mhurhangee/ep-ind-claims huggingface dataset:
A gain medium amplifier, the gain medium amplifier comprising: a flat neodymium-doped yttrium aluminum garnet (Nd:YAG) crystal, having an average thickness of less than 5 millimeters, the flat Nd:YAG crystal comprising: a top surface through which pump light having a first frequency may enter the flat Nd:YAG crystal, the first frequency being between 750 nm and 850nm, wherein the top surface has a rectangular shape having a longer first dimension and a shorter second dimension orthogonal to the first dimension, and wherein the longer first dimension is at least 5 times longer than the average thickness of the flat Nd:YAG crystal; a bottom surface opposing the top surface; a first side surface, through which incoming laser light having a second frequency may enter the flat Nd:YAG crystal, the second frequency being between 1,300nm and 1,400nm; and a second side surface opposite the first side surface through which outgoing laser light having the second frequency may be emitted from the flat Nd:YAG crystal after being internally reflected by the first and second side surfaces of the flat Nd:YAG crystal, wherein a power of the outgoing laser light is at least 4 times stronger than a power of the incoming laser light after being amplified using the pump light, wherein the first and second side surfaces correspond to the longer sides of the rectangular shape of the top surface of the flat Nd:YAG crystal. a top surface through which pump light having a first frequency may enter the flat Nd:YAG crystal, the first frequency being between 750 nm and 850nm, wherein the top surface has a rectangular shape having a longer first dimension and a shorter second dimension orthogonal to the first dimension, and wherein the longer first dimension is at least 5 times longer than the average thickness of the flat Nd:YAG crystal; a bottom surface opposing the top surface; a first side surface, through which incoming laser light having a second frequency may enter the flat Nd:YAG crystal, the second frequency being between 1,300nm and 1,400nm; and a second side surface opposite the first side surface through which outgoing laser light having the second frequency may be emitted from the flat Nd:YAG crystal after being internally reflected by the first and second side surfaces of the flat Nd:YAG crystal, wherein a power of the outgoing laser light is at least 4 times stronger than a power of the incoming laser light after being amplified using the pump light, wherein the first and second side surfaces correspond to the longer sides of the rectangular shape of the top surface of the flat Nd:YAG crystal.
A mobile terminal comprising: a display; a substrate disposed on the display, the substrate having an active area and an inactive area located along the edge of the active area; a touch sensor (210, 220) provided to the display area of the display, the touch sensor including a first active area having a plurality of touch channels for detecting a touch and a second active area having a plurality of touch channels for detecting a touch; a plurality of first signal lines disposed on the inactive area of the substrate, the first signal lines respectively extending from the touch channels of the first active area along a first direction of the substrate; a plurality of second signal lines disposed on the inactive area of the substrate, the second signal lines respectively extending from the touch channels of the second active area along a second direction different from the first direction of the substrate; a control unit electrically connected to each of the signal lines; a first drive circuit unit disposed one side of the substrate and connecting the first signal lines to the control unit electrically; and a second drive circuit unit disposed on the opposite side of the substrate and connecting the second signal lines to the control unit electrically, wherein the first direction and the second direction are set to oppose each other. a display; a substrate disposed on the display, the substrate having an active area and an inactive area located along the edge of the active area; a touch sensor (210, 220) provided to the display area of the display, the touch sensor including a first active area having a plurality of touch channels for detecting a touch and a second active area having a plurality of touch channels for detecting a touch; a plurality of first signal lines disposed on the inactive area of the substrate, the first signal lines respectively extending from the touch channels of the first active area along a first direction of the substrate; a plurality of second signal lines disposed on the inactive area of the substrate, the second signal lines respectively extending from the touch channels of the second active area along a second direction different from the first direction of the substrate; a control unit electrically connected to each of the signal lines; a first drive circuit unit disposed one side of the substrate and connecting the first signal lines to the control unit electrically; and a second drive circuit unit disposed on the opposite side of the substrate and connecting the second signal lines to the control unit electrically, wherein the first direction and the second direction are set to oppose each other.
