mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor light-emitting device, comprising: a plurality of compound semiconductor layers comprising a first conductivity type semiconductor layer, an active layer on the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer on the active layer; a current spreading layer comprising a multi-layered transparent electrode layer (151, 155) on the plurality of compound semiconductor layers and a metal layer between the transparent electrode layers (151,155) of the multi-layered transparent electrode layer (151,155); and a second electrode electrically connected to the current spreading layer, wherein the multi-layered transparent electrode layer (151,155) comprises a first transparent electrode layer and a second transparent electrode layer, the first transparent electrode layer being arranged on the second conductivity type semiconductor layer, the metal layer being arranged on the first transparent electrode layer, and the second transparent electrode layer being arranged on the metal layer, said first transparent electrode layer and second transparent electrode layer formed of a conductive oxide, wherein the second transparent electrode layer is positioned at least on top of the first transparent electrode layer, characterized in that the first transparent electrode layer has a mesh pattern having a plurality of holes (157,159), and in that a part of the metal layer is directly connected to the second conductivity type semiconductor layer in the holes (157,159) of the first transparent electrode layer. a plurality of compound semiconductor layers comprising a first conductivity type semiconductor layer, an active layer on the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer on the active layer; a current spreading layer comprising a multi-layered transparent electrode layer (151, 155) on the plurality of compound semiconductor layers and a metal layer between the transparent electrode layers (151,155) of the multi-layered transparent electrode layer (151,155); and a second electrode electrically connected to the current spreading layer, wherein the multi-layered transparent electrode layer (151,155) comprises a first transparent electrode layer and a second transparent electrode layer, the first transparent electrode layer being arranged on the second conductivity type semiconductor layer, the metal layer being arranged on the first transparent electrode layer, and the second transparent electrode layer being arranged on the metal layer, said first transparent electrode layer and second transparent electrode layer formed of a conductive oxide, wherein the second transparent electrode layer is positioned at least on top of the first transparent electrode layer,
A method, comprising: determining, by a base station operating in a 3 rd Generation Partnership Project, 3GPP, wireless network, a plurality of slots to be allocated for a user equipment; mapping, in one slot of the plurality of slots, based on a type of a slot, one or more control data blocks, which comprise uplink control information, to at least one of: a short physical uplink control channel and a long physical uplink control channel, wherein the type of the slot is one of: an uplink-only slot; a bi-directional, uplink slot; and a bi-directional, downlink slot; wherein the short physical uplink control channel and the long physical uplink control channel are in a same slot of the plurality of slots when the type of the slot is one of the uplink only slot and the bi-directional, uplink slot, and wherein the number of symbols of the short physical uplink control channel is smaller than the number of symbols of the long physical uplink control channel; allocating, to the user equipment, the plurality of slots; and receiving, from the user equipment, uplink control information on the one or more control data blocks. determining, by a base station operating in a 3 rd Generation Partnership Project, 3GPP, wireless network, a plurality of slots to be allocated for a user equipment; mapping, in one slot of the plurality of slots, based on a type of a slot, one or more control data blocks, which comprise uplink control information, to at least one of: a short physical uplink control channel and a long physical uplink control channel, wherein the type of the slot is one of: an uplink-only slot; a bi-directional, uplink slot; and a bi-directional, downlink slot; wherein the short physical uplink control channel and the long physical uplink control channel are in a same slot of the plurality of slots when the type of the slot is one of the uplink only slot and the bi-directional, uplink slot, and wherein the number of symbols of the short physical uplink control channel is smaller than the number of symbols of the long physical uplink control channel; allocating, to the user equipment, the plurality of slots; and receiving, from the user equipment, uplink control information on the one or more control data blocks.
