mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a compound originating from a polysaccharide-based biomass, the method including at least one of a saccharification step for producing a sugar solution containing a monosaccharide and/or an oligosaccharide from a product obtainable by hydrolyzing the polysaccharide-based biomass, and a fermentation step for fermenting the sugar solution containing the monosaccharides and/or oligosaccharide originating from the polysaccharide-based biomass, wherein a treatment for removing a fermentation inhibitor with the use of a separation membrane having a glucose removal rate and an isopropyl alcohol removal rate which simultaneously satisfy the following relationships and when a 500 ppm aqueous glucose solution at p.H 6.5 at 25°C and a 500 ppm aqueous isopropyl alcohol solution at pH 6.5 at 25°C are respectively permeated through the membrane at an operation pressure of 0.5 MPa, is carried out in the step prior to the saccharification step and/or in the step prior to the fermentation step: Glucose removal rate ≥ 80 % Glucose removal rate − Isopropyl alcohol removal rate ≥ 20 %
A flame detector for industrial safety applications in hazardous locations, configured to discriminate the optical energy emitted by a flame from energy emitted by man-made optical sources, comprising: at least one optical sensor channel, each channel including an optical sensor (2A,2B,2C,2D) configured to receive optical energy from a surveilled scene within a field of view, the at least one optical sensor channel producing signals providing an indication of the optical radiation received by the optical sensor within a sensor spectral bandwidth, the optical sensor configured for detecting optical radiation in a spectral region where flames emit strong optical radiation; a processor responsive to the signals from the at least one optical sensor channel and configured to digitally process and analyze the signals, characterised in that the processor includes a test mode module configured to process the signals and to determine if measured characteristics of the optical energy correspond to predetermined characteristics of a test signal from a remote optical test source, and to put the flame detector into a test mode if a test signal is detected, and a flame detection processing module responsive to the signals from the at least one optical sensor channel if no test signal is detected to provide a flame alarm signal upon detection of a real flame event. at least one optical sensor channel, each channel including an optical sensor (2A,2B,2C,2D) configured to receive optical energy from a surveilled scene within a field of view, the at least one optical sensor channel producing signals providing an indication of the optical radiation received by the optical sensor within a sensor spectral bandwidth, the optical sensor configured for detecting optical radiation in a spectral region where flames emit strong optical radiation; a processor responsive to the signals from the at least one optical sensor channel and configured to digitally process and analyze the signals, characterised in that the processor includes a test mode module configured to process the signals and to determine if measured characteristics of the optical energy correspond to predetermined characteristics of a test signal from a remote optical test source, and to put the flame detector into a test mode if a test signal is detected, and a flame detection processing module responsive to the signals from the at least one optical sensor channel if no test signal is detected to provide a flame alarm signal upon detection of a real flame event.
A method of synthesis comprising: (a) reacting GDP- N -acetyl-glucosamine, nicotinamide adenine dinucleotide and LegB (NAD-dependent 4,6-dehydratase) comprised in a provided reaction vessel, (b) recovering GDP-2-acetamido-2,6-dideoxy-α-D- xylo -hexos-4-ulose. (a) reacting GDP- N -acetyl-glucosamine, nicotinamide adenine dinucleotide and LegB (NAD-dependent 4,6-dehydratase) comprised in a provided reaction vessel, (b) recovering GDP-2-acetamido-2,6-dideoxy-α-D- xylo -hexos-4-ulose.
An unloading device for a nuclear power plant, comprising a power mechanism, a transmission mechanism, and an execution mechanism that are connected in sequence from top to bottom; wherein the execution mechanism comprises a shafting assembly and a turntable assembly that are connected in sequence from top to bottom; the turntable assembly comprises an upper auxiliary fence, a middle main disturbance disk, and a lower reclaiming portion that are arranged in sequence from top to bottom, characterized in that a bottom of the turntable assembly is provided with a guard plate assembly, wherein the guard plate assembly comprises a bottom arc plate and an insert bar assembly provided on the bottom arc plate; the bottom arc plate is connected to a tapered surface chamber, and the insert bar assembly is arranged between the bottom arc plate and the tapered surface chamber.
A method for producing a plurality of radiation-emitting components, comprising the method steps: A) providing a carrier layer having a plurality of mounting regions wherein the mounting regions are separated from one another by separating regions; B) applying an intermediate layer to the separating regions; C) applying a radiation-emitting device to each of the plurality of mounting areas; D) applying a continuous casting layer to the radiation-emitting devices and the separating regions; E) severing of the casting layer and partial severing of the intermediate layer in the separating regions of the carrier layer in a first separation step; F) partial severing of the intermediate layer and severing of the carrier layer in a second separation step, wherein the intermediate layer is completely severed by the first and the second separating step. A) providing a carrier layer having a plurality of mounting regions wherein the mounting regions are separated from one another by separating regions; B) applying an intermediate layer to the separating regions; C) applying a radiation-emitting device to each of the plurality of mounting areas; D) applying a continuous casting layer to the radiation-emitting devices and the separating regions; E) severing of the casting layer and partial severing of the intermediate layer in the separating regions of the carrier layer in a first separation step; F) partial severing of the intermediate layer and severing of the carrier layer in a second separation step, wherein the intermediate layer is completely severed by the first and the second separating step.