Sensor for a thermal flowmeter, comprising: A sensor cup, wherein said sensor cup has a first longitudinal axis and a lateral surface as well as an open end and a closed second end with a cup floor, wherein the first longitudinal axis cuts the first end and the second end, particularly perpendicularly, and wherein a surface of the cup floor, which is oriented in the direction of the first end, is essentially flat; and at least a sensor element, wherein the sensor element is arranged in the sensor cup in the area of the cup floor; and a solder layer, which is designed to thermally connect the sensor element with the sensor floor, wherein at least one projection projects out of the floor surface, wherein said projection is designed to position the sensor element in a defined manner in relation to the floor surface, characterized in that the sensor element is in direct contact to the at least one projection, wherein the sensor cup has an inner diameter in relation to a cross-sectional area perpendicular to the first longitudinal axis, wherein the cross-sectional area contains a highest point of a projection in the direction of the open end, wherein the at least one projection presents a distance in relation to the first longitudinal axis, wherein said distance is less than a third of the value of the inner diameter, wherein the at least one projection is produced by stamping the cup floor using a die, wherein the die features an indentation, said indentation being the inverse of the projection. A sensor cup, wherein said sensor cup has a first longitudinal axis and a lateral surface as well as an open end and a closed second end with a cup floor, wherein the first longitudinal axis cuts the first end and the second end, particularly perpendicularly, and wherein a surface of the cup floor, which is oriented in the direction of the first end, is essentially flat; and at least a sensor element, wherein the sensor element is arranged in the sensor cup in the area of the cup floor; and a solder layer, which is designed to thermally connect the sensor element with the sensor floor, wherein at least one projection projects out of the floor surface, wherein said projection is designed to position the sensor element in a defined manner in relation to the floor surface, characterized in that the sensor element is in direct contact to the at least one projection, wherein the sensor cup has an inner diameter in relation to a cross-sectional area perpendicular to the first longitudinal axis, wherein the cross-sectional area contains a highest point of a projection in the direction of the open end, wherein the at least one projection presents a distance in relation to the first longitudinal axis, wherein said distance is less than a third of the value of the inner diameter, wherein the at least one projection is produced by stamping the cup floor using a die, wherein the die features an indentation, said indentation being the inverse of the projection.
A defibrillator, comprising: a first battery configured to provide a discharge rate to a capacitor suitable for generating a defibrillator shock; a power source; and a power control module (14, 30) coupled to the first battery and the power source and configured to selectively enable connections between the first battery and the power source and from each of the first battery and the power source to the capacitor, said defibrillator being characterized in that the power source has a larger capacity than the first battery, in that the power control module (14, 30) is configured to selectively enable said connections based on feedback from the capacitor, from the first battery and from the power source to adjust a configuration of energy sources to increase a charge rate of the capacitor. a first battery configured to provide a discharge rate to a capacitor suitable for generating a defibrillator shock; a power source; and a power control module (14, 30) coupled to the first battery and the power source and configured to selectively enable connections between the first battery and the power source and from each of the first battery and the power source to the capacitor, said defibrillator being characterized in that the power source has a larger capacity than the first battery, in that the power control module (14, 30) is configured to selectively enable said connections based on feedback from the capacitor, from the first battery and from the power source to adjust a configuration of energy sources to increase a charge rate of the capacitor. the power control module (14, 30) is configured to selectively enable said connections based on feedback from the capacitor, from the first battery and from the power source to adjust a configuration of energy sources to increase a charge rate of the capacitor.
Lightweight board - with an upper cover plate extending parallel to a longitudinal plane, - with a lower cover plate extending parallel to the longitudinal plane, - with a light central layer extending between the upper cover plate and the lower cover plate, and - with at least one supporting edge which extends from the side of the upper cover plate facing the central layer to the side of the lower cover plate facing the central layer and is arranged in the direction of the longitudinal plane adjacent to the central layer, the at least one supporting edge having a plurality of separate individual layers (3a, 3b, 3c, 3d, 3e), characterized in that a plurality of recesses (7a, 7b, 7c) are provided on the inside in each case in the upper and/or lower cover plate (2a, 2b), wherein each recess (7a, 7b, 7c) of the respective cover plate (2a, 2b) accommodates at least one individual layer (3a, 3b, 3c) of the supporting edge and wherein the respective individual layer (3a, 3b, 3c) finds a stop in the respective recess (7a, 7b, 7c) towards the centre of the lightweight panel. - with an upper cover plate extending parallel to a longitudinal plane, - with a lower cover plate extending parallel to the longitudinal plane, - with a light central layer extending between the upper cover plate and the lower cover plate, and - with at least one supporting edge which extends from the side of the upper cover plate facing the central layer to the side of the lower cover plate facing the central layer and is arranged in the direction of the longitudinal plane adjacent to the central layer,
