mhurhangee/ep-ind-claims huggingface dataset:
An object disassembling apparatus that shatters an object by means of pulsed discharge, the disassembling apparatus comprising: a container that can be filled with a liquid; an anode that is disposed within the container; a cathode that is disposed within the container such that the object can be placed so as to straddle the anode and the cathode; object scattering prevention means that encloses an object disassembling region above the anode and the cathode; and a pulsed power supply that applies a high voltage pulse between the anode and the cathode, characterized in that the object disassembling apparatus further comprises: at least one intermediate electrode that is disposed between the anode and the cathode so as to float electrically, wherein the object can be placed so as to straddle the anode and the intermediate electrode or the cathode and the intermediate electrode. a container that can be filled with a liquid; an anode that is disposed within the container; a cathode that is disposed within the container such that the object can be placed so as to straddle the anode and the cathode; object scattering prevention means that encloses an object disassembling region above the anode and the cathode; and a pulsed power supply that applies a high voltage pulse between the anode and the cathode, characterized in that the object disassembling apparatus further comprises: at least one intermediate electrode that is disposed between the anode and the cathode so as to float electrically, wherein the object can be placed so as to straddle the anode and the intermediate electrode or the cathode and the intermediate electrode. at least one intermediate electrode that is disposed between the anode and the cathode so as to float electrically, wherein the object can be placed so as to straddle the anode and the intermediate electrode or the cathode and the intermediate electrode.
Process comprising the steps of providing in an electronic device one or more electrodes containing a metal or metal oxide, and depositing onto the surface of said electrodes a layer comprising a compound selected of formula I11a, I11b, I11c, I11d, I11e, I11f, I11g, I12a, I12b, I12c, I12d, I12e, I12f, I12g, I13a, I13b, I13c, I13d, I13e, 113f and I13g, thereby forming a self-assembled monolayer on the electrode surface, for decreasing the contact resistance between the electrode surface and an organic semiconductor layer and improving charge carrier injection into the organic semiconductor layer, and depositing onto the surface of said electrodes which is covered by said layer comprising the compound selected of formula I11a, I11b, I11c, I11d, I11e, I11f, I11g, I12a, I12b, I12c, I12d, I12e, I12f, I12g, I13a, I13b, I13c, I13d, I13e, I13f and I13g, or depositing in the area between two or more of said electrodes, the organic semiconductor, wherein R f is straight chain or branched perfluoroalkyl having 1, 2, 3 or 4 C atoms.
A method for aggregating a cluster of particles (14, 14a, 14b, 14m) having a target cluster constitution in a channel, the method comprising the steps of: - establishing a fluid stream through said channel, said channel comprising a retention section, said fluid stream comprising a fluid carrier medium and particles (14, 14a, 14b, 14m) of at least one type; - controlling a supply of said particles (14, 14a, 14b, 14m) of at least one type into the fluid stream; - operating a retention mechanism to aggregate at least part of said particles (14, 14a, 14b, 14m) in an aggregation region within said retention section, to thereby form said cluster of particles (14, 14a, 14b, 14m), wherein operating the particle retention mechanism comprises generating an acoustic field in the retention section using an acoustic wave generator (20a, 20b) of the retention mechanism; - monitoring, while operating said retention mechanism, the particles (14, 14a, 14b, 14m) in at least part of said channel for obtaining a monitoring signal associated with the cluster and/or with the particles (14, 14a, 14b, 14m) moving in the fluid stream; - determining a current cluster constitution of said cluster from the monitoring signal; - comparing said current cluster constitution with said target cluster constitution; and - controlling at least one of said particle retention mechanism or said supply of said particles (14, 14a, 14b, 14m) of at least one type, such that said current cluster constitution of said cluster dynamically approaches said target cluster constitution. - establishing a fluid stream through said channel, said channel comprising a retention section, said fluid stream comprising a fluid carrier medium and particles (14, 14a, 14b, 14m) of at least one type; - controlling a supply of said particles (14, 14a, 14b, 14m) of at least one type into the fluid stream; - operating a retention mechanism to aggregate at least part of said particles (14, 14a, 14b, 14m) in an aggregation region within said retention section, to thereby form said cluster of particles (14, 14a, 14b, 14m), wherein operating the particle retention mechanism comprises generating an acoustic field in the retention section using an acoustic wave generator (20a, 20b) of the retention mechanism; - monitoring, while operating said retention mechanism, the particles (14, 14a, 14b, 14m) in at least part of said channel for obtaining a monitoring signal associated with the cluster and/or with the particles (14, 14a, 14b, 14m) moving in the fluid stream; - determining a current cluster constitution of said cluster from the monitoring signal; - comparing said current cluster constitution with said target cluster constitution; and - controlling at least one of said particle retention mechanism or said supply of said particles (14, 14a, 14b, 14m) of at least one type, such that said current cluster constitution of said cluster dynamically approaches said target cluster constitution.
