mhurhangee/ep-ind-claims huggingface dataset:
A system for building a three dimensional green compact on a building tray, the system comprising: a printing station configured to print a mask pattern (150, 155) on a building surface, wherein the mask pattern (150, 155) is formed with a solidifiable ink, wherein the solidifiable ink is deposited on the building surface in a liquid state and solidified on the building surface; a powder delivery station (10, 20) configured to apply a layer of powder material on the mask pattern (150, 155) and comprises: a powder hopper configured to store the powder material; a dispensing tip configured to dispense the powder material; a powder dispensing tray configured to receive the powder material from the dispensing tip, wherein the powder dispensing tray includes a plurality of troughs configured to receive the powder material; an actuator configured to deliver the powder material on the powder dispensing tray to the building surface; and a roller configured to spread the powder material; a die compaction station for compacting the layer of powder material and the mask pattern (150, 155); and a stage configured to repeatedly advance the building tray to each of the printing station, the powder delivery station (10, 20) and the die compaction station to build a plurality of layers that together form the three dimensional green compact. a printing station configured to print a mask pattern (150, 155) on a building surface, wherein the mask pattern (150, 155) is formed with a solidifiable ink, wherein the solidifiable ink is deposited on the building surface in a liquid state and solidified on the building surface; a powder delivery station (10, 20) configured to apply a layer of powder material on the mask pattern (150, 155) and comprises: a powder hopper configured to store the powder material; a dispensing tip configured to dispense the powder material; a powder dispensing tray configured to receive the powder material from the dispensing tip, wherein the powder dispensing tray includes a plurality of troughs configured to receive the powder material; an actuator configured to deliver the powder material on the powder dispensing tray to the building surface; and a roller configured to spread the powder material; a powder hopper configured to store the powder material; a dispensing tip configured to dispense the powder material; a powder dispensing tray configured to receive the powder material from the dispensing tip, wherein the powder dispensing tray includes a plurality of troughs configured to receive the powder material; an actuator configured to deliver the powder material on the powder dispensing tray to the building surface; and a roller configured to spread the powder material; a die compaction station for compacting the layer of powder material and the mask pattern (150, 155); and a stage configured to repeatedly advance the building tray to each of the printing station, the powder delivery station (10, 20) and the die compaction station to build a plurality of layers that together form the three dimensional green compact.
A gas turbine combustion chamber with a housing, a flame tube received therein and a perforated plate which at least partly surrounds the same, which at a face end (3.1) is fastened to the housing, wherein the perforated plate on its other face end (3.2) is likewise fastened to the housing, wherein the housing is an outer housing of the combustion chamber and forms an annular chamber, which is formed in multiple parts from plates that have been welded together, wherein the gas turbine combustion chamber at a face end (3.2) comprises a flange for fastening to a turbine housing, characterized in that the gas turbine combustion chamber at the other face end (3.1) comprises an annular plate of a swirl generator and the perforated plate is formed in one piece and fastened via weld seams on the one hand at both face ends (3.2, 3.2) with the annular plate and the flange respectively and on the other hand fastened to the annular chamber so that its two face end regions (3.1, 3.2) form integral parts of the outer housing and loads of the housing are absorbed and transmitted by the perforated plate.
