mhurhangee/ep-ind-claims huggingface dataset:
A laser system for treating skin, comprising: a first solid-state laser for producing a first output beam of laser radiation; a second solid state laser for producing a second output beam, the second solid state laser being adapted to absorb a first part of the first output beam for generating excitation in a rare-earth doped gain medium to produce the second output beam; an optical fiber adapted to receive laser radiation from the first solid-state laser for directing the first part of the first output beam to the second solid-state laser; and a delivery device comprising a handpiece for directing the second output beam to a target region of skin, the handpiece including a frequency doubling crystal configured to absorb the second output beam to generate a third output beam for treating the skin, wherein the second solid state laser is housed in the handpiece, characterized in that the first solid-state laser comprises a first host material being at least one of a group consisting of sapphire, beryl, chrysoberyl, LiSAF, forsterite, alexandrite, or any combination thereof a first solid-state laser for producing a first output beam of laser radiation; a second solid state laser for producing a second output beam, the second solid state laser being adapted to absorb a first part of the first output beam for generating excitation in a rare-earth doped gain medium to produce the second output beam; an optical fiber adapted to receive laser radiation from the first solid-state laser for directing the first part of the first output beam to the second solid-state laser; and a delivery device comprising a handpiece for directing the second output beam to a target region of skin, the handpiece including a frequency doubling crystal configured to absorb the second output beam to generate a third output beam for treating the skin, wherein the second solid state laser is housed in the handpiece, characterized in that the first solid-state laser comprises a first host material being at least one of a group consisting of sapphire, beryl, chrysoberyl, LiSAF, forsterite, alexandrite, or any combination thereof
Filling system for filling containers with a fluid filling material, comprising at least one filling material tank providing the filling material or a product distribution pipe, as well as at least one filling element (1.1) for the controlled distribution of the filling material into the container arranged in the sealing position at the filling element (1.1) in a filling phase, wherein the filling element (1.1) comprises, in a filling element housing, a fluid channel through which the fluid filling material can flow, in which a fluid valve is provided, the valve body (9.1) of which can be shifted in a controlled manner along a filling element axis in order to open and/or close the fluid valve, and is formed on a gas pipe which is arranged axially aligned with the filling element axis and acts as a valve tappet, wherein, with the inclusion of the gas pipe, at least one flow path is formed for a fluid and/or gaseous medium, which during the filling phase is in connection with an interior of the container which is to be filled, wherein at least one antenna of a radar fill level measuring device is provided in the flow path for determining the fill level of the fluid filling material filled in the container, characterised in that the antenna is provided in the region of the lower open end (13.1) inside the gas pipe. wherein at least one antenna of a radar fill level measuring device is provided in the flow path for determining the fill level of the fluid filling material filled in the container, characterised in that the antenna is provided in the region of the lower open end (13.1) inside the gas pipe.
A user input element, comprising: a first part (510; 710; 810; 910) comprising a first electrode (512; 712; 812; 912) defining a first capacitive surface (513; 713; 813; 913); a second part (530; 730; 830; 930) contacting the first part at an interface (570; 870), the second part comprising a second electrode (532; 732; 832; 932) defining a second capacitive surface (533; 733; 833; 933) configured to be movable relative to the first capacitive surface, the first capacitive surface and the second capacitive surface being generated by a voltage generator applying a voltage difference to the first electrode and the second electrode; and an insulator (550; 750; 850; 950) positioned in between the first capacitive surface and the second capacitive surface so that an electrostatic haptic effect is generated when the second capacitive surface is moved by a user relative to the first capacitive surface from a first position to a second position, the electrostatic haptic effect comprising a change in a friction force between the first part and the second part at the interface. a first part (510; 710; 810; 910) comprising a first electrode (512; 712; 812; 912) defining a first capacitive surface (513; 713; 813; 913); a second part (530; 730; 830; 930) contacting the first part at an interface (570; 870), the second part comprising a second electrode (532; 732; 832; 932) defining a second capacitive surface (533; 733; 833; 933) configured to be movable relative to the first capacitive surface, the first capacitive surface and the second capacitive surface being generated by a voltage generator applying a voltage difference to the first electrode and the second electrode; and an insulator (550; 750; 850; 950) positioned in between the first capacitive surface and the second capacitive surface so that an electrostatic haptic effect is generated when the second capacitive surface is moved by a user relative to the first capacitive surface from a first position to a second position, the electrostatic haptic effect comprising a change in a friction force between the first part and the second part at the interface.