A coated cutting tool comprising a substrate and a multilayered (Ti,AI)N coating where the coating comprises three zones: a first zone closest to the substrate, a second zone adjacent to the first zone and a third outermost zone where zones B and C each comprises a multilayered aperiodic structure of alternating individual (Ti,AI)N layers X and Y where individual layer X has a composition with a higher Ti-content than individual layer Y, where the average composition for each zone is different from each other and characterized in that the individual layer X has a composition of Ti a Al 1-a N, where 0.70≤a≤0.90, and the individual layer Y has a composition of Ti b Al 1-b N, where 0.33 ≤b≤0.40, the ratio between the thickness of zone C and zone B is between 1.3 and 2.2 and where z zone C >z zone B, where z is the average composition for each zone of the ratio z=Ti/Al.
A projection system for projecting an image fit for a shape of an object, the projection system comprising: an invisible light projector for projecting a predetermined invisible light image onto the object via invisible light; an imaging unit for capturing an image of the invisible light projected from the invisible light projector; an image generator for measuring a shape of the object based on the image captured by the imaging unit to generate image data showing image content for projection onto the object in accordance with the measured shape; and a visible light projector for projecting the image content shown by the image data onto the object via visible light, wherein the invisible light projector is configured to emit pulsed invisible light to project said invisible light image, wherein said invisible light image is a measurement pattern with a pulse width having a timing superposed on a frame period for projecting one frame of said image content projected by the visible light projector, and wherein the imaging unit is configured to capture said image in accordance with the timing of the pulsed invisible light emission; characterized by said pulse width being smaller than said frame period for projecting one frame of said image content projected by the visible light projector, and by the amount of the pulsed invisible light emitted for the duration of the pulse width being larger than the amount of the visible light emitted by the visible light projector for the same duration. an invisible light projector for projecting a predetermined invisible light image onto the object via invisible light; an imaging unit for capturing an image of the invisible light projected from the invisible light projector; an image generator for measuring a shape of the object based on the image captured by the imaging unit to generate image data showing image content for projection onto the object in accordance with the measured shape; and a visible light projector for projecting the image content shown by the image data onto the object via visible light, wherein the invisible light projector is configured to emit pulsed invisible light to project said invisible light image, wherein said invisible light image is a measurement pattern with a pulse width having a timing superposed on a frame period for projecting one frame of said image content projected by the visible light projector, and wherein the imaging unit is configured to capture said image in accordance with the timing of the pulsed invisible light emission; characterized by said pulse width being smaller than said frame period for projecting one frame of said image content projected by the visible light projector, and by the amount of the pulsed invisible light emitted for the duration of the pulse width being larger than the amount of the visible light emitted by the visible light projector for the same duration.
A cable-style railing apparatus comprising: a pair of spaced-apart upright posts and having a plurality of cable returns; a cable extending in a serpentine fashion between the upright posts and threaded around the cable returns (222, 232) such that multiple portions of the cable each span between the upright posts; a tensioning device for tensioning the cable; a rigid beam extending between the spaced-apart posts and in contact with upper portions of the spaced-apart posts such that as the cable is tensioned by the tensioning device, the rigid beam keeps the upper portions of the spaced-apart posts a predetermined distance from one another, characterized in that the rigid beam defines a channel therein and the tensioning device is housed within the channel of the rigid beam. a pair of spaced-apart upright posts and having a plurality of cable returns; a cable extending in a serpentine fashion between the upright posts and threaded around the cable returns (222, 232) such that multiple portions of the cable each span between the upright posts; a tensioning device for tensioning the cable; a rigid beam extending between the spaced-apart posts and in contact with upper portions of the spaced-apart posts such that as the cable is tensioned by the tensioning device, the rigid beam keeps the upper portions of the spaced-apart posts a predetermined distance from one another, characterized in that the rigid beam defines a channel therein and the tensioning device is housed within the channel of the rigid beam.
