mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting particular nucleotide sequences in a double-stranded oligonucleotide sample, consisting essentially of the following steps: a. amplifying segments of the sample and incorporating labels into the amplicons during amplification to generate labeled double stranded amplicons; b. cleaving the double-stranded amplicons by using hydrochloric acid for 15 minutes to depurinate the bases, followed by addition of sodium hydroxide and heat denaturation, at locations which are not aligned between the amplicon strands, to generate sense and anti-sense fragments which are not fully complementary followed by snap freezing of the fragments; c. mixing the fragments with a hybridization buffer; d. placing the fragments in contact with a set of single-stranded oligonucleotides under annealing conditions, wherein single-stranded oligonucleotides in the set are complementary to the fragments or to subsequences of the fragments; and e. detecting hybridization between said set of single-stranded oligonucleotides and the fragments. a. amplifying segments of the sample and incorporating labels into the amplicons during amplification to generate labeled double stranded amplicons; b. cleaving the double-stranded amplicons by using hydrochloric acid for 15 minutes to depurinate the bases, followed by addition of sodium hydroxide and heat denaturation, at locations which are not aligned between the amplicon strands, to generate sense and anti-sense fragments which are not fully complementary followed by snap freezing of the fragments; c. mixing the fragments with a hybridization buffer; d. placing the fragments in contact with a set of single-stranded oligonucleotides under annealing conditions, wherein single-stranded oligonucleotides in the set are complementary to the fragments or to subsequences of the fragments; and e. detecting hybridization between said set of single-stranded oligonucleotides and the fragments.
A composition for waterproofing paper, comprising: a first plant-derived wax having a melting point above 70 °C; a second plant-derived wax having a melting point above 70 °C; a surfactant; and at least 99.6% by weight of the composition is formed by plant-derived waxes including at least said first plant-derived wax and said second plant-derived wax, and a group of surfactants including at least said surfactant. a first plant-derived wax having a melting point above 70 °C; a second plant-derived wax having a melting point above 70 °C; a surfactant; and at least 99.6% by weight of the composition is formed by plant-derived waxes including at least said first plant-derived wax and said second plant-derived wax, and a group of surfactants including at least said surfactant.
A communications device for communicating data, the communications device being a user equipment and comprising a receiver for receiving signals representing downlink data from an infrastructure equipment of a wireless communications network via a wireless access interface based on OFDM in the downlink and SC-FDMA in the uplink, the infrastructure equipment being a base station, a transmitter for transmitting signals representing uplink data to the infrastructure equipment via the wireless access interface, the transmitted signals and the received signals each being organised into one or more minimum frequency units and one or more time units to form resource units of a first communications system for allocation by the infrastructure equipment to the communications device, and a controller for controlling the transmitter and the receiver to transmit and to receive signals representing the data to and from the infrastructure equipment using the wireless access interface, wherein the controller is configured in combination with the transmitter and the receiver to receive a signal providing an indication of one or more frequency resources which are available within a host frequency band, the frequency resources being channels of a second communications system, to combine the one or more frequency resources within the host frequency band in time and/or frequency to form the resource units of the first communications system, and to transmit or to receive the signals representing the data to or from the infrastructure equipment using the resource units of the first communications system formed within the host frequency band, wherein the signal is a discovery signal which provides an indication of whether fractional carriers are transmitted consecutively across the one or more frequency resources, the fractional carriers having a bandwidth of less than or equal to a bandwidth of the one or more frequency resources, and wherein the fractional carriers are used as fragmented resources of the first communications system which are used to form minimum frequency units.
