mhurhangee/ep-ind-claims huggingface dataset:
A heat dissipation structure comprising: heat generation means provided inside a housing; internal heat dissipation means provided inside the housing for receiving heat from the heat generation means; a heat transport member comprising a bar shape and protruding from inside the housing to outside the housing, a part of a portion of the heat transport member inside the housing being fitted in a first groove formed on a surface of the internal heat dissipation means, so as to transport heat from the internal heat dissipation means to outside the housing; external heat dissipation means comprising a plurality of fins disposed side by side at a part of a portion of the heat transport member outside the housing; and a fixing member disposed between the internal heat dissipation means and the external heat dissipation means and comprising a through hole for passage of the heat transport member, the fixing member comprising a first surface facing the internal heat dissipation means, and a second surface facing the external heat dissipation means, the first surface being in contact with the internal heat dissipation means, the second surface being in contact with the external heat dissipation means, wherein a second groove extending from the through hole toward an area not covered with the external heat dissipation means is formed in the second surface, and a gap portion between the heat transport member and the through hole and the second groove are filled with a sealant for waterproofing. heat generation means provided inside a housing; internal heat dissipation means provided inside the housing for receiving heat from the heat generation means; a heat transport member comprising a bar shape and protruding from inside the housing to outside the housing, a part of a portion of the heat transport member inside the housing being fitted in a first groove formed on a surface of the internal heat dissipation means, so as to transport heat from the internal heat dissipation means to outside the housing; external heat dissipation means comprising a plurality of fins disposed side by side at a part of a portion of the heat transport member outside the housing; and a fixing member disposed between the internal heat dissipation means and the external heat dissipation means and comprising a through hole for passage of the heat transport member, the fixing member comprising a first surface facing the internal heat dissipation means, and a second surface facing the external heat dissipation means, the first surface being in contact with the internal heat dissipation means, the second surface being in contact with the external heat dissipation means, wherein a second groove extending from the through hole toward an area not covered with the external heat dissipation means is formed in the second surface, and a gap portion between the heat transport member and the through hole and the second groove are filled with a sealant for waterproofing.
Apparatus for storing energy, comprising: a high pressure storage vessel for receiving high pressure gas, the high pressure storage vessel comprising high pressure heat storage means configured to receive thermal energy from gas; and connection means for connecting the high pressure storage vessel to gas storage means for storing pressurised gas after exposure to the high pressure heat storage means or to gas processing means for receiving pressurised gas after exposure to the high pressure heat storage means; wherein the apparatus further comprises: a low pressure storage vessel comprising low pressure heat storage means configured to receive thermal energy from gas, the low pressure storage vessel being selectively connectable to the high pressure storage vessel; and gas transfer means (33', 34', 36', 37') configured to transfer gas at low pressure between the high pressure storage vessel and the low pressure storage vessel, whereby stored thermal energy is transferred between the high pressure heat storage means and the low pressure heat storage means by passing low pressure gas between the high pressure storage vessel and the low pressure storage vessel. a high pressure storage vessel for receiving high pressure gas, the high pressure storage vessel comprising high pressure heat storage means configured to receive thermal energy from gas; and connection means for connecting the high pressure storage vessel to gas storage means for storing pressurised gas after exposure to the high pressure heat storage means or to gas processing means for receiving pressurised gas after exposure to the high pressure heat storage means; wherein the apparatus further comprises: a low pressure storage vessel comprising low pressure heat storage means configured to receive thermal energy from gas, the low pressure storage vessel being selectively connectable to the high pressure storage vessel; and gas transfer means (33', 34', 36', 37') configured to transfer gas at low pressure between the high pressure storage vessel and the low pressure storage vessel, whereby stored thermal energy is transferred between the high pressure heat storage means and the low pressure heat storage means by passing low pressure gas between the high pressure storage vessel and the low pressure storage vessel. a low pressure storage vessel comprising low pressure heat storage means configured to receive thermal energy from gas, the low pressure storage vessel being selectively connectable to the high pressure storage vessel; and gas transfer means (33', 34', 36', 37') configured to transfer gas at low pressure between the high pressure storage vessel and the low pressure storage vessel, whereby stored thermal energy is transferred between the high pressure heat storage means and the low pressure heat storage means by passing low pressure gas between the high pressure storage vessel and the low pressure storage vessel.