Transdermal therapeutic system without release-determining membrane for delivering scopolamine, comprising a skin contact layer, an active substance-containing reservoir layer, an active substance-impermeable backing layer, and optionally a protective layer which is detachable from the skin contact layer, wherein the skin contact layer is in direct contact with the active substance-containing reservoir layer, wherein the active substance is present in the form of the free base of scopolamine, the active substance is present in dissolved form in the active substance-containing skin contact layer and is present in part in suspended form in the active substance-containing reservoir layer.
An injection system for storing syringes, comprising a housing, at least two syringes, each syringe having a chamber and a respective cap releasably attached to a distal end of the respective chamber, a storage compartment (104; 105), and a primary medication, wherein each cap is releasably attached to the housing via a hinge mechanism. a housing, at least two syringes, each syringe having a chamber and a respective cap releasably attached to a distal end of the respective chamber, a storage compartment (104; 105), and a primary medication, wherein each cap is releasably attached to the housing via a hinge mechanism.
A method, performed by a user equipment, UE, for selecting a wireless local area network, WLAN, access network comprising: communicating over a 3rd Generation Partnership Project, 3GPP, network and a non-cellular network; the method characterized by storing an access network discovery and selection function, ANDSF, management object, MO, comprising WLAN selection policies for network selection on the UE, the WLAN selection policies comprising interworking WLAN, I-WLAN, policies and Wi-Fi Alliance Hotspot 2.0, HS2.0, parameters; and selecting an available WLAN access network based on the WLAN selection polices of the ANDSF MO. communicating over a 3rd Generation Partnership Project, 3GPP, network and a non-cellular network; the method characterized by storing an access network discovery and selection function, ANDSF, management object, MO, comprising WLAN selection policies for network selection on the UE, the WLAN selection policies comprising interworking WLAN, I-WLAN, policies and Wi-Fi Alliance Hotspot 2.0, HS2.0, parameters; and selecting an available WLAN access network based on the WLAN selection polices of the ANDSF MO.
Control device constructed to communicate as a server and as a client with another control device via a communications network using the Simple Network Management Protocol, comprising: a supply device for preparing control data for process control; and a network device for transmitting or receiving the control data using the Simple Network Management Protocol, wherein the control device further comprises a server and a client for communicating via the communications network using the Simple Network Management Protocol. a supply device for preparing control data for process control; and a network device for transmitting or receiving the control data using the Simple Network Management Protocol, wherein the control device further comprises a server and a client for communicating via the communications network using the Simple Network Management Protocol.
Unit for the micronization of a solid active agent, such as a salt, preferably table salt (NaCl), comprising a micronizer driven by a motor, characterised in that the micronizer consists of a rotary block made of the active agent, a friction block adapted to be in frictioning relation with the rotary block, and a clamping mechanism adapted for holding the friction block in position and for clamping the friction block to the rotary block, the micronizer being disposed in a closed housing, and the wall surfaces of the housing being at least in part made of a material having a filtering capacity of 0.1-1000μm.
A non-ionic photoacid generator containing a sulfonate compound represented by general formula: wherein, in formula, R1 represents a naphthyl group, an anthracenyl group, or a coumarinyl group, in which R1 has a substituent, selected from an alkoxy group, an alkoxycarbonyl group, an aryloxycarbonyl group, an arylthio group, an alkylthio group, when R1 is the naphthyl group or the coumarinyl group, and may have a substituent as specified above when R1 is the anthracenyl group group; R2 represents a hydrogen atom, an alkyl group having 1 to 18 carbon atoms, an alkenyl group having 2 to 18 carbon atoms, an alkynyl group having 2 to 18 carbon atoms, or an aryl group having 6 to 18 carbon atoms; and R3 represents a linear alkyl group having 1 to 18 carbon atoms, a branched-chain alkyl group having 1 to 18 carbon atoms, a cycloalkyl group having 3 to 18 carbon atoms, or an aryl group having 6 to 10 carbon atoms, in which some or all hydrogen atoms may be substituted with fluorine.
A connector comprising a socket for receiving a plug having a plurality of pins wherein the socket is provided with a retaining mechanism (12,14) comprising a moveable member which is displaced by insertion of the pin to permit insertion of the pin but which seizes the pin on attempted withdrawal whereby the socket presents a greater resistance to withdrawal of at least one pin than to insertion of the pin characterised in that the connector is provided with a means for releasing the retaining mechanism to allow withdrawal of the pin.
Method for forming a collapsible bag in the interior space of a container by detaching bag material from an inner face of a wall of the container, the container comprising an extraction opening and a ventilation opening and the interior space of the container comprising an extraction side associated with the extraction opening and a ventilation side associated with the ventilation opening, the extraction side and the ventilation side being separated from one another by the bag material, and the bag material being stuck to the inner face of the wall of the container when in an initial state, a differential pressure being generated between the ventilation side and the extraction side and being changed such that the bag material stuck to the wall detaches, thereby forming the bag, a differential pressure being generated first, upon which there is an overpressure on the ventilation side in relation to the extraction side, resulting in the bag material detaching from the wall in part, and the differential pressure then being reversed in terms of sign and/or in terms of the direction of the differential pressure such that the already detached bag material lies again against the wall, characterised in that in a subsequent step, a differential pressure is generated again, upon which the pressure on the ventilation side is greater than on the extraction side such that the bag material in the already detached portion is moved away from the wall first and then another portion of the bag material is detached from the wall.