A turbine vane for a gas turbine engine, comprising: a vane outer surface exposed to flowpath gases of the gas turbine engine; and a cooling channel (76; 76a; 76b) disposed in the turbine vane, wherein the cooling channel is a skin core cooling passage formed between the vane outer surface and a main body supply cavity, characterised in that the turbine vane further comprises: at least one channel rib disposed in the cooling channel extending across the cooling channel from a channel inner surface to a channel outer surface, the at least one channel rib extending between a vane leading edge and a vane trailing edge in a substantially axial direction; a cooling slot branching from and extending from the cooling channel to a slot outlet at the vane outer surface, the slot outlet having a radial width greater than an axial length; and a slot teardrop extending across the cooling slot from a slot inner surface to a slot outer surface. a vane outer surface exposed to flowpath gases of the gas turbine engine; and a cooling channel (76; 76a; 76b) disposed in the turbine vane, wherein the cooling channel is a skin core cooling passage formed between the vane outer surface and a main body supply cavity, characterised in that the turbine vane further comprises: at least one channel rib disposed in the cooling channel extending across the cooling channel from a channel inner surface to a channel outer surface, the at least one channel rib extending between a vane leading edge and a vane trailing edge in a substantially axial direction; a cooling slot branching from and extending from the cooling channel to a slot outlet at the vane outer surface, the slot outlet having a radial width greater than an axial length; and a slot teardrop extending across the cooling slot from a slot inner surface to a slot outer surface. at least one channel rib disposed in the cooling channel extending across the cooling channel from a channel inner surface to a channel outer surface, the at least one channel rib extending between a vane leading edge and a vane trailing edge in a substantially axial direction; a cooling slot branching from and extending from the cooling channel to a slot outlet at the vane outer surface, the slot outlet having a radial width greater than an axial length; and a slot teardrop extending across the cooling slot from a slot inner surface to a slot outer surface.
A linear cutting stapler, comprising an upper jaw and a lower jaw capable of being closed or open relative to each other, said upper jaw includes an anvil and said lower jaw includes a staple cartridge frame; the proximal end of said anvil is provided with a positioning pin, and the proximal end of said staple cartridge frame is configured with a pin slot; or, the proximal end of said staple cartridge frame is provided with a positioning pin, and the proximal end of said anvil is configured with a pin slot; said linear cutting stapler being characterized in that said pin slot comprises a first slot position and a second slot position which are engaged with said positioning pin, and, said first slot position and said second slot position are partially combined and arranged in an angle with each other; when said upper jaw and said lower jaw rotate from closed state to open state with said positioning pin as a support shaft, said positioning pin actively rotates from said first slot position to said second slot position in which it gets stuck, such that the positioning pin can not escape from the pin slot.
Muffler assembly, including a ventilation duct and a muffler for a ventilation system, for silencing sound which propagates along the interior of the ventilation duct passed through by air, wherein the muffler is able to be integrated in the ventilation duct specified for the routing of the airflow, or forms a sub-portion of the ventilation duct, respectively, and the muffler has at least two muffler segments (2, 3) which are disposed so as to be mutually spaced apart so as to, between the mutually facing surfaces (2a, 3a) of the two segments (2, 3), form a muffler duct which extends from the inlet to the outlet of the muffler, wherein the two segments (2, 3) are mounted to be movable relative to one another in order to be able to mutually converge or diverge at least sub-regions of the surfaces (2a, 3a) of the segments (2, 3), characterized in that the muffler has a measuring element which is disposed on the inlet or the outlet of the muffler and is specified for determining the volumetric flow and/or the mass flow of the air flowing through the muffler and the ventilation duct; in that said muffler has a closed-loop controller which, based on the volumetric flow and/or mass flow of the air determined by the measuring element, is specified to act on an actuator in order to modify the position of the first segment and/or of the second segment; and in that the ventilation duct by means of a flexible duct portion is connected in an airtight manner to an end of the second segment that moves in a reciprocating manner during the closed-loop control operation. the muffler has at least two muffler segments (2, 3) which are disposed so as to be mutually spaced apart so as to, between the mutually facing surfaces (2a, 3a) of the two segments (2, 3), form a muffler duct which extends from the inlet to the outlet of the muffler, wherein the two segments (2, 3) are mounted to be movable relative to one another in order to be able to mutually converge or diverge at least sub-regions of the surfaces (2a, 3a) of the segments (2, 3), characterized in that the muffler has a measuring element which is disposed on the inlet or the outlet of the muffler and is specified for determining the volumetric flow and/or the mass flow of the air flowing through the muffler and the ventilation duct; in that said muffler has a closed-loop controller which, based on the volumetric flow and/or mass flow of the air determined by the measuring element, is specified to act on an actuator in order to modify the position of the first segment and/or of the second segment; and in that the ventilation duct by means of a flexible duct portion is connected in an airtight manner to an end of the second segment that moves in a reciprocating manner during the closed-loop control operation.