A profile system for finishing or defining a tile covering provided over a base, comprising - at least one elongate profile that has a fastening arm and a profile section adjoining the latter which has a defining arm extending transversely, in particular at right angles, to the fastening arm and two side arms (11, 12), - at least one illuminant, that in the correct state is disposed in the receiving space defined by the substantially U-shaped profile section, and - at least one elongate diffusion disc cover (4, 5) that can be secured to the profile, characterised in that the side arms (11, 12) extend transversely, in particular at right angles, to the free ends of the defining arm and are arranged lying opposite one another. - at least one elongate profile that has a fastening arm and a profile section adjoining the latter which has a defining arm extending transversely, in particular at right angles, to the fastening arm and two side arms (11, 12), - at least one illuminant, that in the correct state is disposed in the receiving space defined by the substantially U-shaped profile section, and - at least one elongate diffusion disc cover (4, 5) that can be secured to the profile,
A method of wireless communication of a first master device, wherein the first master device is in communication with a slave device and a second master device, wherein the slave device is a user equipment, the first master device includes a first macro evolved NodeB, eNB, a first radio resource head, RRH, or a first femto cell, and the second master device includes one of a second eNB, a second RRH, or a second femto cell, the method comprising: transmitting a resource allocation to the slave device for communicating with the second master device on an unlicensed channel; transmitting information of the resource allocation to the second master device on a backhaul link, the resource allocation being transmitted on a licensed channel, and the information of the resource allocation including an indication to reserve the unlicensed channel; and indicating a clear channel assessment, CCA, type and CCA parameters to the slave device by at least one of: providing configuration information in a communication prior to transmitting the resource allocation; setting an indicator in the resource allocation; transmitting the resource allocation on a type of channel; or transmitting the resource allocation on a selected channel. transmitting a resource allocation to the slave device for communicating with the second master device on an unlicensed channel; transmitting information of the resource allocation to the second master device on a backhaul link, the resource allocation being transmitted on a licensed channel, and the information of the resource allocation including an indication to reserve the unlicensed channel; and indicating a clear channel assessment, CCA, type and CCA parameters to the slave device by at least one of: providing configuration information in a communication prior to transmitting the resource allocation; setting an indicator in the resource allocation; transmitting the resource allocation on a type of channel; or transmitting the resource allocation on a selected channel. providing configuration information in a communication prior to transmitting the resource allocation; setting an indicator in the resource allocation; transmitting the resource allocation on a type of channel; or transmitting the resource allocation on a selected channel.
A liquid personal cleansing composition that comprise: a) 1 to 20%, preferably 1 to 15% and more preferably 1 to 10% by wt of individual surfactants or mixtures of C 10, C 12 and C 14 acyl glycinates; b) 0.1 to 20%, preferably 0.5 to 15% and more preferably 1 to 10% by wt of individual surfactants or mixtures of C 14 acyl glutamate; c) 1 to 25%, preferably 5 to 20% and more preferably 10 to 15% by wt of C 8 to C 24 fatty acid soap, preferably C 10 to C 20 fatty acid soap, more preferably C 12 to C 16 soap and most preferably C 12 to C 14 fatty acid soap in combination with other anionic, non-ionic or amphoteric/ zwitter ionic surfactants or mixtures thereof, where in the weight ratio of C 14 glutamate to C 10-14 acyl glycinate or C 12 acyl glycinate is 0.01 to 5, preferably 0.1 to 4.5, more preferably 0.5 to 4 and most preferably 1.5 to 3.5. a) 1 to 20%, preferably 1 to 15% and more preferably 1 to 10% by wt of individual surfactants or mixtures of C 10, C 12 and C 14 acyl glycinates; b) 0.1 to 20%, preferably 0.5 to 15% and more preferably 1 to 10% by wt of individual surfactants or mixtures of C 14 acyl glutamate; c) 1 to 25%, preferably 5 to 20% and more preferably 10 to 15% by wt of C 8 to C 24 fatty acid soap, preferably C 10 to C 20 fatty acid soap, more preferably C 12 to C 16 soap and most preferably C 12 to C 14 fatty acid soap
A method for producing an SOI wafer having gettering ability by forming a polycrystalline silicon layer at least immediately under or directly on the buried insulator layer, comprising at least the steps of: preparing a base wafer and a bond wafer each made of silicon single crystal; forming an insulator film on a surface of at least one of the base wafer and the bond wafer; bonding the base wafer and the bond wafer via the insulator film; a bonding heat treatment for increasing bonding strength by heat-treating the bonded wafer obtained by bonding the base wafer and the bond wafer; and thinning the bond wafer bonded, wherein argon is ion-implanted to form the polycrystalline silicon layer at least immediately under or directly on the buried insulator layer by growing to be a polycrystal from a surface of either the base wafer or the bond wafer at a dosage of 1x10 15 atoms/ cm 2 or more at least before the bonding step, the surface ion-implanted with argon is used as a bonding surface in the bonding step, an increase rate of temperature to a treatment temperature of the bonding heat treatment is 5°C/minute or higher, and the layer ion-implanted with argon grows to be a polycrystal and forms a polycrystalline silicon layer and the SOI wafer is added gettering ability. preparing a base wafer and a bond wafer each made of silicon single crystal; forming an insulator film on a surface of at least one of the base wafer and the bond wafer; bonding the base wafer and the bond wafer via the insulator film; a bonding heat treatment for increasing bonding strength by heat-treating the bonded wafer obtained by bonding the base wafer and the bond wafer; and thinning the bond wafer bonded, wherein argon is ion-implanted to form the polycrystalline silicon layer at least immediately under or directly on the buried insulator layer by growing to be a polycrystal from a surface of either the base wafer or the bond wafer at a dosage of 1x10 15 atoms/ cm 2 or more at least before the bonding step, the surface ion-implanted with argon is used as a bonding surface in the bonding step, an increase rate of temperature to a treatment temperature of the bonding heat treatment is 5°C/minute or higher, and the layer ion-implanted with argon grows to be a polycrystal and forms a polycrystalline silicon layer and the SOI wafer is added gettering ability.