SAOC to MPEG Surround transcoder comprising an SAOC parsing block configured to regain, from an SAOC bit-stream input to the SAOC to MPEG Surround transcoder, a parametric information about audio objects that are mixed together to build a down-mix signal, the parametric information comprising, besides the number of the audio objects, object level envelope, OLE, parameters which describe the time-variant spectral envelopes of each of the audio objects, further configured to receive a rendering matrix calculated from information about the playback configuration on the one hand, and object positioning and amplification information, on the other hand, comprising a scene rendering engine configured to calculate, from the OLE parameters and the rendering matrix, a mapping of the N audio objects to the M output channels so as to obtain spatial cues comprising CLD and ICC parameters to be transmitted to a MPEG surround decoder by means of a standards-compliant surround bitstream matching the down-mix signal and multiplex the spatial cues and the down-mix signal into the standards-compliant Surround bitstream, wherein the scene rendering engine utilizes the rendering matrix to estimate the CLD and ICC parameters, wherein the OLE parameters describe the time-variant spectral envelope of a stereo object of two channels i and j, each being treated as individual object i and j, by parameter triplets { σ i 2, σ j 2, ICC i,j} per time/frequency tile, with σ i 2 denoting sub-band power values of channel i, σ j 2 denoting sub-band power values of channel j and ICC i,j denoting the pair-wise correlation between the channels i and j, wherein the rendering matrix W describes the mapping of the objects o i to the output channels s, wherein w s,i denotes the mixing gain of object i (1 ≤ i ≤ N) to loudspeaker s (1 ≤ s ≤ M), wherein the down-mix signal is a mono down-mix signal, the MPEG Surround decoder employs a tree populated using OTT elements that up-mix each mono input into two output audio signals, and the scene rendering engine is configured to derive, for OTT elements that are involved in reproducing playback signals that participate in the rendering of the stereo object, the ICC parameter based on a computation of an estimated power of a first output of the OTT element 0, p 0,1 2, an estimated power of a second output of the OTT element 0, p 0,2 2, and a cross power, R 0, by R 0 = ∑ i ∑ j IC C i, j ⋅ w 1, i w 2, j σ i σ j p 0,1 2 = ∑ i ∑ j w 1, i w 1, j σ i σ j IC C i, j. p 0,2 2 = ∑ i ∑ j w 2, i w 2, j σ i σ j IC C i, j, with performing the computation for each OTT element independently.
A waste-heat recovery system comprising: a compressor main body; a gas piping through which compressed gas delivered from the compressor main body flows; a waste-heat-recovery heat exchanger for recovering heat from the compressed gas flowing through the gas piping; a circulation circuit (17, 18) through which a heat medium that exchanges heat with the compressed gas in the waste-heat-recovery heat exchanger flows; a tank connected to the circulation circuit (17, 18) for storing water and having an inlet piping and an outlet piping for the water different from the circulation circuit (17, 18); a valve provided at the inlet piping and a valve provided at the outlet piping; a circulation pump installed in the circulation circuit (17, 18) to circulate the heat medium; a gas temperature sensor arranged in the gas piping that detects the temperature of the compressed gas; a water temperature sensor that detects the temperature of the water in the tank; and a control device that controls the valve provided at the inlet piping and the valve provided at the output piping according to a detection temperature of the gas temperature sensor and the water temperature sensor. a compressor main body; a gas piping through which compressed gas delivered from the compressor main body flows; a waste-heat-recovery heat exchanger for recovering heat from the compressed gas flowing through the gas piping; a circulation circuit (17, 18) through which a heat medium that exchanges heat with the compressed gas in the waste-heat-recovery heat exchanger flows; a tank connected to the circulation circuit (17, 18) for storing water and having an inlet piping and an outlet piping for the water different from the circulation circuit (17, 18); a valve provided at the inlet piping and a valve provided at the outlet piping; a circulation pump installed in the circulation circuit (17, 18) to circulate the heat medium; a gas temperature sensor arranged in the gas piping that detects the temperature of the compressed gas; a water temperature sensor that detects the temperature of the water in the tank; and a control device that controls the valve provided at the inlet piping and the valve provided at the output piping according to a detection temperature of the gas temperature sensor and the water temperature sensor.