mhurhangee/ep-ind-claims huggingface dataset:
1. System comprising a mounting clip and an adjustable shelf system, wherein the shelf system includes shelf rail having opening slots, a bracket, a shelf board that is supported by the bracket, wherein the mounting clip is positioned in the opening slot of the rail, wherein the mounting clip for automatically locking the shelf board in a fixed position on the bracket comprises back part, back wings that are joined with back part from both side edges, forming an element with substantially U-shaped profile, a base plate, wherein the upper part of the back wings of the mounting clip, which enters the opening slots, has an angle to secure fastening and the base plate of the mounting clip has an angle to ease the mounting of the clip and applying a spring force to the shelf board and wherein between back wings and back part bottom parts of the mounting clip are slits, wherein width of the slits at the bottom be larger than the rail wall thickness and the width at the top of the slit is same or smaller than the smallest thickness of the rail wall, wherein when the mounting clip reaches its final position the back wings will pass through the opening slots and create a snap-in fixation, wherein the initial state of mounting process of the mounting clip on the shelf system is done by positioning the mounting clip in the opening slots of the rails, wherein the mounting clip will automatically be in backward tilted position when positioned on the shelf board as the angle between base plate and back part is larger than 90 degrees, the height of the mounting clip in its backward tilted position being smaller than the distance between the shelf board and the upper perimeter of the opening slot of the rail, wherein in final position, the angle between back part and base plate is equal to 90 degrees and the height of the mounting clip in its final mounting is larger than the distance between the shelf board and the upper perimeter of the opening slot in the rail.
A microelectronic sensor device for the examination of magnetic target particles that are bound to a carrier, the microelectronic sensor device comprising the carrier and a light source configured to generate an input light beam wherein the carrier comprises a binding surface coated with capture elements which can specifically bind to target magnetic particles, comprising: a) a sensor unit (21, 31) for providing a sensor signal that is indicative of the presence of target magnetic particles in a sensitive region of the sensor unit, wherein the sensor signal is derived from an output light beam that comprises light from a frustrated total internal reflection of the input light beam at the binding surface; b) an actuation unit comprising a magnetic field generator for controllably generating a magnetic field for selectively inducing a movement of the bound magnetic target particles with respect to the sensitive region of the sensor unit; c) an evaluation module for evaluating the sensor signal taking the induced movement of the target magnetic particles into account, wherein the sensor signal is evaluated with respect to the presence and/or the amount of target particles in the sensitive region of the sensor unit (21,31) and/or with respect to the binding characteristics of the binding between the target particles and the binding surface; characterised in that the microelectronic sensor device is configured to move the target magnetic particles through zones of different sensitivity of the sensor unit in the sensitive region. a) a sensor unit (21, 31) for providing a sensor signal that is indicative of the presence of target magnetic particles in a sensitive region of the sensor unit, wherein the sensor signal is derived from an output light beam that comprises light from a frustrated total internal reflection of the input light beam at the binding surface; b) an actuation unit comprising a magnetic field generator for controllably generating a magnetic field for selectively inducing a movement of the bound magnetic target particles with respect to the sensitive region of the sensor unit; c) an evaluation module for evaluating the sensor signal taking the induced movement of the target magnetic particles into account, wherein the sensor signal is evaluated with respect to the presence and/or the amount of target particles in the sensitive region of the sensor unit (21,31) and/or with respect to the binding characteristics of the binding between the target particles and the binding surface;
A fluid reservoir for the layered storage of at least one heat transfer fluid in a reservoir cavity of the fluid reservoir, wherein in the reservoir cavity of the fluid reservoir there is arranged at least one overflow element to introduce and/or remove heat transfer fluid into and/or from the reservoir cavity and the overflow element has at least one external connection to connect the overflow element to lines lying outside of the reservoir cavity, in particular outside of the fluid reservoir, and the overflow element additionally has a plurality of overflow openings to introduce the heat transfer fluid from the overflow element into the reservoir cavity and/or to remove the heat transfer fluid from the reservoir cavity into the overflow element, wherein the overflow openings open into the reservoir cavity, and, viewed in an operating position of the fluid reservoir, all overflow openings of the overflow element are arranged between two horizontal planes (6, 7), wherein the vertical spacing of these two horizontal planes (6, 7) from one another is at most as great as the maximum inner diameter of the external connection of the overflow element, characterized in that arranged in the reservoir cavity there is at least one flow guide body which, viewed in the operating position, has a respective opening at its upper end and its lower end and is surrounded by a flow guide body wall which is closed otherwise and extended longitudinally in the vertical direction in the operating position.