A thermosetting resin composition comprising a polyfunctional (meth)acrylate (a), a high-thermal conductivity filler (b) having a thermal conductivity of 20 to 250 W/m·K, a curing agent (c), and a copolymer (d) having an acid group containing phosphoric acid, wherein the polyfunctional (meth)acrylate (a) consists of a difunctional di(meth)acrylate represented by a formula shown below: CH 2 =CR 2 COO-(R 1 O) n -COCR 2 =CH 2 (wherein n represents an integer of 1 or greater, R 1 represents an alkylene chain or polymethylene chain containing 1 to 14 carbon atoms, and R 2 represents a hydrogen atom or a methyl group) and an epoxy (meth)acrylate, an amount of the high-thermal conductivity filler (b) is from 1,700 to 2,000 parts by mass per 100 parts by mass of the polyfunctional (meth)acrylate (a), and an amount of the copolymer (d) having an acid group containing phosphoric acid is from 7.5 to 30 parts by mass per 100 parts by mass of the polyfunctional (meth)acrylate (a), and the high-thermal conductivity filler (b) includes aluminum oxide and magnesium oxide. (wherein n represents an integer of 1 or greater, R 1 represents an alkylene chain or polymethylene chain containing 1 to 14 carbon atoms, and R 2 represents a hydrogen atom or a methyl group) and an epoxy (meth)acrylate, an amount of the high-thermal conductivity filler (b) is from 1,700 to 2,000 parts by mass per 100 parts by mass of the polyfunctional (meth)acrylate (a), and an amount of the copolymer (d) having an acid group containing phosphoric acid is from 7.5 to 30 parts by mass per 100 parts by mass of the polyfunctional (meth)acrylate (a), and the high-thermal conductivity filler (b) includes aluminum oxide and magnesium oxide.
Fastening device for fastening a panel to a structure, the fastening device being provided with at least one reversible fastening assembly comprising a movable stud suitable for being fastened to the panel and a stationary stud suitable for being fastened to the structure, said movable stud comprising a first magnetization means cooperating with a second magnetization means of said stationary stud, at least one of said first magnetization means and second magnetization means comprising a magnet, characterized in that a magnetization means is carried by a ball joint of the associated stud, each magnetization means (15, 115) being connected to a movement means (30, 300) which reversibly translates the magnetization means (15, 115) from an engagement position to a disengagement position, a first movement means of the movable stud translating in a plane the first magnetization means and a second movement means of the stationary stud translating the second magnetization means along a longitudinal axis of the stationary stud substantially orthogonal to said plane, the first and the second magnetization means (15, 155) being strongly magnetized to each other when they are facing and each is in the engagement position, and being not magnetized or weakly magnetized when at least one magnetization means (15, 115) is in its disengagement position.
An antimicrobial paint composition for forming an antimicrobial coating, said antimicrobial paint composition comprising: a carrier vehicle; a film-forming polymer; a glass comprising copper; and a non-copper pyrithione salt; wherein said copper and said pyrithione salt interact to form copper pyrithione in the antimicrobial paint composition and/or the antimicrobial coating formed thereby; wherein the glass comprising copper is present in an amount of from 0.08 to 2.0 weight percent based on the total weight of the antimicrobial paint composition; and wherein the glass comprising copper and the non-copper pyrithione salt are present in a weight-to-weight ratio of from 3:1 to 20:1. a carrier vehicle; a film-forming polymer; a glass comprising copper; and a non-copper pyrithione salt; wherein said copper and said pyrithione salt interact to form copper pyrithione in the antimicrobial paint composition and/or the antimicrobial coating formed thereby; wherein the glass comprising copper is present in an amount of from 0.08 to 2.0 weight percent based on the total weight of the antimicrobial paint composition; and wherein the glass comprising copper and the non-copper pyrithione salt are present in a weight-to-weight ratio of from 3:1 to 20:1.
Head-up display device (2; 102) comprising: - an image generation unit (6; 106) designed to emit a light beam; - a reflective surface (8; 108) configured to reflect the light beam emitted by the image generation unit (6; 106); and - a mirror (10; 110) configured to receive the light beam reflected by the reflective surface (8; 108), characterized by a part (12; 112) which is transparent to visible light, absorbent to infrared and interposed in the path of the light beam between the reflective surface (8; 108) and the mirror (10; 110), and wherein the two main faces of the part form a non-zero angle between them. - an image generation unit (6; 106) designed to emit a light beam; - a reflective surface (8; 108) configured to reflect the light beam emitted by the image generation unit (6; 106); and - a mirror (10; 110) configured to receive the light beam reflected by the reflective surface (8; 108), characterized by a part (12; 112) which is transparent to visible light, absorbent to infrared and interposed in the path of the light beam between the reflective surface (8; 108) and the mirror (10; 110), and wherein the two main faces of the part form a non-zero angle between them.