A device comprising: a. a substrate comprising a surface; b. a non-fouling polymer layer on the surface, wherein the non-fouling polymer layer comprises a plurality of brush molecules; c. at least one capture region on the polymer layer, comprising at least one capture agent non-covalently bound to the polymer layer, wherein the at least one capture agent binds an analyte and remains bound to the polymer layer when exposed to a fluid sample; and d. at least one labile region on the polymer layer, comprising at least one detection agent and an excipient, wherein the at least one detection agent solubilizes upon contact with the fluid sample and binds to an analyte in the fluid sample; wherein the capture region and the labile region are spatially separated. a. a substrate comprising a surface; b. a non-fouling polymer layer on the surface, wherein the non-fouling polymer layer comprises a plurality of brush molecules; c. at least one capture region on the polymer layer, comprising at least one capture agent non-covalently bound to the polymer layer, wherein the at least one capture agent binds an analyte and remains bound to the polymer layer when exposed to a fluid sample; and d. at least one labile region on the polymer layer, comprising at least one detection agent and an excipient, wherein the at least one detection agent solubilizes upon contact with the fluid sample and binds to an analyte in the fluid sample;
A process for producing composite elements comprising thermal insulation material and adhesive and optionally at least one outer layer, where the thermal insulation material is bonded with the adhesive, wherein the adhesive is a polyurethane adhesive preparable by mixing (a) polyisocyanates with (b) polyols having at least two isocyanate-reactive groups, (c) blowing agents comprising water, and optionally (d) chain extenders, (e) catalysts and (f) other auxiliaries, where the polyols (b) comprise polyetherols and the polyetherols comprise 50% to 90% by weight of at least one polyalkylene oxide having a hydroxyl number of from 120 to 300 mg KOH/g, based on a difunctional starter molecule, and an ethylene oxide content, based on the content of alkylene oxide, of from 60% to 100% by weight, and a proportion of primary OH groups of from 50% to 100%, 10% to 50% by weight of at least one polyalkylene oxide having a hydroxyl number of from 120 to 600 mg KOH/g, based on a difunctional and/or a trifunctional starter molecule, and an ethylene oxide content, based on the content of alkylene oxide, of from 0% to 40% by weight and 0% to 30% by weight of at least one further polyalkylene oxide having a hydroxyl number of from 100 to 800 mg KOH/g, based on a difunctional to tetrafunctional starter molecule, which differs from the polyetherols and, based in each case on the total weight of components to. (a) polyisocyanates with (b) polyols having at least two isocyanate-reactive groups, (c) blowing agents comprising water, and optionally (d) chain extenders, (e) catalysts and (f) other auxiliaries, 50% to 90% by weight of at least one polyalkylene oxide having a hydroxyl number of from 120 to 300 mg KOH/g, based on a difunctional starter molecule, and an ethylene oxide content, based on the content of alkylene oxide, of from 60% to 100% by weight, and a proportion of primary OH groups of from 50% to 100%, 10% to 50% by weight of at least one polyalkylene oxide having a hydroxyl number of from 120 to 600 mg KOH/g, based on a difunctional and/or a trifunctional starter molecule, and an ethylene oxide content, based on the content of alkylene oxide, of from 0% to 40% by weight and 0% to 30% by weight of at least one further polyalkylene oxide having a hydroxyl number of from 100 to 800 mg KOH/g, based on a difunctional to tetrafunctional starter molecule, which differs from the polyetherols and, based in each case on the total weight of components to.
Use of one or more pectinolytic enzyme(s) for the treatment of fruit or vegetable mash, wherein at least one pectinolytic enzyme is a polypeptide having pectinolytic activity and comprising an amino acid sequence selected from: a) a polypeptide comprising an amino acid sequence having at least 85% identity, preferably at least 90% identity, more preferred at least 95% identity and still more preferred at least 98% identity to the sequence of the PGAI polypeptide according to SEQ ID NO:2 and b) a fragment of a) having pectinolytic activity. a) a polypeptide comprising an amino acid sequence having at least 85% identity, preferably at least 90% identity, more preferred at least 95% identity and still more preferred at least 98% identity to the sequence of the PGAI polypeptide according to SEQ ID NO:2 and b) a fragment of a) having pectinolytic activity.
An assembly, the assembly comprising: a droplet formation module comprising a sample inlet connected to a channel at a junction, wherein the channel is connected to a second inlet suitable for an immiscible fluid, wherein the droplet formation module is configured to produce a plurality of droplets comprising a sample surrounded by the immiscible fluid; and a separation chamber in fluid communication with the droplet formation module via an inlet from the channel, wherein the separation chamber is configured to receive the droplets and the immiscible fluid via the channel, wherein the separation chamber comprises a droplet receiving outlet positioned at an upper portion of the separation chamber to collect rising droplets, characterized in that the droplet receiving outlet is in fluid connection with a proximal end of a slide, wherein the proximal end of the slide is higher than a distal end of the slide, wherein the slide is configured to carry droplets from the outlet to an output nozzle 807 on the distal end of the slide to facilitate collection of the droplets in a connected PCR tube. a droplet formation module comprising a sample inlet connected to a channel at a junction, wherein the channel is connected to a second inlet suitable for an immiscible fluid, wherein the droplet formation module is configured to produce a plurality of droplets comprising a sample surrounded by the immiscible fluid; and a separation chamber in fluid communication with the droplet formation module via an inlet from the channel, wherein the separation chamber is configured to receive the droplets and the immiscible fluid via the channel, wherein the separation chamber comprises a droplet receiving outlet positioned at an upper portion of the separation chamber to collect rising droplets, characterized in that the droplet receiving outlet is in fluid connection with a proximal end of a slide, wherein the proximal end of the slide is higher than a distal end of the slide, wherein the slide is configured to carry droplets from the outlet to an output nozzle 807 on the distal end of the slide to facilitate collection of the droplets in a connected PCR tube.