A method for wireless communications by a receiving device, comprising: receiving multiple codewords from a transmitting device in a first period, wherein each codeword of the multiple codewords is transmitted using a different set of one or more demodulation reference signal, DMRS, ports of a plurality of different sets of DMRS ports; determining, for one or more retransmitted codewords of the multiple codewords, a set of DMRS ports used for the one or more retransmitted codewords, wherein the determination is based, at least in part, on whether DMRS time domain bundling is configured; and processing the one or more retransmitted codewords in a second period based on the determination, wherein: the first and second periods comprise different scheduling units, and when the DMRS time domain bundling is configured, the DMRS time domain bundling indicates that the receiving device is to assume that a same precoder is used for the multiple codewords and the one or more retransmitted codewords that use a same DMRS port in the different scheduling units. receiving multiple codewords from a transmitting device in a first period, wherein each codeword of the multiple codewords is transmitted using a different set of one or more demodulation reference signal, DMRS, ports of a plurality of different sets of DMRS ports; determining, for one or more retransmitted codewords of the multiple codewords, a set of DMRS ports used for the one or more retransmitted codewords, wherein the determination is based, at least in part, on whether DMRS time domain bundling is configured; and processing the one or more retransmitted codewords in a second period based on the determination, wherein: the first and second periods comprise different scheduling units, and when the DMRS time domain bundling is configured, the DMRS time domain bundling indicates that the receiving device is to assume that a same precoder is used for the multiple codewords and the one or more retransmitted codewords that use a same DMRS port in the different scheduling units. the first and second periods comprise different scheduling units, and when the DMRS time domain bundling is configured, the DMRS time domain bundling indicates that the receiving device is to assume that a same precoder is used for the multiple codewords and the one or more retransmitted codewords that use a same DMRS port in the different scheduling units.
A terminally sterilized, prefilled syringe for ophthalmic injections, wherein the syringe comprises a body, a stopper and a plunger, the body comprising an outlet at an outlet end and the stopper being arranged within the body such that a front surface of the stopper and the body define a variable volume chamber from which a fluid can be expelled though the outlet, the plunger comprising a plunger contact surface at a first end and a rod extending between the plunger contact surface and a rear portion, the plunger contact surface arranged to contact the stopper but not couple thereto, such that the plunger can be used to force the stopper towards the outlet end of the body, reducing the volume of the variable volume chamber, but not to move the stopper away from the outlet end, wherein the syringe has a notional maximum fill volume of about 0.5ml, filled with between about 0.1ml and 0.3ml of an injectable medicament comprising a 10mg/ml injectable solution comprising ranibizumab, wherein a body of the syringe has an internal diameter of between about 4.5mm and 4.8mm, and a length of between about 45mm and 50mm, wherein; the stopper comprises a conical shaped front surface and has three circumferential ribs (52, 54, 46) around a substantially cylindrical body; wherein the axial gap between a first rib and a last rib is 3mm +/-10%, wherein the first rib and the last rib define a sterility zone of the stopper when the stopper is installed into the syringe in a sterile environment; and wherein a rear surface of the stopper comprises a substantially central recess which includes an initial bore having a first diameter, the initial bore leading from the rear surface into the stopper to an inner recess having a second diameter, the second diameter being larger than the first diameter. the stopper comprises a conical shaped front surface and has three circumferential ribs (52, 54, 46) around a substantially cylindrical body; wherein the axial gap between a first rib and a last rib is 3mm +/-10%, wherein the first rib and the last rib define a sterility zone of the stopper when the stopper is installed into the syringe in a sterile environment; and wherein a rear surface of the stopper comprises a substantially central recess which includes an initial bore having a first diameter, the initial bore leading from the rear surface into the stopper to an inner recess having a second diameter, the second diameter being larger than the first diameter.
A kit for detecting multi-drug resistant Mycobacterium tuberculosis in a sample, the kit comprising: a first pair of forward and reverse primers for amplifying a first portion of a first region, the first region being Mycobacterium tuberculosis rrs gene, wherein each primer for the rrs gene has a sequence that is at least 85% identical to an oligonucleotide sequence selected from the group consisting of SEQ ID Nos: 16, 51 and 52, and a second pair of forward and reverse primers for amplifying a second portion of a second region of a rpoB gene; and an isolated nucleic acid probe comprising a sequence that is at least 85% identical to SEQ ID NO: 59. a first pair of forward and reverse primers for amplifying a first portion of a first region, the first region being Mycobacterium tuberculosis rrs gene, wherein each primer for the rrs gene has a sequence that is at least 85% identical to an oligonucleotide sequence selected from the group consisting of SEQ ID Nos: 16, 51 and 52, and a second pair of forward and reverse primers for amplifying a second portion of a second region of a rpoB gene; and an isolated nucleic acid probe comprising a sequence that is at least 85% identical to SEQ ID NO: 59.