A method of manufacturing a polymeric radiation-source comprising: obtaining image data of a treatment area, the image data including shape surface and geometry data; and shaping a radioactive polymer into a polymeric radiation-source in accordance with the image data, wherein the radioactive polymer is implemented as a complex of a radioisotope and a bi-functional ligand bonded to a polymer, wherein the polymer is selected from the group consisting of polyurethane, polycarbonate, polyethylene and epoxy; and adding a radiation shielding layer constructed from a shielding material relative to the polymeric radiation-source, the shielding layer being configured to reflect or focus the radiation in the direction of the treatment area, the shielding material simultaneously contains or reduces outwardly radiating radiation from the polymeric radiation-source. obtaining image data of a treatment area, the image data including shape surface and geometry data; and shaping a radioactive polymer into a polymeric radiation-source in accordance with the image data, wherein the radioactive polymer is implemented as a complex of a radioisotope and a bi-functional ligand bonded to a polymer, wherein the polymer is selected from the group consisting of polyurethane, polycarbonate, polyethylene and epoxy; and adding a radiation shielding layer constructed from a shielding material relative to the polymeric radiation-source, the shielding layer being configured to reflect or focus the radiation in the direction of the treatment area, the shielding material simultaneously contains or reduces outwardly radiating radiation from the polymeric radiation-source.
Use of a composition of formula Fe 9-a-b-c Ni a Co b M c S 8-d Se d I wherein M stands for one or more elements having in the ionic state an effective ionic radius in the range of 70-92 pm, a is a number within the range of 2.5 ≤ a ≤ 3.5, more preferably 2.7 ≤ a ≤ 3.3 b is a number within the range of 1.5 ≤ b ≤ 5.0, more preferably 1.5 ≤ b ≤ 4.0, most preferably 2.5 ≤ b ≤ 3.5 c is a number within the range of 0.0 ≤ c ≤ 2.0, more preferably 0.0 ≤ c ≤ 1.0 d is a number within the range of 0.0 ≤ d ≤ 4.0, more preferably 0.0 ≤ d ≤ 1.0, wherein the sum of a, b and c is in the range of 5 ≤ a+b+c ≤ 8 and wherein ≥ 90 wt.% of the composition is in the pentlandite phase for electrocatalytic splitting of water, preferably for hydrogen evolution reaction. M stands for one or more elements having in the ionic state an effective ionic radius in the range of 70-92 pm, a is a number within the range of 2.5 ≤ a ≤ 3.5, more preferably 2.7 ≤ a ≤ 3.3 b is a number within the range of 1.5 ≤ b ≤ 5.0, more preferably 1.5 ≤ b ≤ 4.0, most preferably 2.5 ≤ b ≤ 3.5 c is a number within the range of 0.0 ≤ c ≤ 2.0, more preferably 0.0 ≤ c ≤ 1.0 d is a number within the range of 0.0 ≤ d ≤ 4.0, more preferably 0.0 ≤ d ≤ 1.0, wherein the sum of a, b and c is in the range of 5 ≤ a+b+c ≤ 8 and wherein ≥ 90 wt.% of the composition is in the pentlandite phase
A lock for doors comprising a box-like body provided with at least one spring latch and at least one sliding latch both of which can perform a translational movement from a configuration of accommodation within respective inner cavities, to one of protrusion from the front edge of said box-like body, said lock comprising at least one removable module provided with at least one component selected from an assembly for accommodating a handle, a cylinder that can be actuated by means of a corresponding key, a spring latch, and a sliding latch, between said front edge of said box-like body and said at least one module, spacing means are interposed for the arrangement of said at least one module according to different configurations, said module comprising an assembly for accommodating a handle and respective transmission elements for connection to an assembly for the movement of said spring latch, said sliding latch, and said cylinder that can be actuated by means of a corresponding key associated with a toothed wheel for actuating said sliding latch.
Substitution derivatives of N 6 -benzyladenosine selected from the group 6-(2-hydroxy-3-methoxybenzylamino)purine riboside, 6-(2-hydroxy-5-methoxybenzylamino)purine riboside, 6-(2-hydroxy-3-chlorobenzylamino)purine riboside, 2-(amino, hydroxy, chloro, fluoro, bromo, methyl or methylmercapto)-6-(2-hydroxy-3-methoxybenzylamino)purine riboside, 2-(amino, hydroxy, chloro, fluoro, bromo, methyl or methylmercapto)-6-(2-hydroxy-5-methoxybenzylamino)purine riboside, 2-(amino, hydroxy, chloro, fluoro, bromo, methyl or methylmercapto)-6-(2-hydroxy-3-chlorobenzylamino)purine riboside, and their pharmaceutically acceptable salts with alkali metals, ammonium or amines, as well as their addition salts with acids.
