mhurhangee/ep-ind-claims huggingface dataset:
A fermented malt beverage obtainable by fermenting a malt with a yeast, characterized in that the fermented malt beverage fulfills the following and: a bitterness unit measured in accordance with a method described in the section 8.15 Bitterness Units of The Methods of Analysis of BCOJ: 30 to 45 BU; and a total content of sugars composed of glucose, sucrose, maltose, isomaltose, and a trisaccharide: 0.9 to 3.0 w/v %, wherein the weight ratio of the trisaccharide to the monosaccharide and the disaccharide (trisaccharide/monosaccharide and disaccharide) is from 1.0 to 3.0; wherein the bitterness unit is adjusted by adjusting a boiling time of hops in a boiling tank after the addition of the hops. a bitterness unit measured in accordance with a method described in the section 8.15 Bitterness Units of The Methods of Analysis of BCOJ: 30 to 45 BU; and a total content of sugars composed of glucose, sucrose, maltose, isomaltose, and a trisaccharide: 0.9 to 3.0 w/v %, wherein the weight ratio of the trisaccharide to the monosaccharide and the disaccharide (trisaccharide/monosaccharide and disaccharide) is from 1.0 to 3.0; wherein the bitterness unit is adjusted by adjusting a boiling time of hops in a boiling tank after the addition of the hops.
A method for the direct reduction of iron, comprising: using hydrogen as a chemical carrier for removal of oxygen from iron ore and regenerating resulting steam by electrolysis; wherein top gas from a shaft furnace is dedusted without condensing steam in the top gas; wherein no liquid water is added to a process loop associated with the method; wherein the hydrogen is produced using water vapor present in the top gas from the shaft furnace using an electrolyzer forming a portion of the process loop,. and wherein the electrolyzer comprises a solid oxide electrolyzer. using hydrogen as a chemical carrier for removal of oxygen from iron ore and regenerating resulting steam by electrolysis; wherein top gas from a shaft furnace is dedusted without condensing steam in the top gas; wherein no liquid water is added to a process loop associated with the method; wherein the hydrogen is produced using water vapor present in the top gas from the shaft furnace using an electrolyzer forming a portion of the process loop,. and wherein the electrolyzer comprises a solid oxide electrolyzer.
A stent with a tubular framework structure consisting of interconnected stent struts fabricated as a whole from a bioresorbable material and being convertible from a compressed first geometric shape into a radially dilated, dimensionally stable, tubular second geometric shape, characterized in that all the stent struts of the tubular framework structure are made of a uniform bioresorbable material; the tubular framework structure comprises at least one surface region, which is contiguous in one piece and is situated on a lateral cylindrical surface that can be attributed to the framework structure, the surface region comprising the stent struts that are surrounded by stent struts of the framework structure that are directly and/or indirectly adjacent to the surface region, such that the stent struts within the surface region have a smaller amount by mass of bioresorbable material per one predefinable discrete strut length, hereinafter referred to simply as per strut length, than the stent struts of the framework structure adjacent directly or indirectly to the surface regions, the surface region is surrounded by a self-contained circumferential edge inscribing the surface region, the circumferential edge being virtual or defined by a stent strut structure, and the amount by mass of bioresorbable material per strut length of the stent struts within the surface region decreases continuously or gradually with an increase in the distance of the stent struts from the circumferential edge and/or the stent struts of the framework structure directly and/or indirectly adjacent to the surface region are coated with at least one first bioresorbable material layer, and the stent struts inside the surface region are coated with at least one second bioresorbable material layer, which is bioresorbable in a shorter period of time than the first bioresorbable material layer, and that a layer thickness that can be attributed to the at least one second material layer decreases continuously or gradually with an increase in the distance of the stent struts coated with the second material layer from the circumferential edge.
A robotic arm comprising: a first motor having a first axis of rotation; a second motor having a second axis of rotation; a ground link coupling the first motor to the second motor; a first inboard link coupled to the first motor at the first axis of rotation, the first inboard link having a first intermediate axis spaced apart from the first axis of rotation; a first outboard link pivotally coupled to the first inboard link by a first intermediate joint at the first intermediate axis, the first outboard link having an outboard axis spaced apart from the first intermediate axis; a second inboard link coupled to the second motor at the second axis of rotation, the second inboard link having a second intermediate axis spaced apart from the second axis of rotation; a second outboard link pivotally coupled to the second inboard link by a second intermediate joint at the second intermediate axis and to the first outboard link at the outboard axis; wherein the five axes all pass through a remote center of spherical rotation that is spaced apart from all five links; and a controller to provide signals to the first and second motors to respectively rotate the first inboard link and the second inboard link characterised in that the controller is configured to provide the signals such that the first and second intermediate joints are on the same side of and spaced apart from a plane that includes the outboard axis and either of the first or second axis of rotation. a first motor having a first axis of rotation; a second motor having a second axis of rotation; a ground link coupling the first motor to the second motor; a first inboard link coupled to the first motor at the first axis of rotation, the first inboard link having a first intermediate axis spaced apart from the first axis of rotation; a first outboard link pivotally coupled to the first inboard link by a first intermediate joint at the first intermediate axis, the first outboard link having an outboard axis spaced apart from the first intermediate axis; a second inboard link coupled to the second motor at the second axis of rotation, the second inboard link having a second intermediate axis spaced apart from the second axis of rotation; a second outboard link pivotally coupled to the second inboard link by a second intermediate joint at the second intermediate axis and to the first outboard link at the outboard axis; wherein the five axes all pass through a remote center of spherical rotation that is spaced apart from all five links; and a controller to provide signals to the first and second motors to respectively rotate the first inboard link and the second inboard link characterised in that the controller is configured to provide the signals such that the first and second intermediate joints are on the same side of and spaced apart from a plane that includes the outboard axis and either of the first or second axis of rotation.