A vehicle display system for displaying enhanced vision and synthetic vision images to an operator of a vehicle, comprising: an EV image sensor configured to generate EV images, the EV image sensor having a narrow field of view; an SV database containing information regarding terrain and objects of interest for a travel path of a vehicle; an SV image generating unit configured to generate SV images based on travel of said vehicle and information from said SV database; a display configured to display images generated by said EV image sensor and said SV image generating unit; and an EV image sensor control unit configured to control the field of view of said EV image sensor, the EV image sensor control unit comprising: a priority unit coupled to receive information from the SV database and configured to determine priority of said objects of interest, an integrity unit configured to assign integrity levels to said objects of interest, and a sensor area optimizing unit coupled to the priority unit and the integrity unit and configured to (i) assign an imaging area within the field of view based on the assigned integrity levels and (ii) output steering control signals to the EV sensor. an EV image sensor configured to generate EV images, the EV image sensor having a narrow field of view; an SV database containing information regarding terrain and objects of interest for a travel path of a vehicle; an SV image generating unit configured to generate SV images based on travel of said vehicle and information from said SV database; a display configured to display images generated by said EV image sensor and said SV image generating unit; and an EV image sensor control unit configured to control the field of view of said EV image sensor, the EV image sensor control unit comprising: a priority unit coupled to receive information from the SV database and configured to determine priority of said objects of interest, an integrity unit configured to assign integrity levels to said objects of interest, and a sensor area optimizing unit coupled to the priority unit and the integrity unit and configured to (i) assign an imaging area within the field of view based on the assigned integrity levels and (ii) output steering control signals to the EV sensor. a priority unit coupled to receive information from the SV database and configured to determine priority of said objects of interest, an integrity unit configured to assign integrity levels to said objects of interest, and a sensor area optimizing unit coupled to the priority unit and the integrity unit and configured to (i) assign an imaging area within the field of view based on the assigned integrity levels and (ii) output steering control signals to the EV sensor.
Method for manufacturing a bladder accumulator, which separates two media chambers (16, 18) from one another in an accumulator housing by means of a bladder body, characterised by at least the following manufacturing steps: - a plastic tube is extruded over the bladder body, - the plastic tube with the integral bladder body is moulded in a moulding tool corresponding to a pre-definable plastic liner, and - the plastic liner is wound from the outside with at least one plastic fibre to create the accumulator housing. - a plastic tube is extruded over the bladder body, - the plastic tube with the integral bladder body is moulded in a moulding tool corresponding to a pre-definable plastic liner, and - the plastic liner is wound from the outside with at least one plastic fibre to create the accumulator housing.
An operator protective structure mounted on a cabin of construction machine, wherein the cabin is provided with a bottom plate on a bottom thereof, mounted on an upper frame installed on a lower driving body and independently vibrated relative to the upper frame by connecting the bottom plate to the upper frame through vibration absorbing devices characterized in that the operator protective structure further comprising; a front guide provided with a top bar fixed to front brackets of the cabin and a bottom bar directly fixed to a front bottom surface of the cabin and, a plurality of vertical protection rods for connecting the top bar to the bottom bar up and down, and a plurality of horizontal protection rods for connecting the vertical protection rods, installed up and down in front of the cabin to protect the cabin from objects penetrating into a front of the cabin, whereby the front guide and the cabin are vibrated relative to the upper frame in a single body; a top guide provided with a plurality of vertical supporting rods formed long in a front and rear direction of the cabin and a plurality of horizontal supporting rods formed in a direction perpendicular to the vertical supporting rods, and a plurality of top brackets formed at both side edges of the vertical supporting rods with a number of holes, installed on the cabin to protect the cabin from falling objects; a pair of ceiling brackets provided with a plurality of bosses having a screw inside, protrusively formed on the ceiling brackets in an upward direction, whereby the top brackets are fixed by screwing bolts into the holes and the bosses.