A polymer comprising repeat units represented by structure IV wherein R 2 (a) and R 2 (b) are each independently H, C n H 2n+1, phenyl or benzyl with the proviso that no more than one R 2 ( a) and no more than one R 2 ( b) can be phenyl or benzyl; R 3 (a) and R 3 (b) are each independently C n H 2n+1, phenyl or benzyl; R 4 is a C 1 - C 6 alkylene radical; n is an integer of 1-10; and, p is an integer of 1 - 10. R 2 (a) and R 2 (b) are each independently H, C n H 2n+1, phenyl or benzyl with the proviso that no more than one R 2 ( a) and no more than one R 2 ( b) can be phenyl or benzyl; R 3 (a) and R 3 (b) are each independently C n H 2n+1, phenyl or benzyl; R 4 is a C 1 - C 6 alkylene radical; n is an integer of 1-10; and, p is an integer of 1 - 10.
An air-conditioning apparatus comprising a heat source unit, a casing (2a to 2d, 70) and a refrigerant circuit connecting, by a refrigerant pipe, a compressor, a first heat exchanger, a first expansion device (16a to 16d, 16), and a second heat exchanger (17a to 17d, 71), the refrigerant circuit circulating refrigerant therein, the compressor and the first heat exchanger being housed in the heat source unit, the refrigerant circuit configured to enable cooling operation in which the first heat exchanger is configured to operate as a condenser and said second heat exchanger (17a to 17d, 71) is configured to in a non-stopped state operate as an evaporator, the heat source unit housing a second expansion device provided at a location on a downstream side with respect to the first heat exchanger and on an upstream side with respect to said first expansion device (16a to 16d, 16) in a refrigerant flow direction in the cooling operation, the second expansion device and said first expansion device (16a to 16d, 16) being connected via a first extension pipe, the second expansion device configured to reduce a pressure of refrigerant flowing into the first extension pipe in the cooling operation to cause the refrigerant to turn into refrigerant having a medium pressure and in a two-phase state, the medium pressure being lower than a refrigerant pressure in the condenser and higher than a refrigerant pressure in the evaporator, in the cooling operation, the refrigerant having the medium pressure and in the two-phase state being caused to flow through the first extension pipe, a refrigerant mixture of R32 and tetrafluoropropene-based refrigerant being used as the refrigerant, characterized in that the casing (2a to 2d, 70) houses the first expansion device (16a to 16d, 16) and the second heat exchanger (17a to 17d, 71) and is installed at a location away from the heat source unit, wherein the casing (2a to 2d, 70) is connected to the heat source unit via a plurality of extension pipes (5a, 5b) constituting a part of the refrigerant pipe, the first extension pipe being one of the plurality of extension pipes (5a, 5b), wherein the air-conditioning apparatus further comprises a medium pressure detection device provided on a downstream side of the second expansion device in the refrigerant flow direction in the cooling operation, and detecting a pressure or a saturation temperature of refrigerant; and a controller configured to control an opening degree of the second expansion device based on a detected pressure or a detected temperature of the medium pressure detection device, wherein, in the cooling operation, when the mixture ratio of R32 in the refrigerant mixture is R (1/100 wt%), a quality of refrigerant to be caused to flow through the first extension pipe being a value within a quality range from (-0.0782 × R + 0.1399) to (-0.0933 × R + 0.3999).
Seismic isolated base of a switch for a high-voltage electric system, comprising at least one seismic isolation device, said device comprising: - a first metallic plate, square in shape, adapted to be fixed to a basement; - a second metallic plate, adapted to be fixed to said switch base; characterised by - four dampers/isolators of the wire-rope type, connected between said first and second plates, mutually arranged at the vertices of a square, and oriented at a 45° angle relative to the sides of said first plate, wherein - said first and second metallic plates (1, 2) comprise, respectively, a first and a second central openings; - said first and second central openings have the same size and are positioned one over the other. - a first metallic plate, square in shape, adapted to be fixed to a basement; - a second metallic plate, adapted to be fixed to said switch base; characterised by - four dampers/isolators of the wire-rope type, connected between said first and second plates, mutually arranged at the vertices of a square, and oriented at a 45° angle relative to the sides of said first plate, wherein - said first and second metallic plates (1, 2) comprise, respectively, a first and a second central openings; - said first and second central openings have the same size and are positioned one over the other.