A radar level gauge, for determining a process variable of a product in a tank using electromagnetic measuring signals, comprising: a signal propagation device adapted to direct a microwave transmit signal toward said product and return reflections thereof from a surface of said product, said signal propagation device including a wave guiding structure (15, 16) and a cavity formed inside said wave guiding structure, and a dielectric filling member arranged at least partly within said cavity, said dielectric filling member including a main body (21; 121; 221; 321) formed of a polymer material, and at least one microwave absorbing element (130; 230; 330) formed of a modified polymer material, characterized in that the modified polymer material provides a microwave attenuation of at least 1 dB/centimeter at an operating frequency of the radar level gauge, said modified polymer material being obtained by modifying said polymer material with a filler material, wherein said at least one microwave absorbing element (130; 230; 330) is integrally formed with said main body by sintering, and wherein said at least one microwave absorbing element is embedded in the main body. a signal propagation device adapted to direct a microwave transmit signal toward said product and return reflections thereof from a surface of said product, said signal propagation device including a wave guiding structure (15, 16) and a cavity formed inside said wave guiding structure, and a dielectric filling member arranged at least partly within said cavity, said dielectric filling member including a main body (21; 121; 221; 321) formed of a polymer material, and at least one microwave absorbing element (130; 230; 330) formed of a modified polymer material, characterized in that the modified polymer material provides a microwave attenuation of at least 1 dB/centimeter at an operating frequency of the radar level gauge, said modified polymer material being obtained by modifying said polymer material with a filler material, wherein said at least one microwave absorbing element (130; 230; 330) is integrally formed with said main body by sintering, and wherein said at least one microwave absorbing element is embedded in the main body.
An aircraft comprising an aircraft fuel storage system, wherein the aircraft comprises: an upper skin, a lower skin, an aircraft fuel tank for containing aircraft fuel, a tank liner comprising; a plurality of substantially spherical elements, each element having a hardness value of 2GPa or above; and a binder material; wherein the elements have a higher hardness value than the binder material; characterised in that: the outer walls of the aircraft fuel tank are provided by spars, ribs, the upper skin and the lower skin, and wherein the fuel tank outer walls enclose a liquid storage space; the tank liner is disposed on an internal surface of the upper skin and a further such tank liner disposed on an internal surface of the lower skin; the tank liners comprise a proximal surface fixedly attached to an internal surface of the aircraft fuel tank, and a distal surface opposite to the proximal surface; the elements are arranged as multiple layers of elements between the proximal surface and the distal surface; and wherein the plurality of elements are embedded in the binder material. an upper skin, a lower skin, an aircraft fuel tank for containing aircraft fuel, a tank liner comprising; a plurality of substantially spherical elements, each element having a hardness value of 2GPa or above; and a binder material; wherein the elements have a higher hardness value than the binder material; a plurality of substantially spherical elements, each element having a hardness value of 2GPa or above; and a binder material; wherein the elements have a higher hardness value than the binder material; the outer walls of the aircraft fuel tank are provided by spars, ribs, the upper skin and the lower skin, and wherein the fuel tank outer walls enclose a liquid storage space; the tank liner is disposed on an internal surface of the upper skin and a further such tank liner disposed on an internal surface of the lower skin; the tank liners comprise a proximal surface fixedly attached to an internal surface of the aircraft fuel tank, and a distal surface opposite to the proximal surface; the elements are arranged as multiple layers of elements between the proximal surface and the distal surface; and wherein the plurality of elements are embedded in the binder material.