A clothes drying apparatus, - comprising a heat pump including a compressor, a condenser, an expansion means, and an evaporator connected by fluid conduits carrying working fluid and - comprising a control unit connected to the compressor, the control unit being adapted to operate the compressor in a first mode of operation and in a second mode of operation during a drying cycle, wherein - the compressor is an AC rotary compressor, - in the first mode of operation, the AC rotary compressor is constantly switched on, and - in the second mode of operation, the AC rotary compressor is alternately switched on and off, characterized in that - the heat pump comprises open fluid conduits for carrying the working fluid, wherein in its switched off state, the AC rotary compressor blocks the working fluid from flowing between its high-pressure side and its low-pressure side and/or the expansion means is selectively switchable between an open state and a closed state and the control unit is adapted to open the expansion means when the AC rotary compressor is switched on and to close the expansion means when the AC rotary compressor is switched off, and/or - the fluid conduits comprise at least one controllable cut-off means, wherein the at least one controllable cut-off means is open when the AC rotary compressor is switched on during a drying cycle, and wherein the at least one controllable cut-off means is closed when the AC rotary compressor is switched off during a drying cycle and is open when the AC rotary compressor is switched on during a drying cycle. - comprising a heat pump including a compressor, a condenser, an expansion means, and an evaporator connected by fluid conduits carrying working fluid and - comprising a control unit connected to the compressor, the control unit being adapted to operate the compressor in a first mode of operation and in a second mode of operation during a drying cycle, - the compressor is an AC rotary compressor, - in the first mode of operation, the AC rotary compressor is constantly switched on, and - in the second mode of operation, the AC rotary compressor is alternately switched on and off, - the heat pump comprises open fluid conduits for carrying the working fluid, wherein in its switched off state, the AC rotary compressor blocks the working fluid from flowing between its high-pressure side and its low-pressure side and/or the expansion means is selectively switchable between an open state and a closed state and the control unit is adapted to open the expansion means when the AC rotary compressor is switched on and to close the expansion means when the AC rotary compressor is switched off, and/or - the fluid conduits comprise at least one controllable cut-off means, wherein the at least one controllable cut-off means is open when the AC rotary compressor is switched on during a drying cycle, and wherein the at least one controllable cut-off means is closed when the AC rotary compressor is switched off during a drying cycle and is open when the AC rotary compressor is switched on during a drying cycle.
A batch for the production of a refractory product, comprising the following components: 1.1 at least 50 % by weight of a base component based on alumina in the form of one or more of the following components: fused corundum, sintered corundum or calcined alumina; 1.2 at least 0.5 % by weight of at least one of the following silicate components: kaolin, metakaolin, fireclay, pyrophyllite, calcined bauxite, mullite or zircon; 1.3 a carbon component. 1.1 at least 50 % by weight of a base component based on alumina in the form of one or more of the following components: fused corundum, sintered corundum or calcined alumina; 1.2 at least 0.5 % by weight of at least one of the following silicate components: kaolin, metakaolin, fireclay, pyrophyllite, calcined bauxite, mullite or zircon; 1.3 a carbon component.
A vascular access device comprising: a catheter comprising a primary lumen extending from a proximal end to a distal end of the catheter; at least one deployable wire secured to the catheter and configured to move relative to the catheter between a delivery configuration and a deployed configuration; and a guidewire, characterized in that the at least one deployable wire in the deployed configuration is configured to engage an inner surface of a wall of a vessel, while allowing sufficient blood flow to pass through the vessel, and bias the catheter to engage the inner surface such that a hemostatic connection is formed between the catheter and the inner surface, the hemostatic connection being formed between a portion of an external surface of the catheter surrounding an access opening in a side wall of the catheter and the inner surface of the wall of the vessel, wherein the guidewire is configured to be advanced through the primary lumen, the access opening, and the vessel wall to form an aperture, while maintaining the hemostatic connection, wherein the aperture extends from the inner surface of the vessel wall to an outer surface of the vessel wall, wherein the catheter comprises a guidewire lumen further comprising a first portion, a second portion, and a seal positioned axially between the first portion and the second portion, wherein the guidewire lumen extends proximally from the distal end of the catheter to a lumen transition portion positioned axially between the guidewire lumen and the primary lumen. a catheter comprising a primary lumen extending from a proximal end to a distal end of the catheter; at least one deployable wire secured to the catheter and configured to move relative to the catheter between a delivery configuration and a deployed configuration; and a guidewire, characterized in that the at least one deployable wire in the deployed configuration is configured to engage an inner surface of a wall of a vessel, while allowing sufficient blood flow to pass through the vessel, and bias the catheter to engage the inner surface such that a hemostatic connection is formed between the catheter and the inner surface, the hemostatic connection being formed between a portion of an external surface of the catheter surrounding an access opening in a side wall of the catheter and the inner surface of the wall of the vessel, wherein the guidewire is configured to be advanced through the primary lumen, the access opening, and the vessel wall to form an aperture, while maintaining the hemostatic connection, wherein the aperture extends from the inner surface of the vessel wall to an outer surface of the vessel wall, wherein the catheter comprises a guidewire lumen further comprising a first portion, a second portion, and a seal positioned axially between the first portion and the second portion, wherein the guidewire lumen extends proximally from the distal end of the catheter to a lumen transition portion positioned axially between the guidewire lumen and the primary lumen.