An apparatus comprising: a first Carbon Fiber Reinforced Plastic, CFRP, panel; a second CFRP panel that overlaps with the first CFRP panel in a first direction orthogonal to a first plane to create an area where the first CFRP panel and the second CFRP panel overlap in the first plane; a fastener to join the first CFRP panel with the second CFRP panel, the fastener extending in the first direction in the area where the first CFRP panel and the second CFRP panel overlap; and a plurality of electrically conductive pins in each of the first CFRP panel and the second CFRP panel, wherein the pins extend in the first direction proximate to the fastener to electrically connect the first CFRP panel and the second CFRP panel in the area where the first CFRP panel and the second CFRP panel overlap, wherein the pins include: a first group of pins inside the first CFRP panel each having heads exposed at a bottom surface of the first CFRP panel; and a second group of pins inside the second CFRP panel each having heads exposed at a top surface of the second CFRP panel. a first Carbon Fiber Reinforced Plastic, CFRP, panel; a second CFRP panel that overlaps with the first CFRP panel in a first direction orthogonal to a first plane to create an area where the first CFRP panel and the second CFRP panel overlap in the first plane; a fastener to join the first CFRP panel with the second CFRP panel, the fastener extending in the first direction in the area where the first CFRP panel and the second CFRP panel overlap; and a plurality of electrically conductive pins in each of the first CFRP panel and the second CFRP panel, wherein the pins extend in the first direction proximate to the fastener to electrically connect the first CFRP panel and the second CFRP panel in the area where the first CFRP panel and the second CFRP panel overlap, wherein the pins include: a first group of pins inside the first CFRP panel each having heads exposed at a bottom surface of the first CFRP panel; and a second group of pins inside the second CFRP panel each having heads exposed at a top surface of the second CFRP panel. a first group of pins inside the first CFRP panel each having heads exposed at a bottom surface of the first CFRP panel; and a second group of pins inside the second CFRP panel each having heads exposed at a top surface of the second CFRP panel.
A drive cable for actuating an element being movable relative to a structure, comprising a cable body which is made of one or more plastics, and which comprises a denticulation extending in the axial direction for engaging a mating denticulation as well as at least one armouring, which extends through the cable body in the axial direction, characterised by a coupling element which is realised as a moulded section, and which is moulded in a cable connecting region so as to adjoin the cable body and includes a connecting portion for being coupled to the moveable element, wherein the coupling element encases the armouring and is directly moulded onto the same in a region free of the cable body and/or the armouring is provided with an anchor element for the coupling element.
Sample injector (100, 100') for liquid chromatography comprising - an LC switching valve comprising a sample input port, an aspiration/dispensing pump port, an analytical sample loop input port and an analytical sample loop output port, and an LC pump port and an LC column port, - an aspiration pump fluidically (20, 21) connected to the aspiration/dispensing pump port via a buffer sample loop for aspirating a sample into the buffer sample loop when the aspiration/dispensing pump port is connected to the sample input port, - an analytical sample loop connected to the LC switching valve between the analytical sample loop input port and the analytical sample loop output port, for receiving at least part of the sample aspirated into the buffer sample loop when the analytical sample loop input port is connected to the aspiration/dispensing pump port, - an LC column fluidically connected to the LC column port, and - an LC pump fluidically connected to the LC pump port, for injecting the sample received into the analytical sample loop into the LC column when the LC pump port is fluidically connected to the analytical sample loop output port and the LC column port is fluidically connected to the analytical sample loop input port. - an LC switching valve comprising a sample input port, an aspiration/dispensing pump port, an analytical sample loop input port and an analytical sample loop output port, and an LC pump port and an LC column port, - an aspiration pump fluidically (20, 21) connected to the aspiration/dispensing pump port via a buffer sample loop for aspirating a sample into the buffer sample loop when the aspiration/dispensing pump port is connected to the sample input port, - an analytical sample loop connected to the LC switching valve between the analytical sample loop input port and the analytical sample loop output port, for receiving at least part of the sample aspirated into the buffer sample loop when the analytical sample loop input port is connected to the aspiration/dispensing pump port, - an LC column fluidically connected to the LC column port, and - an LC pump fluidically connected to the LC pump port, for injecting the sample received into the analytical sample loop into the LC column when the LC pump port is fluidically connected to the analytical sample loop output port and the LC column port is fluidically connected to the analytical sample loop input port.