A method of indicating the location of a relatively mobile object (16, 17), comprising the steps of: (a) generating a first signal that is characteristic of a first, relatively immobile object; (b) transmitting the first signal from the first relatively immobile object; (c) detecting the first signal at a receiver; (d) generating a second signal that is characteristic of a second, relatively immobile object; (e) transmitting the second signal from the second, relatively immobile object; (f) detecting the second signal at a receiver; characterized in that the method further comprises the steps of: (g) generating a third signal that is characteristic of the relatively mobile object (16, 17); (h) transmitting the third signal from the relatively mobile object (16, 17); (i) detecting the third signal at a receiver; (j) operating a processing device operatively connected to the receiver using signal time-of-flight (t-o-f) data and/or received signal strength information (RSSI) to establish the distance of the relatively mobile object (16, 17) respectively from the first and second relatively immobile objects (12, 13); and (k) generating a signal indicating whether the relatively mobile object (16, 17) is closer to the first or the second relatively immobile object (12, 13). (a) generating a first signal that is characteristic of a first, relatively immobile object; (b) transmitting the first signal from the first relatively immobile object; (c) detecting the first signal at a receiver; (d) generating a second signal that is characteristic of a second, relatively immobile object; (e) transmitting the second signal from the second, relatively immobile object; (f) detecting the second signal at a receiver; (g) generating a third signal that is characteristic of the relatively mobile object (16, 17); (h) transmitting the third signal from the relatively mobile object (16, 17); (i) detecting the third signal at a receiver; (j) operating a processing device operatively connected to the receiver using signal time-of-flight (t-o-f) data and/or received signal strength information (RSSI) to establish the distance of the relatively mobile object (16, 17) respectively from the first and second relatively immobile objects (12, 13); and (k) generating a signal indicating whether the relatively mobile object (16, 17) is closer to the first or the second relatively immobile object (12, 13).
A cooling device comprising a body, at least one door providing access into the body, at least one compartment disposed inside the body wherein foodstuffs are placed for cooling, a cover providing access into the compartment and a locking mechanism that provides the cover to remain in the locked position by locking, wherein the locking mechanism has a guide disposed on the body so as to correspond to one side of the cover while the cover is closed, and wherein said locking mechanism has a latch rotatably mounted on the side of the cover, so that said latch passes behind the guide by rotating when the cover is closed and thereby prevents dislodgement of the cover from the body, said cooling device being characterized in that said latch changes the cover to a free position by crossing over the guide if the cover is pulled to the front when desired to be opened, and wherein said latch and said guide have curved surfaces that make them move easy over one another.
An manganese oxide having a pore volume fraction of no greater than 20% for pores with diameters of 10 μm or greater, as measured by mercury porosimetry, a tap density of 1.6 g/cm 3 or greater and a mean particle size of 1-50 μm.
A polyester polymerization catalyst that is a mannitol-coordinated titanium compound and is obtained by making a titanium compound and mannitol react together in a molar ratio of titanium atom to mannitol of from 1:1 to 1:3.
A mobile device for managing audio during a conference, the mobile device comprising: a first decoder configured to decode a first audio stream from a first device associated with a first participant of the conference; a second decoder configured to decode a second audio stream from a second device associated with a second participant of the conference; a spatial steering processor configured to: steer first decoded audio to be projected from a speaker at a first angle, the first decoded audio corresponding to the decoded version of the first audio stream; and steer second decoded audio to be projected from the speaker at a second angle, the second decoded audio corresponding to the decoded version of the second audio stream, and the first decoded audio synchronized with the second decoded audio; receive a signal indicating detection of head movement associated with a user of the mobile device; and shift the first angle and the second angle by a shift amount in response to receiving the signal; and the speaker configured to: project the first decoded audio at the shifted first angle; and project the second decoded audio at the shifted second angle. a first decoder configured to decode a first audio stream from a first device associated with a first participant of the conference; a second decoder configured to decode a second audio stream from a second device associated with a second participant of the conference; a spatial steering processor configured to: steer first decoded audio to be projected from a speaker at a first angle, the first decoded audio corresponding to the decoded version of the first audio stream; and steer second decoded audio to be projected from the speaker at a second angle, the second decoded audio corresponding to the decoded version of the second audio stream, and the first decoded audio synchronized with the second decoded audio; receive a signal indicating detection of head movement associated with a user of the mobile device; and shift the first angle and the second angle by a shift amount in response to receiving the signal; and steer first decoded audio to be projected from a speaker at a first angle, the first decoded audio corresponding to the decoded version of the first audio stream; and steer second decoded audio to be projected from the speaker at a second angle, the second decoded audio corresponding to the decoded version of the second audio stream, and the first decoded audio synchronized with the second decoded audio; receive a signal indicating detection of head movement associated with a user of the mobile device; and shift the first angle and the second angle by a shift amount in response to receiving the signal; and the speaker configured to: project the first decoded audio at the shifted first angle; and project the second decoded audio at the shifted second angle. project the first decoded audio at the shifted first angle; and project the second decoded audio at the shifted second angle.