mhurhangee/ep-ind-claims huggingface dataset:
A display device (1000, 1100A, 1100B, 1500, 1800A, 1800B, 1900) comprising: a waveguide assembly (260, 660, 1012) comprising a waveguide (270, 280, 290, 300, 310, 670, 680, 690) configured to output light to display an image; and an adaptive lens assembly (1004, 1008, 1504, 1508, 1200, 1400) having a major surface facing a major surface of the waveguide, characterized in that the adaptive lens assembly comprises a waveplate lens (1212, 1308, 1412, 1412a, 1412b); and a switchable waveplate assembly comprising: a first non-liquid crystal quarter-wave plate and a second non-liquid crystal quarter-wave plate defining a volume therebetween, each of the first and second non-liquid crystal quarter-wave plates formed of a pliable material suitable for roll-to-roll manufacturing of the adaptive lens assembly; and a liquid crystal layer (1214, 1414) disposed in the volume between the first quarter-wave plate and the second quarter-wave plate, wherein liquid crystal molecules of the liquid crystal layer have selectively switchable orientations. a waveguide assembly (260, 660, 1012) comprising a waveguide (270, 280, 290, 300, 310, 670, 680, 690) configured to output light to display an image; and an adaptive lens assembly (1004, 1008, 1504, 1508, 1200, 1400) having a major surface facing a major surface of the waveguide, characterized in that the adaptive lens assembly comprises a waveplate lens (1212, 1308, 1412, 1412a, 1412b); and a switchable waveplate assembly comprising: a first non-liquid crystal quarter-wave plate and a second non-liquid crystal quarter-wave plate defining a volume therebetween, each of the first and second non-liquid crystal quarter-wave plates formed of a pliable material suitable for roll-to-roll manufacturing of the adaptive lens assembly; and a liquid crystal layer (1214, 1414) disposed in the volume between the first quarter-wave plate and the second quarter-wave plate, wherein liquid crystal molecules of the liquid crystal layer have selectively switchable orientations. a waveplate lens (1212, 1308, 1412, 1412a, 1412b); and a switchable waveplate assembly comprising: a first non-liquid crystal quarter-wave plate and a second non-liquid crystal quarter-wave plate defining a volume therebetween, each of the first and second non-liquid crystal quarter-wave plates formed of a pliable material suitable for roll-to-roll manufacturing of the adaptive lens assembly; and a liquid crystal layer (1214, 1414) disposed in the volume between the first quarter-wave plate and the second quarter-wave plate, wherein liquid crystal molecules of the liquid crystal layer have selectively switchable orientations. a first non-liquid crystal quarter-wave plate and a second non-liquid crystal quarter-wave plate defining a volume therebetween, each of the first and second non-liquid crystal quarter-wave plates formed of a pliable material suitable for roll-to-roll manufacturing of the adaptive lens assembly; and a liquid crystal layer (1214, 1414) disposed in the volume between the first quarter-wave plate and the second quarter-wave plate, wherein liquid crystal molecules of the liquid crystal layer have selectively switchable orientations.
An apparatus for filling a container with a liquid which is in particular intended for consumption, comprising a balloon-like body, which is arranged on a holder and which is liquid-tight as well as gas-tight with respect to the liquid, wherein the balloon-like body can be inserted into an opening of the container and the holder is mounted to or in the opening of the container after the complete insertion and wherein, after the insertion, the balloon-like body can be filled and inflated with an expansion medium in such a way that the balloon-like body abuts on the inner jacket surface of the container, wherein the balloon-like body has such a profiling on its outer jacket surface that, in the inflated state of the balloon-like body in the area of the bottom of the container to the area of the upper-side opening of the balloon-like body, continuous channels are formed, in which air located in the container in response to the filling, can stream along, or in which the liquid located in the container in response to the emptying can flow along, wherein the profiling is formed by means of at least three strip-like webs, which are each embodied integrally with the balloon-like body, and which protrude beyond the jacket surface of the balloon-like body and which each extend from the area of the lower bottom to the area of the upper opening, characterised in that in the initial state prior to the inflation, the balloon-like body is folded around the circumference, wherein pleat pockets are formed, wherein the pleat pockets of the pleats extend in the longitudinal direction of the balloon-like body and the webs run in the pleat pockets of the pleats in the initial state of the balloon-like body prior to the inflating.