An underwater survey system for gathering range and 3D information of subsea objects, the system comprising a camera module configured to capture images of a subsea scene; and one or more reference projection light sources (11, 12) configured to project one or more structured light beams, the one or more reference projection light sources having a fixed distance from the camera and a fixed orientation in relation to the camera; and the camera module configured to capture a sequence of images of the scene, wherein the scene is illuminated by one or more of the structured light beams, and characterized by the camera module and light sources being synchronized so that each time an image is acquired, a specific configuration and potentially differing configuration of light source parameters and camera module parameters is used.
An electrophysiology catheter, comprising: an elongated catheter shaft; a distal tip electrode having a shell configured for contact with tissue; a capacitive force sensor having a first plate affixed to the shell, a second plate distal of the first plate and configured for contact with the tissue, and an elastically compressible dielectric between the first and second plates, wherein the force sensor has a first capacitance when the first and second plates are separated by a first distance, and the force sensor has a second capacitance when the first and second plates are separated by a second different from the first distance; a first terminal connected to the first plate; and a second terminal connected to the second plate, wherein the shell has a recess and the first plate of the capacitive force sensor is situated in the recess and at least the second plate projects out from the shell so that it is exposed. an elongated catheter shaft; a distal tip electrode having a shell configured for contact with tissue; a capacitive force sensor having a first plate affixed to the shell, a second plate distal of the first plate and configured for contact with the tissue, and an elastically compressible dielectric between the first and second plates, wherein the force sensor has a first capacitance when the first and second plates are separated by a first distance, and the force sensor has a second capacitance when the first and second plates are separated by a second different from the first distance; a first terminal connected to the first plate; and a second terminal connected to the second plate, wherein the shell has a recess and the first plate of the capacitive force sensor is situated in the recess and at least the second plate projects out from the shell so that it is exposed.
A method of forming an interconnect structure in a layer of inter-layer dielectric material, the method comprising: creating one or more via openings in said layer of ILD material; forming a first liner covering at least one of said one or more via openings; creating one or more trench openings on top of at least one of said one or more via openings covered by said first liner; and forming a second liner covering at least one of said one or more trench openings and at least part of said first liner; characterized in that the method further comprises, before forming said first liner, gouging said via openings to create a gouge at a bottom of said via openings in a conductive area of a prior level interconnect structure. creating one or more via openings in said layer of ILD material; forming a first liner covering at least one of said one or more via openings; creating one or more trench openings on top of at least one of said one or more via openings covered by said first liner; and forming a second liner covering at least one of said one or more trench openings and at least part of said first liner; characterized in that the method further comprises, before forming said first liner, gouging said via openings to create a gouge at a bottom of said via openings in a conductive area of a prior level interconnect structure.
A medical device flexing structure assembly, comprising: a tip electrode (522, 562) comprising a deformation mechanism and a distal portion; a multi-core fiber (526, 566) comprising a plurality of cores and a distal end; and wherein the distal end of the multi-core fiber (526, 566) passes through the deformation mechanism and is coupled to the distal portion of the tip electrode (522, 562), wherein the multi-core fiber (526, 566) is held in tension within the tip electrode and wherein the multi-core fiber is configured to be immersed within a flowed irrigant, wherein the deformation mechanism is configured to bend in response to a force imparted on the tip electrode (522, 562), wherein at least two of the plurality of cores comprises a fiber Bragg grating. a tip electrode (522, 562) comprising a deformation mechanism and a distal portion; a multi-core fiber (526, 566) comprising a plurality of cores and a distal end; and wherein the distal end of the multi-core fiber (526, 566) passes through the deformation mechanism and is coupled to the distal portion of the tip electrode (522, 562), wherein the multi-core fiber (526, 566) is held in tension within the tip electrode and wherein the multi-core fiber is configured to be immersed within a flowed irrigant, wherein the deformation mechanism is configured to bend in response to a force imparted on the tip electrode (522, 562), wherein at least two of the plurality of cores comprises a fiber Bragg grating.
Device for generating single photons with an energy E, comprising a plurality of quantum emitters which have at least one determined transition with the energy E from an energy level N* to a lower energy level N1, wherein the quantum emitters are arranged in the region of a propagation path extending from a first region to a second region, the device further comprising at least one light source for emitting light, preferably of one light mode, for propagation along the propagation path, wherein the light has the energy E for resonantly exciting the energy level N*, wherein the quantum emitters are arranged in such a way that only exactly Z quantum emitters are illuminated, which form an optical thickness τ > 0 for the light along the propagation path, the number Z lying in a range Z0 ± 10%, and wherein Z0 is that number at which, in the second region, a destructive interference between a two-photon component of the light that is scattered at these Z0 quantum emitters and a two-photon component of the light that is not scattered is at a maximum.