A wind turbine blade comprising: a blade shell that extends in a spanwise direction from a root end to a tip end, and in a chordwise direction from a leading edge to a trailing edge, the blade shell comprising a spar cap formed from a plurality of substantially planar strips of reinforcing material, the strips being arranged in a plurality of stacks extending longitudinally in the spanwise direction and arranged side-by-side in the chordwise direction, whereby in each stack an uppermost strip defines an upper surface of the stack, a lowermost strip defines a lower surface of the stack, and longitudinal edges of the stacked strips define side surfaces of the stack; a retaining clip comprising a plurality of side-by-side substantially U-shaped sections each comprising a pair of mutually-spaced side portions defining a stack-receiving region therebetween, the side portions being joined by a bridging portion; wherein at least some of the stacks are located in the stack-receiving regions of the retaining clip, such that the side portions of the U-shaped sections abut side surfaces of the stacks, and each U-shaped section of the retaining clip is inverted with respect to its neighbouring U-shaped section(s) such that the bridging portions of the respective U-shaped sections extend alternately across the upper and lower surfaces of the stacks in the chordwise direction. a blade shell that extends in a spanwise direction from a root end to a tip end, and in a chordwise direction from a leading edge to a trailing edge, the blade shell comprising a spar cap formed from a plurality of substantially planar strips of reinforcing material, the strips being arranged in a plurality of stacks extending longitudinally in the spanwise direction and arranged side-by-side in the chordwise direction, whereby in each stack an uppermost strip defines an upper surface of the stack, a lowermost strip defines a lower surface of the stack, and longitudinal edges of the stacked strips define side surfaces of the stack; a retaining clip comprising a plurality of side-by-side substantially U-shaped sections each comprising a pair of mutually-spaced side portions defining a stack-receiving region therebetween, the side portions being joined by a bridging portion; wherein at least some of the stacks are located in the stack-receiving regions of the retaining clip, such that the side portions of the U-shaped sections abut side surfaces of the stacks, and each U-shaped section of the retaining clip is inverted with respect to its neighbouring U-shaped section(s) such that the bridging portions of the respective U-shaped sections extend alternately across the upper and lower surfaces of the stacks in the chordwise direction.
A percussion instrument (10, 80, 90, 100), comprising: a case (11, 81, 91, 110), containing a struck surface part (14, 82, 93, 113) that vibrates to produce a musical sound when struck is disposed on at least a surface of the case (11, 81, 91, 110); a percussion sensor (41, 42) detecting striking corresponding to a struck position on the struck surface part (14, 82, 93, 113); a sound source device generating a musical signal corresponding to the struck position according to a detection result of the percussion sensor (41, 42); and a sounding body (60, 83, 120) producing an electronic musical sound based on the musical signal generated by the sound source device, wherein the sounding body (60, 83, 120) is disposed in the case (11, 81, 91, 110), and the percussion instrument (10, 80, 90, 100) being characterized in that the percussion sensor (41, 42) comprises a first sensor that detects a vibration of the struck surface part (14, 82, 93, 113) and a second sensor that detects a vibration of a part different from the struck surface part (14, 82, 93, 113) of the case (11, 81, 91, 110), and the struck position is determined based on an output result of the first sensor and an output result of the second sensor. a case (11, 81, 91, 110), containing a struck surface part (14, 82, 93, 113) that vibrates to produce a musical sound when struck is disposed on at least a surface of the case (11, 81, 91, 110); a percussion sensor (41, 42) detecting striking corresponding to a struck position on the struck surface part (14, 82, 93, 113); a sound source device generating a musical signal corresponding to the struck position according to a detection result of the percussion sensor (41, 42); and a sounding body (60, 83, 120) producing an electronic musical sound based on the musical signal generated by the sound source device, wherein the sounding body (60, 83, 120) is disposed in the case (11, 81, 91, 110), and the percussion instrument (10, 80, 90, 100) being characterized in that the percussion sensor (41, 42) comprises a first sensor that detects a vibration of the struck surface part (14, 82, 93, 113) and a second sensor that detects a vibration of a part different from the struck surface part (14, 82, 93, 113) of the case (11, 81, 91, 110), and the struck position is determined based on an output result of the first sensor and an output result of the second sensor.
A priming device comprising: a housing defining a chamber and an inlet port, wherein the chamber and the inlet port are fluidly coupled, the housing comprising: an opening extending from within the chamber to outside the housing and configured to permit a gas to exit the chamber; a valve extending from the inlet port toward the chamber, wherein in a sealed position the valve seals the inlet port, and in an open position, the valve does not seal the inlet port; and a cover body having an open first end, an open second end, and an axis between the first end and the second end, the first end configured to couple with a male luer connector, the second end configured to couple with the inlet port of the housing, wherein the cover body is moveable relative to the housing. a housing defining a chamber and an inlet port, wherein the chamber and the inlet port are fluidly coupled, the housing comprising: an opening extending from within the chamber to outside the housing and configured to permit a gas to exit the chamber; a valve extending from the inlet port toward the chamber, wherein in a sealed position the valve seals the inlet port, and in an open position, the valve does not seal the inlet port; and an opening extending from within the chamber to outside the housing and configured to permit a gas to exit the chamber; a valve extending from the inlet port toward the chamber, wherein in a sealed position the valve seals the inlet port, and in an open position, the valve does not seal the inlet port; and a cover body having an open first end, an open second end, and an axis between the first end and the second end, the first end configured to couple with a male luer connector, the second end configured to couple with the inlet port of the housing, wherein the cover body is moveable relative to the housing.