A method for use with a wireless communication system including an intermediate node, a first node and a second node, the method being for implementing MIMO based network coding at the intermediate node, comprising: receiving first data from the first node; receiving second data from the second node, wherein the first and second data comprise one or more data packets; storing the first data in a first queue and storing the second data in a second queue; performing network coding on at least a portion of the first data from the first queue and at least a portion of the second data from the second queue using a predefined network coding scheme to produce network coded information; transmitting the network coded information to both the first node and the second node using multi-user MIMO; characterized in that the method comprises scheduling transmissions of the one or more packets from the first node and second node to the intermediate node, wherein a higher priority for said scheduling is given to the first node or the second node based on whichever one of the first queue and the second queue has a shorter queue length. receiving first data from the first node; receiving second data from the second node, wherein the first and second data comprise one or more data packets; storing the first data in a first queue and storing the second data in a second queue; performing network coding on at least a portion of the first data from the first queue and at least a portion of the second data from the second queue using a predefined network coding scheme to produce network coded information; transmitting the network coded information to both the first node and the second node using multi-user MIMO;
A clock generator (100, 200, 400, 600), comprising: an oscillator block (102, 202, 402, 602), arranged to provide a first multi-phase (X 1) of multiple phases; a delay circuit (104, 204, 404, 604), arranged to delay at least one of said multiple phases of said first multi-phase clock (X 1) to generate a second multi-phase clock (X 2) of multiple phases whereby each of the multiple phases of said second multi-phase clock (X 2) corresponds to a respective one of the multiple phases of said first multi-phase clock (X 0); and an output block (106, 206, 406, 606), arranged to receive said second multi-phase clock (X 2) and generate a third clock (MUX_OUT) by selecting signals from said multiple phases of said second clock (X 2), wherein said third clock (MUX_OUT) has a non-harmonic relationship with said first clock (X 1), wherein said selecting signals from said multiple phases of said second multi-phase clock (X 2) is operational in response to the third clock (MUX_OUT); characterized in that said oscillator block comprises: a swapping circuit, arranged to output selected phases to the delay circuit by alternately selecting a first set of phases from said multiple phases of said first multi-phase clock and a second set of phases from said multiple phases of said first multi-phase clock. an oscillator block (102, 202, 402, 602), arranged to provide a first multi-phase (X 1) of multiple phases; a delay circuit (104, 204, 404, 604), arranged to delay at least one of said multiple phases of said first multi-phase clock (X 1) to generate a second multi-phase clock (X 2) of multiple phases whereby each of the multiple phases of said second multi-phase clock (X 2) corresponds to a respective one of the multiple phases of said first multi-phase clock (X 0); and an output block (106, 206, 406, 606), arranged to receive said second multi-phase clock (X 2) and generate a third clock (MUX_OUT) by selecting signals from said multiple phases of said second clock (X 2), wherein said third clock (MUX_OUT) has a non-harmonic relationship with said first clock (X 1), a swapping circuit, arranged to output selected phases to the delay circuit by alternately selecting a first set of phases from said multiple phases of said first multi-phase clock and a second set of phases from said multiple phases of said first multi-phase clock.
Wrap-around fin for a missile, comprising two fin surfaces (1a, 1b) forming the wrap-around fin, which are connected to one another at least at certain portions in the edge region and which on the root side are mounted in the region of the outer surface of the missile rotatably about axes lying in the direction of flight and in the rest position lie against the outer surface of the missile, and which after deployment have in the operating position of the wrap-around fin a distance between the inner sides of the fin surfaces that can be predetermined by means of at least one spring-loaded spacing element, wherein a prestressed spreading device for the fin surfaces (1a, 1b) is arranged in the interior space of the wrap-around fin, wherein furthermore - the fin surfaces (1a, 1b) are connected to one another at least in certain places on the front and rear edges (3a, 3b), and - in the state of rest, the at least one spring-loaded spacing element is arranged flat and prestressed between the fin surfaces (1a, 1b) and, after the release of the wrap-around fin from the rest position, goes over into its operating position and, from reaching the operating position, keeps the inner sides of the fin surfaces at the distance corresponding to the aerodynamically effective profiling of the wrap-around fin, characterized - in that the spreading device consists at least of two equally and oppositely preformed leaf springs (7a, 7b), which are connected to one another in the region of a common edge, - in that each spacing element is formed by a flap, which is rotatably mounted in a spring-loaded manner about an axis arranged within the spreading device, wherein the width of the flap corresponds to the distance between the inner sides of the fin surfaces (1a, 1b) in the operating position, and - in that, in the operating position, the flap lies against a resilient stop. - the fin surfaces (1a, 1b) are connected to one another at least in certain places on the front and rear edges (3a, 3b), and - in the state of rest, the at least one spring-loaded spacing element is arranged flat and prestressed between the fin surfaces (1a, 1b) and, after the release of the wrap-around fin from the rest position, goes over into its operating position and, from reaching the operating position, keeps the inner sides of the fin surfaces at the distance corresponding to the aerodynamically effective profiling of the wrap-around fin, - in that the spreading device consists at least of two equally and oppositely preformed leaf springs (7a, 7b), which are connected to one another in the region of a common edge, - in that each spacing element is formed by a flap, which is rotatably mounted in a spring-loaded manner about an axis arranged within the spreading device, wherein the width of the flap corresponds to the distance between the inner sides of the fin surfaces (1a, 1b) in the operating position, and - in that, in the operating position, the flap lies against a resilient stop.