Lamp operating device for operating one or more light sources (20-1, 20-2), comprising: a) a first interface unit for connecting the lamp operating device to a control line and for receiving external control commands in accordance with a first communication protocol, b) a control unit which operates the light source(s) (20-1, 20-2) in response to the control commands received via the first interface unit, c) a second interface unit for receiving programming information in accordance with a second communication protocol, wherein the conversion of the control commands received via the first interface unit for operating the light source(s) (20-1, 20-2) by the control unit takes place at least partially, while taking into account the programming information, characterized in that the first interface unit is designed to receive control commands in accordance with the DALI standard, while the programming information relates to the implementation of scene commands by the control unit according to the DALI standard, and wherein the lamp operating device further comprises: d) a memory for storing parameter sets, wherein each defines different settings of the light source(s) and wherein each is associated with a scene, and e) a plurality of control outputs (12,13,14) for controlling different colored light sources (21, 22, 23) and/or a control output for controlling an adjusting device for a light source. a) a first interface unit for connecting the lamp operating device to a control line and for receiving external control commands in accordance with a first communication protocol, b) a control unit which operates the light source(s) (20-1, 20-2) in response to the control commands received via the first interface unit, c) a second interface unit for receiving programming information in accordance with a second communication protocol, wherein the conversion of the control commands received via the first interface unit for operating the light source(s) (20-1, 20-2) by the control unit takes place at least partially, while taking into account the programming information, d) a memory for storing parameter sets, wherein each defines different settings of the light source(s) and wherein each is associated with a scene, and e) a plurality of control outputs (12,13,14) for controlling different colored light sources (21, 22, 23) and/or a control output for controlling an adjusting device for a light source.
An assistance device, comprising: a rotary table, which is rotatable about an axis parallel to a vertical direction; and a support member, which is configured to support an upper body of a care receiver, characterized by a slide member, being mounted on the rotary table, which is slidable in a horizontal direction with respect to the rotary table, wherein the support member is mounted on the slide member, and the assistance device is configured to be mounted on a floor surface of a room such that the slide member can slide the support member between a first position outside the room, where the care receiver can get on and off the support member, and a second position inside the room, where the care receiver supported by the support member is in a state of being placed inside the room. a rotary table, which is rotatable about an axis parallel to a vertical direction; and a support member, which is configured to support an upper body of a care receiver, characterized by a slide member, being mounted on the rotary table, which is slidable in a horizontal direction with respect to the rotary table, wherein the support member is mounted on the slide member, and the assistance device is configured to be mounted on a floor surface of a room such that the slide member can slide the support member between a first position outside the room, where the care receiver can get on and off the support member, and a second position inside the room, where the care receiver supported by the support member is in a state of being placed inside the room.
An aircraft power system comprising: an internal combustion engine; a main air mover operatively connected to the internal combustion engine to provide thrust to an aircraft; a turbocharger including: a compressor for supplying combustion air to the internal combustion engine; a turbine for receiving an exhaust flow from the internal combustion engine and converting energy of the exhaust flow into rotational power; and a turbo shaft operatively connecting the turbine to the compressor to transfer at least some of the rotational power to the compressor; a generator operatively connected to the turbo shaft to receive at least some of the rotational power from the turbo shaft for generating electrical power; and at least one electrically powered air-mover electrically connected to the generator to receive at least some of the electrical power and to produce thrust in cooperation with the main air mover, characterised in that the at least one electrically powered air-mover is electrically connected to the generator via a direct electrical connection that excludes power converters. an internal combustion engine; a main air mover operatively connected to the internal combustion engine to provide thrust to an aircraft; a turbocharger including: a compressor for supplying combustion air to the internal combustion engine; a turbine for receiving an exhaust flow from the internal combustion engine and converting energy of the exhaust flow into rotational power; and a turbo shaft operatively connecting the turbine to the compressor to transfer at least some of the rotational power to the compressor; a compressor for supplying combustion air to the internal combustion engine; a turbine for receiving an exhaust flow from the internal combustion engine and converting energy of the exhaust flow into rotational power; and a turbo shaft operatively connecting the turbine to the compressor to transfer at least some of the rotational power to the compressor; a generator operatively connected to the turbo shaft to receive at least some of the rotational power from the turbo shaft for generating electrical power; and at least one electrically powered air-mover electrically connected to the generator to receive at least some of the electrical power and to produce thrust in cooperation with the main air mover, characterised in that the at least one electrically powered air-mover is electrically connected to the generator via a direct electrical connection that excludes power converters.
