supporting plane during a wrapping cycle of said load that is automatically performed by said self-propelled wrapping machine and a second area during a manual manoeuvring procedure of said self-propelled wrapping machine that is performed by an operator, said second area having an extent smaller than the extent of said first area. - a self-propelled carriage provided with at least one drive wheel and a guiding system comprising at least one steering wheel manoeuvred by a steering that can be manually operated by means of a guiding bar in a manual manoeuvring procedure of the self-propelled wrapping machine; - an upright fixed to said carriage; - an unwinding unit provided with a reel of film and movable along said upright; - actuator means to operate at least said drive wheel and said unwinding unit along said upright; - a control unit to control at least said actuator means; - at least one scanning device to scan a defined area (A, B) of said supporting plane which extends frontally and laterally from a front portion of said carriage in order to detect a possible obstacle in said area (A, B) and in presence of said obstacle to send an obstacle alarm signal to said control unit to stop said actuator means and said self-propelled wrapping machine;
A process for producing fiber-reinforced flat semifinished products based on a polyamide matrix, comprising the following steps: (a) saturation of textile structures with a mixture comprising molten lactam, catalyst, and optionally activator, where the temperature of the molten lactam is kept below the initiation temperature at which the lactam begins to polymerize to give the polyamide, (b) drying of the saturated textile structures by cooling, and (c) finishing of the cooled textile structures to give the fiber-reinforced flat semifinished product. (a) saturation of textile structures with a mixture comprising molten lactam, catalyst, and optionally activator, where the temperature of the molten lactam is kept below the initiation temperature at which the lactam begins to polymerize to give the polyamide, (b) drying of the saturated textile structures by cooling, and (c) finishing of the cooled textile structures to give the fiber-reinforced flat semifinished product.
An in vitro method of detecting a proteolytically active form of an ADAM10 protease, said method including the step of selectively binding an antibody or antibody fragment to the proteolytically active form of the ADAM10 protease to thereby detect the proteolytically active form of the ADAM10 protease, wherein the antibody or antibody fragment binds a region, portion and/or amino acid sequence of an ADAM10 protease that provides a switch between a proteolytically active and inactive form of an ADAM10 protease and wherein the region, portion or the amino acid sequence of the ADAM10 protease is of a loop which comprises a disulphide bond between a cysteine residue and an adjacent CXXC motif, preferably C 594 -C 639 and C 632 -C 645.
Attachment module for detection of switching states of an electromagnetic switching device, having a switch housing, in which is arranged an actuator, which is embodied as a plunger and at one end is in operative connection with a switch element, in particular a microswitch, wherein the plunger has a snap-action hook at the other end, characterised in that the snap-action hook, via the plunger, communicates the three different switching statuses of the electromagnetic switching device, the 'on' and 'off' status and the switching status in the case of welded contacts to the switch element.