An arrangement for the relocating of a plurality of selected projected independent virtual object images (33, 34, 35, 36, 37) within a real non electronic space, said arrangement including: a virtual object image creator adapted to project the plurality of selected projected independent virtual object images (33, 34, 35, 36, 37) in a real non electronic space; characterized by: a single free standing activatable tangible object (10, 85, 87) including a base plate which is supported by a ground engaging means and a central user grasping shaft which supports a tracking arrangement, said single free standing activatable tangible object (10, 85, 87) locatable within a selected projected virtual independent object image (33, 34, 35, 36, 37) of the plurality of selected projected independent virtual object images (33, 34, 35, 36, 37) created by the virtual object image creator in the real non electronic space; wherein upon activation of the single free standing activatable tangible object (10, 85, 87) by a user (22, 84, 86) when the single free standing activatable tangible object (10, 85, 87) is located within the selected projected independent virtual object image (33, 34, 35, 36, 37), the single free standing activatable tangible object (10, 85, 87) allows physical movement of the selected projected independent virtual object image (33, 34, 35, 36, 37) in a direction within the real non electronic space that corresponds with the physical movement in the same direction as applied by the user (22, 84, 86) to the single free standing activated activatable tangible object (10, 85, 87). a single free standing activatable tangible object (10, 85, 87) including a base plate which is supported by a ground engaging means and a central user grasping shaft which supports a tracking arrangement, said single free standing activatable tangible object (10, 85, 87) locatable within a selected projected virtual independent object image (33, 34, 35, 36, 37) of the plurality of selected projected independent virtual object images (33, 34, 35, 36, 37) created by the virtual object image creator in the real non electronic space; wherein upon activation of the single free standing activatable tangible object (10, 85, 87) by a user (22, 84, 86) when the single free standing activatable tangible object (10, 85, 87) is located within the selected projected independent virtual object image (33, 34, 35, 36, 37), the single free standing activatable tangible object (10, 85, 87) allows physical movement of the selected projected independent virtual object image (33, 34, 35, 36, 37) in a direction within the real non electronic space that corresponds with the physical movement in the same direction as applied by the user (22, 84, 86) to the single free standing activated activatable tangible object (10, 85, 87).
A composition comprising, in a physiologically acceptable aqueous medium, at least one monosaccharide or a polysaccharide containing up to six sugar units in a content of between 3% and 20% by weight relative to the total weight of the composition, 1,3-propanediol and a betaine in a content of between 0.015% and 1.5% by weight relative to the total weight of the composition, said composition being free of potassium sorbate.
A method for the manufacture of a battery cell cooling module in the form of a body having an inner space for the reception of battery cells, wherein the body has one or more cooling passages extending in parallel with one another between an inlet region and an outlet region and is formed at least partly from a length or from a plurality of lengths of a hollow section, wherein at least two hollow sections are used which are configured to be connected to one another at their longitudinal sides, wherein the body of the cooling module is of the shape of a parallelepiped and has a liquid cooling at at least three consecutive sides, wherein the or each length of hollow section is bent at at least two positions into a U-shape, or wherein hollow sections are bonded, brazed or welded at their mutually abutting ends in a fluid conducting manner, or wherein consecutive hollow sections are mutually connected to one another in a fluid conducting manner by means of arc elements in order to form at least two corners, characterized in that - either the cooling module is subsequently provided with sheet metal connection plates which are attached to the hollow sections at at least two oppositely disposed sides of the cooling module and preferably at three sides of the cooling module in a heat conducting manner and which form compartments between one another which are dimensioned for the reception of the battery cells, and wherein the sheet metal connection plates lie in parallel planes and the cooling passages preferably run in parallel with the parallel planes, - or the length of hollow section has at least one cooling wing, wherein the cooling wing is notched at positions at which the length of hollow section is bent. - either the cooling module is subsequently provided with sheet metal connection plates which are attached to the hollow sections at at least two oppositely disposed sides of the cooling module and preferably at three sides of the cooling module in a heat conducting manner and which form compartments between one another which are dimensioned for the reception of the battery cells, and wherein the sheet metal connection plates lie in parallel planes and the cooling passages preferably run in parallel with the parallel planes, - or the length of hollow section has at least one cooling wing, wherein the cooling wing is notched at positions at which the length of hollow section is bent.