A composition for use in an in vivo skin testing method of diagnosing the presence of latent Mycobacterium tuberculosis (Mtb) infection in immunocompromised persons or persons co-infected with HIV, wherein the composition comprises a cocktail of the two Mtb antigens early secreted antigenic target 6 (ESAT6) and culture filtrate protein 10 (CFP-10).
A fuel cell exhaust assembly configured to exhaust a purge gas from a fuel cell assembly, the fuel cell exhaust assembly comprising: a control valve for controlling the exhaustion of the purge gas, wherein the control valve comprises: a valve body having a valve member therein moveable between a first position and a second position; an inlet port for receiving the purge gas; and an outlet port; wherein the valve member is configured to, in the first position, prevent the purge gas from flowing between the inlet port and the outlet port and, in the second position, allow the flow of purge gas between the inlet port and the outlet port, the valve member being configured to receive liquid thereon, and wherein the valve body includes a drain port adapted and arranged in the valve body to allow the liquid to drain under the force of gravity out of the valve body and from the valve member, the drain port configured to close when the valve member is in the second position. a valve body having a valve member therein moveable between a first position and a second position; an inlet port for receiving the purge gas; and an outlet port; wherein the valve member is configured to, in the first position, prevent the purge gas from flowing between the inlet port and the outlet port and, in the second position, allow the flow of purge gas between the inlet port and the outlet port, the valve member being configured to receive liquid thereon, and wherein the valve body includes a drain port adapted and arranged in the valve body to allow the liquid to drain under the force of gravity out of the valve body and from the valve member, the drain port configured to close when the valve member is in the second position.
Hair clipping device, comprising: - a housing; - a cutting assembly which is arranged on one end of said housing and comprises a stationary blade and a moveable blade that is resiliently biased against the stationary blade, wherein the stationary blade and the moveable blade define a cutting plane between each other, wherein the stationary blade comprises a first recess and the moveable blade comprises a second recess, wherein the first and the second recess (34, 32) are arranged on top of each other; - a motor for driving an eccentric transmission element; and - a coupling element coupled to said eccentric transmission element for translating a movement of said eccentric transmission element into an oscillatory movement of the moveable blade relative to the stationary blade; characterized in that said eccentric transmission element engages the coupling element at at least one engagement point, wherein said at least one engagement point is in at least one operating position during the movement of said eccentric transmission element within said cutting plane, and wherein the coupling element is arranged in said first and second recess (34, 32). - a housing; - a cutting assembly which is arranged on one end of said housing and comprises a stationary blade and a moveable blade that is resiliently biased against the stationary blade, wherein the stationary blade and the moveable blade define a cutting plane between each other, wherein the stationary blade comprises a first recess and the moveable blade comprises a second recess, wherein the first and the second recess (34, 32) are arranged on top of each other; - a motor for driving an eccentric transmission element; and - a coupling element coupled to said eccentric transmission element for translating a movement of said eccentric transmission element into an oscillatory movement of the moveable blade relative to the stationary blade;
A method of preparing a controlled release fertilizer by coating a granular release fertilizer substrate with a coating material, the method comprising: (a) adding a granular fertilizer substrate into a mixing device with stirring elements; (b) adding a coating material into the mixing device; (c) alternating the stirring elements in a forward and reverse rotational direction until the granular fertilizer substrate is coated with the coating material; wherein, the stirring elements operated in a reverse rotational direction for a time shorter than the time the stirring elements are operated in the forward direction; wherein the operation of the stirring elements in the reverse direction is for a time sufficient to substantially prevent agglomeration of coating materials and fertilizer having a tendency to agglomerate on the stirring elements; wherein the coating material is a thermoset resin. (a) adding a granular fertilizer substrate into a mixing device with stirring elements; (b) adding a coating material into the mixing device; (c) alternating the stirring elements in a forward and reverse rotational direction until the granular fertilizer substrate is coated with the coating material;