A turbo generator rotor assembly, comprising: a generator; first and second bearings on a compressor-side and a turbine-side of the generator; and a combination seal configuration in which leakage from the compressor cools the first bearing, the generator and the second bearing; and characterised in that the combination seal configuration is configured such that at least a portion of the leakage from the compressor flows through the first bearing, around the generator and through the second bearing and is redirected as egress from the second bearing to a pump. a generator; first and second bearings on a compressor-side and a turbine-side of the generator; and a combination seal configuration in which leakage from the compressor cools the first bearing, the generator and the second bearing; and characterised in that the combination seal configuration is configured such that at least a portion of the leakage from the compressor flows through the first bearing, around the generator and through the second bearing and is redirected as egress from the second bearing to a pump.
A server rack system comprising: a server rack stand, having a computer support surface, defining: (i) a cool reservoir void having a cool inlet configured to bring cooled air from a distance airflow source in the rack stand and a cool outlet configured to distribute the cooled air to one or more computers; and (ii) an exhaust reservoir void, having an exhaust inlet configured to urge the air exhausted from said computer back into the rack stand on a distant portion of the computer, and exhaust outlet configured to return the exhaust gas to a heat reservoir; wherein the exhaust reservoir void is adjacent to said cool reservoir void, characterized in that the server rack system further comprises: (iii) a demarcation wall separating said cool reservoir void from said exhaust reservoir void; a Peltier generator complex, supported by said demarcation wall contacting both said cool reservoir void and said exhaust reservoir void; and a rack circuit, in electrical communication with said Peltier generator complex, adapted for the transmission of current from said Peltier generator complex to a load. a server rack stand, having a computer support surface, defining: (i) a cool reservoir void having a cool inlet configured to bring cooled air from a distance airflow source in the rack stand and a cool outlet configured to distribute the cooled air to one or more computers; and (ii) an exhaust reservoir void, having an exhaust inlet configured to urge the air exhausted from said computer back into the rack stand on a distant portion of the computer, and exhaust outlet configured to return the exhaust gas to a heat reservoir; wherein the exhaust reservoir void is adjacent to said cool reservoir void, characterized in that the server rack system further comprises: (iii) a demarcation wall separating said cool reservoir void from said exhaust reservoir void; a Peltier generator complex, supported by said demarcation wall contacting both said cool reservoir void and said exhaust reservoir void; and a rack circuit, in electrical communication with said Peltier generator complex, adapted for the transmission of current from said Peltier generator complex to a load.
A computer-implemented method, comprising identifying a graphical user interface including a container having a first child element and a second child element, wherein the first child element and the second child element have different shapes; providing for display the container on the graphical user interface in a first state, the first state including display of the first child element, but not the second child element; applying a transition to the container to effectuate a state change of the container from the first state to a second state as the container moves within the graphical user interface, the second state including display of the second child element, but not the first child element, applying the transition including applying a crossfade to the container to graphically fade the first child element to the second child element as the container moves within the graphical user interface; and after applying the transition, providing the container for display within the graphical user interface in the second state. identifying a graphical user interface including a container having a first child element and a second child element, wherein the first child element and the second child element have different shapes; providing for display the container on the graphical user interface in a first state, the first state including display of the first child element, but not the second child element; applying a transition to the container to effectuate a state change of the container from the first state to a second state as the container moves within the graphical user interface, the second state including display of the second child element, but not the first child element, applying the transition including applying a crossfade to the container to graphically fade the first child element to the second child element as the container moves within the graphical user interface; and after applying the transition, providing the container for display within the graphical user interface in the second state.
Electric motor for an elevator drive with a motor housing and a number of motor windings connected to at least one terminal (76, 102), wherein the motor housing comprises ribs (72, 100) or webs, wherein two ribs (72, 100) or webs form a space between one another, in which the at least one terminal (76, 102), the connections of the motor windings and connecting cables are received.