An air conditioner, comprising: a compressor; and a heat exchanger, including a first header pipe to flow therein a refrigerant compressed by the compressor, a heat exchange unit coupled to the first header pipe and to thermally exchange the refrigerant with air, a bypass pipe to have the refrigerant, thermally exchanged in the heat exchange unit, to pass therethrough in an air cooling operation, a second header pipe coupled to the heat exchange unit and to have the refrigerant passing through the bypass pipe, to flow therein in the air cooling operation, characterized by: a plurality of first header branch pipes to couple the first header pipe and the heat exchange unit, and a plurality of second header branch pipes to couple the second header pipe and the heat exchange unit, wherein the heat exchange unit comprises a plurality of refrigerant tubes, and the plurality of first header branch pipes and the plurality of second header branch pipes are alternately coupled to a respective end of the plurality of refrigerant tubes, wherein the heat exchanger further comprises: a plurality of first distribution branch pipes coupled to the heat exchange unit and to have the refrigerant, thermally exchanged in the heat exchange unit after the refrigerant passes through the first header pipe, to flow therein, and a plurality of second distribution branch pipes coupled to the heat exchange unit and to have the refrigerant, thermally exchanged in the heat exchange unit after the refrigerant passes through the second header pipe, to flow therein, wherein at least one of second distribution branch pipes crosses at least one of the first distribution branch pipes, and wherein the plurality of first distribution branch pipes and the plurality of second distribution branch pipes are alternately coupled to a respective another end of the plurality of refrigerant tubes. a compressor; and a heat exchanger, including a plurality of first header branch pipes to couple the first header pipe and the heat exchange unit, and a plurality of second header branch pipes to couple the second header pipe and the heat exchange unit, a plurality of first distribution branch pipes coupled to the heat exchange unit and to have the refrigerant, thermally exchanged in the heat exchange unit after the refrigerant passes through the first header pipe, to flow therein, and a plurality of second distribution branch pipes coupled to the heat exchange unit and to have the refrigerant, thermally exchanged in the heat exchange unit after the refrigerant passes through the second header pipe, to flow therein, wherein at least one of second distribution branch pipes crosses at least one of the first distribution branch pipes, and
An inverter control method, comprising: acquiring a power distribution line graph of an inverter in the case of a preset input voltage and a preset output power, wherein the power distribution line graph comprises at least one area, each area is corresponding to one preset switching on/off frequency, and different areas are corresponding to different preset switching on/off frequencies; acquiring an input voltage, and an output power and a switching on/off frequency that are of the input voltage; determining, according to the input voltage and the output power that are acquired, an area to which the inverter belongs in the power distribution line graph; and when the area to which the inverter belongs is not corresponding to the acquired switching on/off frequency, switching the switching on/off frequency of the inverter to a preset switching on/off frequency corresponding to the area to which the inverter belongs. acquiring a power distribution line graph of an inverter in the case of a preset input voltage and a preset output power, wherein the power distribution line graph comprises at least one area, each area is corresponding to one preset switching on/off frequency, and different areas are corresponding to different preset switching on/off frequencies; acquiring an input voltage, and an output power and a switching on/off frequency that are of the input voltage; determining, according to the input voltage and the output power that are acquired, an area to which the inverter belongs in the power distribution line graph; and when the area to which the inverter belongs is not corresponding to the acquired switching on/off frequency, switching the switching on/off frequency of the inverter to a preset switching on/off frequency corresponding to the area to which the inverter belongs.
An optical thin film provided on a base substrate, comprising: a layer whose main component is ytterbium oxide; and a layer whose main component is magnesium fluoride disposed on the layer whose main component is ytterbium oxide, the layer whose main component is magnesium fluoride being positioned opposite from the base substrate with respect to the layer whose main component is ytterbium oxide. a layer whose main component is ytterbium oxide; and a layer whose main component is magnesium fluoride disposed on the layer whose main component is ytterbium oxide, the layer whose main component is magnesium fluoride being positioned opposite from the base substrate with respect to the layer whose main component is ytterbium oxide.
A drive element for a belt tensioner with a belt reel (70, 80) which has trough-like indentations arranged at an axial end on the circumference in a radial plane and a two-part drive element designed as a gearwheel, the first part being an annular counter piece (20, 40) with trough-like or bowl-shaped (31, 41) indentations arranged radially on the outside and an internal tooth system (22, 42) arranged radially on the inside, characterized in that - the second part is a substantially annular, deep-drawn sheet metal part (30, 40) with bowl-shaped indentations (31, 41) arranged radially on the outside and with an internal tooth system (32, 42) arranged radially on the inside which, in the assembled state, engage in a positive-locking manner in the trough-like indentations of the belt reel (70, 80) arranged on the circumference, - wherein, after assembly to form the drive element, the sheet metal part (30, 40) and the counter piece (20, 40) are arranged opposite one another in such a manner that the bowls or troughs (21, 31, 41) complement each to form blade-like, bowl-shaped receptacles - and the inner tooth systems (22, 32, 42) of the sheet metal part (30, 40) and the counter piece (20, 40) complement each other to form a common internal tooth system. - the second part is a substantially annular, deep-drawn sheet metal part (30, 40) with bowl-shaped indentations (31, 41) arranged radially on the outside and with an internal tooth system (32, 42) arranged radially on the inside which, in the assembled state, engage in a positive-locking manner in the trough-like indentations of the belt reel (70, 80) arranged on the circumference, - wherein, after assembly to form the drive element, the sheet metal part (30, 40) and the counter piece (20, 40) are arranged opposite one another in such a manner that the bowls or troughs (21, 31, 41) complement each to form blade-like, bowl-shaped receptacles - and the inner tooth systems (22, 32, 42) of the sheet metal part (30, 40) and the counter piece (20, 40) complement each other to form a common internal tooth system.