A method of preparing an asymmetric composite membrane comprising a film of cross-linked sulfonated poly(ether ether ketone) adhered to a sheet of hydrophilic microporous polyolefin comprising the steps: a) Irradiating a dispersion comprising sulfonated poly(ether ether ketone) and at least one cross-linking agent in an organic solvent to provide a partially cross-linked dispersion of sulfonated poly(ether ether ketone); b) Contacting one side of a sheet of wetted microporous polyolefin with the dispersion of partially cross-linked sulfonated poly(ether ether ketone); c) Irradiating the one side of the coated sheet at a wave length and an intensity for a time sufficient to adhere the cross-linked sulfonated poly(ether ether ketone) to the sheet of microporous polyolefin to provide a composite; and then d) Drying the composite at a temperature and time sufficient to provide the asymmetric composite membrane, where the sheet of wetted microporous polyolefin is wetted with a solution of a hydrophilicitizing agent in an aqueous solvent. a) Irradiating a dispersion comprising sulfonated poly(ether ether ketone) and at least one cross-linking agent in an organic solvent to provide a partially cross-linked dispersion of sulfonated poly(ether ether ketone); b) Contacting one side of a sheet of wetted microporous polyolefin with the dispersion of partially cross-linked sulfonated poly(ether ether ketone); c) Irradiating the one side of the coated sheet at a wave length and an intensity for a time sufficient to adhere the cross-linked sulfonated poly(ether ether ketone) to the sheet of microporous polyolefin to provide a composite; and then d) Drying the composite at a temperature and time sufficient to provide the asymmetric composite membrane,
A system for drying sludge, in particular sewage sludge generated during wastewater treatment, - wherein the system comprises a, preferably rectangular, drying surface for accommodating the sludge over a flat area, - wherein the system comprises a movable sludge turner adapted to turn and mix the sludge spread on the drying surface, - wherein the system has a first travel path (5.1) and a second travel path (5.2), wherein the two travel paths (5.1, 5.2) extend at least partially on opposing longitudinal sides of the drying surface and are separated from the drying surface by a barrier, - wherein the sludge turner has at least one first wheel (14.1) and at least one second wheel (14.2), wherein the wheels (14.1, 14.2) are supported on opposite sides of a common gantry of the sludge turner, which spans the drying surface in a transverse direction of the drying surface, and - wherein the first wheel (14.1) rolls on the first travel path (5.1) and the second wheel (14.2) rolls on the second travel path (5.1) as the respective travel plane when the sludge turner is in operation, wherein the barrier comprises a first guide (16.1) in the area of the first travel path (5.1) extending in the direction of travel of the sludge turner and a second guide (16.1) in the area of the second travel path (5.2) extending in the direction of travel of the sludge turner, wherein the sludge turner - as the latter travels - is guided transversely to the direction of travel with the aid of the guides (16.1, 16.2), and wherein the guides (16.1, 16.2) extend upwards from the drying surface and act as a barrier for the sludge spread on the drying surface, to keep sludge away from the travel paths (5.1, 5.2), wherein the guides (16.1, 16.2) are each formed by a single or multi-part metal profile that is connected to a floor surface of a solar drying hall, and wherein the floor surface is part of the system and forms the drying surface and the travel paths (5.1, 5.2). - wherein the system comprises a, preferably rectangular, drying surface for accommodating the sludge over a flat area, - wherein the system comprises a movable sludge turner adapted to turn and mix the sludge spread on the drying surface, - wherein the system has a first travel path (5.1) and a second travel path (5.2), wherein the two travel paths (5.1, 5.2) extend at least partially on opposing longitudinal sides of the drying surface and are separated from the drying surface by a barrier, - wherein the sludge turner has at least one first wheel (14.1) and at least one second wheel (14.2), wherein the wheels (14.1, 14.2) are supported on opposite sides of a common gantry of the sludge turner, which spans the drying surface in a transverse direction of the drying surface, and - wherein the first wheel (14.1) rolls on the first travel path (5.1) and the second wheel (14.2) rolls on the second travel path (5.1) as the respective travel plane when the sludge turner is in operation,
System for isolating multipotent stromal cells (MSCs), the system comprising a) a separation unit comprising a separation column comprising separation means in the form of a separation filter, separation beads or a separation gel for separating MSCs by physical and/or chemical affinity or physicochemical affinity, comprised in a sample, with a port for introduction of a sample, and an MSC outlet; b) communication means for transferring an MSC rich fraction obtained from the separation unit to a concentration unit, c) a concentration unit for concentrating the harvested MSCs; wherein the concentration unit is a hollow fiber dead-end ultrafiltration unit; and d) an MSC receiving vessel; wherein the system is a completely closed system. a) a separation unit comprising a separation column comprising separation means in the form of a separation filter, separation beads or a separation gel for separating MSCs by physical and/or chemical affinity or physicochemical affinity, comprised in a sample, with a port for introduction of a sample, and an MSC outlet; b) communication means for transferring an MSC rich fraction obtained from the separation unit to a concentration unit, c) a concentration unit for concentrating the harvested MSCs; wherein the concentration unit is a hollow fiber dead-end ultrafiltration unit; and d) an MSC receiving vessel;