An injection molding die comprising a projection mechanism (41, 42, 43) whereby the molding die (1, 2, 3) is configured to mold a molded article by a fixed-side die and a movable-side die, the projection mechanism (41, 42, 43) comprising: a projection pin using a reaction force of a spring as a drive source; and a first spring (51, 52) and a second spring configured to project the projection pin, wherein the first spring (51, 52) has a maximum reaction force in a die clamping state, and projects the projection pin while gradually reducing the reaction force in a projection process, the second spring projects the projection pin with a constant reaction force while projecting the projection pin from the die clamping state, where stop of movement of the projection pin during the projection process causes compression of the second spring to increase the reaction force of the second spring, thereby energizing the projection pin to further project the projection pin, the projection pin includes a travel restriction member configured to restrict movement of the projection pin, the molding die (1, 2, 3) comprises an undercut processing mechanism, and the projection pin is configured to push out the undercut processing mechanism. a projection pin using a reaction force of a spring as a drive source; and a first spring (51, 52) and a second spring configured to project the projection pin, wherein the first spring (51, 52) has a maximum reaction force in a die clamping state, and projects the projection pin while gradually reducing the reaction force in a projection process, the second spring projects the projection pin with a constant reaction force while projecting the projection pin from the die clamping state, where stop of movement of the projection pin during the projection process causes compression of the second spring to increase the reaction force of the second spring, thereby energizing the projection pin to further project the projection pin, the projection pin includes a travel restriction member configured to restrict movement of the projection pin, the molding die (1, 2, 3) comprises an undercut processing mechanism, and the projection pin is configured to push out the undercut processing mechanism.
A driving tool for driving jackset screws into a connector for a circuit card assembly, the driving tool comprising: an input shaft configured to receive torque; a first output shaft operably connected to the input shaft; a second output shaft operably connected to the input shaft; a gearbox in operable communication with the input shaft and with the first and second output shafts (18,20), such that the gearbox mechanically couples the input shaft to the first and second output shafts, wherein the gearbox comprises: a gearbox housing; and a gear assembly disposed in the gearbox housing, wherein the gear assembly is rotatably engaged with the input shaft; a first driver head attached to the first output shaft; a second driver head attached to the second output shaft; and characterized by a yoke connected to and extending between the first and second output shafts, wherein the yoke defines a position of the distal ends of the first and second shafts relative to each other, wherein the yoke comprises: a first end with a first thread; a second end with a second thread, the second end opposite the first end, wherein the second thread is in an opposite direction than the first thread; and a nut disposed between the first and second ends; and wherein the yoke is configured to adjust a distance between the first and second driver heads (22, 24). an input shaft configured to receive torque; a first output shaft operably connected to the input shaft; a second output shaft operably connected to the input shaft; a gearbox in operable communication with the input shaft and with the first and second output shafts (18,20), such that the gearbox mechanically couples the input shaft to the first and second output shafts, wherein the gearbox comprises: a gearbox housing; and a gear assembly disposed in the gearbox housing, wherein the gear assembly is rotatably engaged with the input shaft; a gearbox housing; and a gear assembly disposed in the gearbox housing, wherein the gear assembly is rotatably engaged with the input shaft; a first driver head attached to the first output shaft; a second driver head attached to the second output shaft; and characterized by a yoke connected to and extending between the first and second output shafts, wherein the yoke defines a position of the distal ends of the first and second shafts relative to each other, wherein the yoke comprises: a first end with a first thread; a second end with a second thread, the second end opposite the first end, wherein the second thread is in an opposite direction than the first thread; and a nut disposed between the first and second ends; and wherein the yoke is configured to adjust a distance between the first and second driver heads (22, 24). a first end with a first thread; a second end with a second thread, the second end opposite the first end, wherein the second thread is in an opposite direction than the first thread; and a nut disposed between the first and second ends; and wherein the yoke is configured to adjust a distance between the first and second driver heads (22, 24).
A collapsible container comprising; a base; a top; and first (30 and 31) and second (11 and 12) pairs of opposed side walls; each of said side walls being hingedly mounted on said base for movement between an non-collapsed condition, in which said side wall extends from the base to the top, and a collapsed condition, in which said side wall overlies said base, the side walls (30 and 31) of the first pair being foldable and one of said side walls being arranged to overlie the other of said side walls when in their collapsed condition, the side walls of the second pair (11 and 12) being foldable into two parts about a substantially central hinge lying parallel to the base so that, in their collapsed condition, the side walls (11 and 12) are folded and one overlies the other, characterized in that the side walls of the first pair (30 and 31) are provided with different vertical pivot positions, thereby allowing them to stack flatly on top of one another. a base; a top; and first (30 and 31) and second (11 and 12) pairs of opposed side walls;
An electromagnetic heater for heating I a hookah, comprising a shell and an electromagnetic heating body installed in the shell, the shell comprising a heat-insulating base plate, and the electromagnetic heating body comprising an excitation coil and a drive circuit the excitation coil being in a shape of a sheet and formed by spiraling a wire outward from a center, the excitation coil being configured to face the heat-insulating base plate and send out a high-frequency AC signal by which an eddy current effect is produced on an electromagnetic induction element adjacent to the heat-insulating base plate, under a control of the drive circuit; characterized in that, a plurality of support legs for supporting the shell are protruded on the heat-insulating base plate, the support legs are configured to be supported on a hookah bowl, and an air inlet is formed between the heat-insulating base plate and the hookah bowl and communicated with the hookah bowl.