An anchoring system comprising an anchoring device and a prosthetic heart valve support and a prosthetic heart valve connected to the prosthetic heart valve support, wherein the anchoring device is for anchoring the prosthetic heart valve support supporting the prosthetic heart valve inside a heart, said anchoring device comprising an extraventricular part designed to be positioned inside an atrium or an artery, a ventricular part designed to be positioned inside a ventricle, wherein said ventricular part comprises a double wall composed of an outer wall and an inner wall spaced apart at the level where the prosthetic heart valve is intended to be inserted, and characterized in that the anchoring device comprises a predefined V-shaped groove formed between the extraventricular part and the ventricular part and wherein the prosthetic heart valve support is positioned inside the anchoring device and wherein the prosthetic heart valve support presents a higher stiffness than the stiffness of the anchoring device wherein the anchoring device has the flexibility to adapt and conform to the variably-shaped native heart valve anatomy while mechanically isolating the prosthetic heart valve fixed within the prosthetic heart valve support, and wherein the V-shaped groove exhibits an acute angle ranging from 5° to 50°.
A pool wall pillar for erecting a swimming pool, comprising - at least one vertical support, wherein each vertical support has a support profile with a support height and a support width in the direction of the side facing away from the pool, - at least one base support, which at least one base support is designed to project with respect to the support width at least on one side and is connected to the vertical support, - optionally at least one horizontal element, which at least one horizontal element, for stiffening two or multiple adjacently arranged vertical supports, is designed so it can be coupled to the vertical supports, - wherein the vertical support has a plurality of receiving means at least along the support height, - wherein at least one holding element and/or the optional at least one horizontal element each have at least one coupling means, which is complementary in form and function to the receiving means of the vertical support, and in the coupling position on the vertical support, the at least one coupling means is, in each case, formed on a side facing the vertical support, and - wherein the holding element in its coupling position on the vertical support has, at least on a side facing away from the pool, a receiving arm protruding with respect to the support width, with a holding element upper side for supporting at least one pool wall section, which comprises a pool edge, in a vertical and height-adjustable manner, characterized in that - the receiving means is designed as an opening, and the coupling means is designed as a latching element and/or an extension, or - the receiving means is designed as a latching element and/or an extension, and the coupling means is designed as an opening. - at least one vertical support, - at least one base support, - optionally at least one horizontal element, - wherein the vertical support has a plurality of receiving means at least along the support height, - wherein at least one holding element and/or the optional at least one horizontal element each have at least one coupling means, which is complementary in form and function to the receiving means of the vertical support, and in the coupling position on the vertical support, the at least one coupling means is, in each case, formed on a side facing the vertical support, and - wherein the holding element in its coupling position on the vertical support has, at least on a side facing away from the pool, a receiving arm protruding with respect to the support width, with a holding element upper side for supporting at least one pool wall section, which comprises a pool edge, in a vertical and height-adjustable manner, - the receiving means is designed as an opening, and the coupling means is designed as a latching element and/or an extension, - the receiving means is designed as a latching element and/or an extension, and the coupling means is designed as an opening.
A rotating wing aircraft comprising: at least one rotor blade; a primary gas-flow production means for providing a flow of gas in an internal passage of the at least one rotor blade; and a reserve gas-flow production means for providing a flow of gas in the internal passage of the at least one rotor blade wherein the reserve gas-flow production means comprises a gas outlet means for providing a flow of gas out of the reserve gas-flow production means, wherein the gas outlet means is adapted to deliver a pulsed flow of gas out of the reserve gas-flow production means.
A method of rinsing materialographic samples including, in an arbitrary order, the steps of: - arranging one or more materialographic samples to be rinsed in a sample holder, - coupling the sample holder to a rotation head of a rinsing apparatus, - placing the sample holder coupled to the rotation head in a vessel of the rinsing apparatus, followed by, in a sequential order, the steps of: - commencing filling the vessel with a rinsing liquid by injecting rinsing liquid through an inlet disposed in the bottom of the vessel thereby submerging the samples into the rinsing liquid, - subjecting the rinsing liquid and the materialographic samples to ultrasound, and - rotating the sample holder incl. materialographic samples relative to the vessel wherein the step of subjecting the rinsing liquid and the materialographic samples to ultrasound is maintained at least during filling of the vessel with rinsing liquid. - arranging one or more materialographic samples to be rinsed in a sample holder, - coupling the sample holder to a rotation head of a rinsing apparatus, - placing the sample holder coupled to the rotation head in a vessel of the rinsing apparatus, - commencing filling the vessel with a rinsing liquid by injecting rinsing liquid through an inlet disposed in the bottom of the vessel thereby submerging the samples into the rinsing liquid, - subjecting the rinsing liquid and the materialographic samples to ultrasound, and - rotating the sample holder incl. materialographic samples relative to the vessel