An optical sensor comprising: an optical fiber inscribed with a repeated refraction pattern including overlapping chirped frequency fiber Bragg gratings at multiple locations along the optical fiber such that light reflected from a location on the optical fiber is reflected at multiple frequencies in a range of frequencies, wherein at least two of the inscribed repeated refraction patterns overlap at every measurement point along the entire length of the sensor. an optical fiber inscribed with a repeated refraction pattern including overlapping chirped frequency fiber Bragg gratings at multiple locations along the optical fiber such that light reflected from a location on the optical fiber is reflected at multiple frequencies in a range of frequencies, wherein at least two of the inscribed repeated refraction patterns overlap at every measurement point along the entire length of the sensor.
A packaging assembly comprising - two separate opposite outer panels (1, 2) composed of rigid material, each said outer panel comprising two side parts (5, 6) with their respective side edges (7, 8), a middle part, an upper part with its respective upper edge and a lower part with its respective lower edge, wherein each said side part (5, 6) comprises at least one bending line (10, 11) and each middle part comprises at least one bending line and - an inner pouch disposed inside said two outer panels (1, 2), said inner pouch comprising two opposite walls (14, 15), each said wall comprising a lower, an upper and two side parts (16, 17), wherein said two walls are bonded together and also with said two outer panels in a way that the packaging assembly can be unfolded and/or erected by pressing said outer panels (1, 2) together on their side edges (7, 8) and wherein the upper parts of the walls of said inner pouch are placed higher than the opposite upper edge of said outer panels and the lower parts of the walls of said inner pouch are placed higher than the opposite lower edge of said outer panels. - two separate opposite outer panels (1, 2) composed of rigid material, each said outer panel comprising two side parts (5, 6) with their respective side edges (7, 8), a middle part, an upper part with its respective upper edge and a lower part with its respective lower edge, wherein each said side part (5, 6) comprises at least one bending line (10, 11) and each middle part comprises at least one bending line and - an inner pouch disposed inside said two outer panels (1, 2), said inner pouch comprising two opposite walls (14, 15), each said wall comprising a lower, an upper and two side parts (16, 17), wherein said two walls are bonded together and also with said two outer panels in a way that the packaging assembly can be unfolded and/or erected by pressing said outer panels (1, 2) together on their side edges (7, 8) and wherein the upper parts of the walls of said inner pouch are placed higher than the opposite upper edge of said outer panels and the lower parts of the walls of said inner pouch are placed higher than the opposite lower edge of said outer panels.
A receiver arrangement for the wireless reception of data which is modulated onto a carrier signal, comprising an analogue receiver, an evaluation device and a control device, wherein the control device controls the receiver by way of sampling pulses, in a manner such that it is switched on and is ready for receiving transmission signals during the sampling pulses and is switched off and receives no transmission signals during the sampling pauses, and the evaluation device generates a data bit sequence from the received signals delivered by the receiver during the sampling pulses, characterised in that the receiver is configured to receive data with a bit rate < 10 kbps, the control device is moreover configured to switch over the activation of the receiver between phases of sampling pulses with different sampling frequency ranges, depending on at least one predefined switching-over criterion, wherein the switch-over criterion is at least one predefined data sequence which is stored in the evaluation device, and the evaluation device comprises means for recognising the predefined data sequence, which, with an agreement of the received data bit sequence with the predefined data sequence, delivers a switch-over signal to the control device, for changing from one phase of sampling pulses with one sampling frequency range into a further phase of sampling pulses with a further sampling frequency range, the sampling ratio between the sampling pulses and sampling pauses, in a first phase being between 1:1'000'000 and 1:10'000, and in a second phase between 1:5'000 and 1:125, and the sampling pulses having a duration of 50 ns to 800 ns.
A respiratory humidifier chamber for use with a breathing assistance apparatus, comprising:an inlet (11 a) adapted for receiving gases from said breathing assistance apparatus, and an outlet through which heated humidified gases exit said vessel for delivery to a patient, said chamber further comprising: a partition, dividing said chamber into an upstream sub-chamber and a downstream sub-chamber, said sub-chambers sealed from each other by said partition except for an aperture, said aperture being located on said partition and allowing gaseous communication between said sub-chambers (20, 21), a heater base adapted to heat a volume of water contained within said downstream sub-chamber in use, said aperture, said inlet (11 a) and said outlet located above said volume of water in use, an internal heater located within said upstream sub-chamber adapted to heat gases passing through said upstream sub-chamber from said inlet to said aperture, at least part of said internal heater located immediately adjacent said aperture.