Assembly for feeding process air into a drum of a tumble dryer, - wherein the drum comprises a drum shell which can rotate about a longitudinal axis and a stationary drum rear wall, - wherein the drum rear wall has at least one inflow area (40, 41, 42), through which process air flows into the drum, - wherein the local position (51, 52, 53) of the air-guiding inflow area (41, 42) can be changed by means of a control device, - wherein an alternating reversal of the direction of rotation (45, 50, 60) of the drum shell is provided, and - wherein the control device changes the position (51, 52, 53) of the air-guiding inflow area (40, 41, 42) as a function of the alternating reversal of the direction of rotation (45, 50, 60) of the drum shell such that the inflow area (41, 42) is disposed at least predominantly in the part of the drum rear wall before which the laundry drops down due to gravity, characterised in that the active air-guiding overall cross-section of the inflow area (40, 41, 42) can be changed. - wherein the drum comprises a drum shell which can rotate about a longitudinal axis and a stationary drum rear wall, - wherein the drum rear wall has at least one inflow area (40, 41, 42), through which process air flows into the drum, - wherein the local position (51, 52, 53) of the air-guiding inflow area (41, 42) can be changed by means of a control device, - wherein an alternating reversal of the direction of rotation (45, 50, 60) of the drum shell is provided, and - wherein the control device changes the position (51, 52, 53) of the air-guiding inflow area (40, 41, 42) as a function of the alternating reversal of the direction of rotation (45, 50, 60) of the drum shell such that the inflow area (41, 42) is disposed at least predominantly in the part of the drum rear wall before which the laundry drops down due to gravity,
Solar receiver heat transfer pressurized fluid system equipped with a pressure relief valve; characterized in that it is further equipped with a trapping device for separating liquid droplets from a pressurized gas released by the pressure relief valve and for capturing said liquid droplets, said trapping device comprising, in use: - a horizontal pipe; - a liquid trap element extending from the horizontal pipe and capable to catch the separated liquid droplets; - a vertical exhaust pipe connected to the horizontal pipe substantially in a perpendicular manner and having an open end for discharging in the atmosphere the gas released by the pressure relief valve; the horizontal pipe being provided by a first connection means for removably connecting at a first end to the pressure relief valve and by a second connection means for removably connecting at a second end to the liquid trap element, the vertical exhaust pipe being connected to the horizontal pipe between the first end removably connectable to the pressure relief valve and the second end removably connectable to the liquid trap element. - a horizontal pipe; - a liquid trap element extending from the horizontal pipe and capable to catch the separated liquid droplets; - a vertical exhaust pipe connected to the horizontal pipe substantially in a perpendicular manner and having an open end for discharging in the atmosphere the gas released by the pressure relief valve;
A release film equipped on at least one of its surfaces with a release layer (c) being based on at least one cured polysiloxane and comprising (a) at least one inside layer (a) based on at least one thermoplastic olefin-homopolymer or copolymer, equipped with 10-20% by weight, based on the total weight of layer (a), of at least one polyetherpolyamide block copolymer as long-term antistaticum providing a consistently strong antistatic effect over a period of at least 12 months uneffected by the relative atmospheric humidity of the environment and (b) at least one layer (b) based on at least one thermoplastic polymer. (a) at least one inside layer (a) based on at least one thermoplastic olefin-homopolymer or copolymer, equipped with 10-20% by weight, based on the total weight of layer (a), of at least one polyetherpolyamide block copolymer as long-term antistaticum providing a consistently strong antistatic effect over a period of at least 12 months uneffected by the relative atmospheric humidity of the environment and (b) at least one layer (b) based on at least one thermoplastic polymer.
An aqueous coating composition, comprising a dispersion comprising (a) at least one latex polymer binder; (b) a biocide effective amount of at least one biocide comprising at least one biosurfactant selected from the group consisting of rhamnolipids and sophorolipids; and (c) water, wherein said at least one biocide further comprises an isothiazolinone biocide. (a) at least one latex polymer binder; (b) a biocide effective amount of at least one biocide comprising at least one biosurfactant selected from the group consisting of rhamnolipids and sophorolipids; and (c) water,