A probe having a chemical structure according to general formula I, or a tautomer thereof: where X 1 is O; R 1 is -OH, -NH 2, or -OR a wherein R a is C 1 -C 10 alkyl; R 2 -R 7 independently are H, hydroxyl, thiol, C 1 -C 10 alkyl, carboxyalkyl, amino, alkoxy, or halogen; R 8 -R 11 independently are H, alkyl, acyl, carboxyl, nitro, amino, substituted amino, or -SO 3 H; and R 12 is H or C 1 -C 10 alkyl. where X 1 is O; R 1 is -OH, -NH 2, or -OR a wherein R a is C 1 -C 10 alkyl; R 2 -R 7 independently are H, hydroxyl, thiol, C 1 -C 10 alkyl, carboxyalkyl, amino, alkoxy, or halogen; R 8 -R 11 independently are H, alkyl, acyl, carboxyl, nitro, amino, substituted amino, or -SO 3 H; and R 12 is H or C 1 -C 10 alkyl.
A woven double face fabric having a first side and a second side, wherein warp yarns and weft yarns are woven together to give a pattern on both the first side and the second side of the fabric, whereby a warp yarn floats over one or more weft yarns to provide a corresponding over portion, and floats under one or more weft yarns to provide a corresponding under portion, at least part of the weft yarns are elastic yarns, wherein looking at said first side, in a repeat unit, the pattern provides that a first warp yarn floats over at least three weft yarns on said first side of the fabric, so as to provide a corresponding warp over portion, said warp yarn successively floats under one single weft yarn to provide an under portion, wherein each of the two warp yarns (2", 2'") arranged adjacent to said first warp yarn, floats under at least three weft yarns to provide a corresponding warp under portion on said second side of the fabric, said warp yarn successively floating over one single weft yarn to provide an over portion on said first side of the fabric, characterized in that the repeat unit comprises 5 warp yarns and 10 weft yarns, wherein the warp pattern is 1b/3a/1b/1a/3b/1a, 1b/1a/3b/1a/1b/3a, 1b/1a/1b/3a/1b/1a/2b, 2a/1b/1a/3b/1a/1b/1a and 3b/1a/1b/3a/1b/1a; wherein a is an under portion and b is an over portion.
A ventilation device comprising a housing, a user interface, and a pneumatic unit, wherein the pneumatic unit comprises at least one each of the components of respiratory gas drive, measuring unit, control unit, and sound unit, wherein the pneumatic unit is formed as a pneumatic train, wherein the pneumatic train forms a respiratory gas path from a device inlet to a device outlet of the housing and wherein at least one component of the pneumatic unit or the pneumatic train can be removed from the housing, wherein the housing has a top wall, at least one bottom wall, and at least two side walls, characterized in that at least one side wall is configured as an optional bottom wall and wherein at least one relatively heavy component, such as in particular the respiratory gas drive, is arranged in the housing such that, when the device is aligned both on the bottom wall and on the side wall configured as an optional bottom wall, a center of gravity that ensures the stability of the device is formed by the heavy component, wherein the user interface is a control and display element, which is configured to change an orientation of the alignment of the display when the alignment of the device is changed in accordance withs the selected bottom wall (21, 27).