A bank for storing blood products comprising a housing, a storage area arranged in said housing, a refrigerator device attributed to said storage area, a plurality of stationary storage racks arranged in said storage area, each stationary storage rack comprising a plurality of permanent storage locations for blood product s arranged above each other, a product access door arranged in a wall of said housing, an automated transport device (21, 50) adapted and structured to transport blood product s between said product access door and said permanent storage locations, wherein said transport device (21, 50) comprises a buffer storage arranged in said storage area at said product access door, wherein said buffer storage comprises a plurality of movable storage racks, each movable storage rack having a plurality of temporary, movable storage locations for blood product s arranged above each other, and a robot movable between said movable storage racks and said stationary storage racks for transporting blood products between said temporary, movable storage locations and said permanent storage locations. a housing, a storage area arranged in said housing, a refrigerator device attributed to said storage area, a plurality of stationary storage racks arranged in said storage area, each stationary storage rack comprising a plurality of permanent storage locations for blood product s arranged above each other, a product access door arranged in a wall of said housing, an automated transport device (21, 50) adapted and structured to transport blood product s between said product access door and said permanent storage locations, wherein said transport device (21, 50) comprises a buffer storage arranged in said storage area at said product access door, wherein said buffer storage comprises a plurality of movable storage racks, each movable storage rack having a plurality of temporary, movable storage locations for blood product s arranged above each other, and a robot movable between said movable storage racks and said stationary storage racks for transporting blood products between said temporary, movable storage locations and said permanent storage locations.
A method for producing a rotor (18, 38) for an electric machine, in particular a three-phase motor, the rotor being formed by a metal core, at least a first and a second short-circuit ring (36, 37, 39) and lamellar conductors which connect the short-circuit rings, the method being performed with a casting machine and a casting mold (10, 29), the metal core being disposed in the casting mold and a metal being fixed to the casting mold at the metal core, the metal being melted and introduced into the casting mold, the metal being copper, aluminum, silver or an alloy of these metals, characterized in that, the rotor is disposed vertically with its rotational axis with respect to a horizontal plane, the first short-circuit ring being disposed lower than the second short-circuit ring, the metal being introduced into the casting mold at a first gate (12, 34) of the casting mold at the first short-circuit ring and at a second gate (13, 35) of the casting mold at the second short-circuit ring, a first flow front of the metal of the first gate meeting a second flow front of the metal of the second gate inside the casting mold in the second short-circuit ring.
Medical radiological system, comprising: - a medical radiological device having at least one element (121, 123) which is electrically adjustable, in order to enable an adaptation of the radiological device to body dimensions of a patient to be examined, and a controller which comprises the following: - interface means for receiving a patient parameter set with which patient data is processed and stored; - means for calculating a target position of the element (121, 123) from the received patient parameter set; and - means for automatically directing the electrically adjustable element (121, 123) into the target position; - an automatic measuring system which automatically detects at least the body size of a patient as measured values; and - a computer with which patient data is processed and stored and which comprises the following: - means for generating a provisional patient parameter set from the measured values; and - means for transmitting to the medical radiological device the provisional patient parameter set and a control command that triggers the automatic direction of the electrically adjustable element (121, 123) into a provisional target position, characterised in that the automatic measurement system is located in an anteroom. - a medical radiological device having at least one element (121, 123) which is electrically adjustable, in order to enable an adaptation of the radiological device to body dimensions of a patient to be examined, and a controller which comprises the following: - interface means for receiving a patient parameter set with which patient data is processed and stored; - means for calculating a target position of the element (121, 123) from the received patient parameter set; and - means for automatically directing the electrically adjustable element (121, 123) into the target position; - interface means for receiving a patient parameter set with which patient data is processed and stored; - means for calculating a target position of the element (121, 123) from the received patient parameter set; and - means for automatically directing the electrically adjustable element (121, 123) into the target position; - an automatic measuring system which automatically detects at least the body size of a patient as measured values; and - a computer with which patient data is processed and stored and which comprises the following: - means for generating a provisional patient parameter set from the measured values; and - means for transmitting to the medical radiological device the provisional patient parameter set and a control command that triggers the automatic direction of the electrically adjustable element (121, 123) into a provisional target position, - means for generating a provisional patient parameter set from the measured values; and - means for transmitting to the medical radiological device the provisional patient parameter set and a control command that triggers the automatic direction of the electrically adjustable element (121, 123) into a provisional target position,