An antigen binding receptor comprising an anchoring transmembrane domain and an extracellular domain comprising an antigen binding moiety, wherein the antigen binding moiety is capable of specific binding to a mutated fragment crystallizable (Fc) domain but not capable of specific binding to the non-mutated parent Fc domain, wherein the antigen binding moiety is a scFv, wherein the non-mutated parent Fc domain is human IgG1 Fc domain, wherein the mutated Fc domain is human IgG1 Fc domain comprising only the amino acid mutations L234A, L235A, and P329G, and wherein the antigen binding receptor further comprises at least one stimulatory signaling domain and optionally at least one co-stimulatory signaling domain.
A biologically active food additive (additive, BAA) for use in prophylaxis of erectile dysfunction in men which is characterized by the content of L-Arginine and drone brood at the following correspondents of ingredients, in mass percent L-Arginine 50 - 96.2%, Drone brood 3.8 - 50%.
A cask cooling system for a cask containing spent nuclear fuel, the system comprising: the cask comprising a longitudinal axis and a body defining an internal longitudinal storage cavity configured to hold the spent nuclear fuel which generates heat; an annular cooling jacket extending circumferentially around an external surface of the body; the cooling jacket including an internal cooling medium cavity configured to hold a cooling medium having a temperature lower than the cask, the cooling medium providing an external heat sink for absorbing heat emitted by the spent nuclear fuel through the external surface of the cask; characterised in that during use of the cask cooling system the cooling medium is dry ice in pellet or block form. the cask comprising a longitudinal axis and a body defining an internal longitudinal storage cavity configured to hold the spent nuclear fuel which generates heat; an annular cooling jacket extending circumferentially around an external surface of the body; the cooling jacket including an internal cooling medium cavity configured to hold a cooling medium having a temperature lower than the cask, the cooling medium providing an external heat sink for absorbing heat emitted by the spent nuclear fuel through the external surface of the cask; characterised in that during use of the cask cooling system the cooling medium is dry ice in pellet or block form.
A liner for a ski boot, said liner comprising a tongue comprising: a. an outer generally stiff layer, said layer being substantially saddle-shaped; b. an inner padding layer for providing contact to a dorsal surface of a foot, the inner padding layer having at least a first portion and a second portion, wherein the second portion is arranged to cover at least a part of a dorsalis pedis artery on the dorsal surface of the foot, wherein the second portion is a cavity or provided in a material that is softer than the material of the first portion; and c. a support layer arranged outside the outer generally stiff layer, the support layer at least partially overlapping the second portion of the inner padding layer. a. an outer generally stiff layer, said layer being substantially saddle-shaped; b. an inner padding layer for providing contact to a dorsal surface of a foot, the inner padding layer having at least a first portion and a second portion, wherein the second portion is arranged to cover at least a part of a dorsalis pedis artery on the dorsal surface of the foot, wherein the second portion is a cavity or provided in a material that is softer than the material of the first portion; and c. a support layer arranged outside the outer generally stiff layer, the support layer at least partially overlapping the second portion of the inner padding layer.
A chemical looping combustion method for at least one hydrocarbon feed in at least one distinct fluidized bed reduction reaction zone (i) and at least one distinct fluidized bed oxidation reaction zone (i+1), wherein the circulation of the solid particles of active mass between each or part of the reaction zones is controlled by means of one or more non-mechanical valves consisting each of a substantially vertical line portion, a substantially horizontal line portion and an elbow connecting the two portions, by transporting the solid particles between two successive reaction zones by: - introducing solid particles coming from reaction zone (i) or (i+1) through the upper end of the substantially vertical line portion of said valve, - injecting a control gas with a given aeration flow rate upstream from the elbow of said valve, - controlling the differential pressure conditions at the terminals of the non-mechanical valve(s) so as to adjust the flow rate of the solid particles in the substantially horizontal line portion of said valve, according to the aeration flow rate, - feeding into the successive reaction zones (i+1) or (i) of the loop the solid particles leaving the non-mechanical valve(s). - introducing solid particles coming from reaction zone (i) or (i+1) through the upper end of the substantially vertical line portion of said valve, - injecting a control gas with a given aeration flow rate upstream from the elbow of said valve, - controlling the differential pressure conditions at the terminals of the non-mechanical valve(s) so as to adjust the flow rate of the solid particles in the substantially horizontal line portion of said valve, according to the aeration flow rate, - feeding into the successive reaction zones (i+1) or (i) of the loop the solid particles leaving the non-mechanical valve(s).