A nozzle tip connectable to a hot runner nozzle, the nozzle tip comprising: an inner tip component including a base with a channel bore that extends therethrough, a torpedo having a first tapered portion, a second tapered portion and an inner extension portion that extends therebetween, the first tapered portion surrounded by an expanding portion of the channel bore so as to define a first annular channel segment therebetween, and a connector that extends between the first tapered portion of the torpedo and the expanding portion of the channel bore; and an outer tip component having an attachment portion for connecting the nozzle tip to the hot runner nozzle, an outer extension portion that projects from the attachment portion, and a bore that extends through the attachment portion and the outer extension portion; and the inner tip component received in the outer tip component so as to define a second annular channel segment between the inner extension portion of the torpedo and the bore that extends though outer tip component, and a third annular channel segment between an external conical surface of the second tapered portion of the torpedo and an internal tapered surface of a contracting portion of the bore that extends through the outer tip component. an inner tip component including a base with a channel bore that extends therethrough, a torpedo having a first tapered portion, a second tapered portion and an inner extension portion that extends therebetween, the first tapered portion surrounded by an expanding portion of the channel bore so as to define a first annular channel segment therebetween, and a connector that extends between the first tapered portion of the torpedo and the expanding portion of the channel bore; and an outer tip component having an attachment portion for connecting the nozzle tip to the hot runner nozzle, an outer extension portion that projects from the attachment portion, and a bore that extends through the attachment portion and the outer extension portion; and the inner tip component received in the outer tip component so as to define a second annular channel segment between the inner extension portion of the torpedo and the bore that extends though outer tip component, and a third annular channel segment between an external conical surface of the second tapered portion of the torpedo and an internal tapered surface of a contracting portion of the bore that extends through the outer tip component.
An oral care composition comprising a salt of arginine and an acidic polymer which is a copolymer of methyl vinyl ether and maleic anhydride and has a molecular weight of 30,000 to 800,000.
A hydrothermal synthesis device for continuously preparing an inorganic slurry using a hydrothermal method, the hydrothermal synthesis device comprising: a mixer to mix at least one precursor solution for preparing an inorganic material, injected via at least one supply tube, to prepare an intermediate slurry; a connection tube provided at a side of the mixer, continuously discharging the prepared intermediate slurry to a reactor, and the connection tube being in direct contact with the reactor and having a hydrophobic coating formed on the entire inner surface of the connection tube; and the reactor performing hydrothermal reaction of the intermediate slurry supplied from the connection tube by receiving a liquid stream heated to supercritical or subcritical conditions using a heat exchanger and connected to the connection tube into which the intermediate slurry prepared from the mixer is introduced and to at least one injection tube into which the heated liquid stream is injected. a mixer to mix at least one precursor solution for preparing an inorganic material, injected via at least one supply tube, to prepare an intermediate slurry; a connection tube provided at a side of the mixer, continuously discharging the prepared intermediate slurry to a reactor, and the connection tube being in direct contact with the reactor and having a hydrophobic coating formed on the entire inner surface of the connection tube; and the reactor performing hydrothermal reaction of the intermediate slurry supplied from the connection tube by receiving a liquid stream heated to supercritical or subcritical conditions using a heat exchanger and connected to the connection tube into which the intermediate slurry prepared from the mixer is introduced and to at least one injection tube into which the heated liquid stream is injected.
A user device comprising: an interface component configured for communicating with a server over a network; a wireless interface component; and a processor (302, 337) that implements a machine learning function configured: to monitor user interactions with the user device over time to establish a use profile, to detect anomalous use of the user device based on a variance from the use profile, to determine whether the anomalous use is representative of a security threat, and to instruct the user device to perform one or more automatic actions to respond to determining that the anomalous use is representative of the security threat, wherein performing the one or more automatic actions comprises activating the wireless interface component to spoof a wireless network, to collect information of a wireless device that connects to the wireless network, and to report the information of the wireless device via the interface component. an interface component configured for communicating with a server over a network; a wireless interface component; and a processor (302, 337) that implements a machine learning function configured: to monitor user interactions with the user device over time to establish a use profile, to detect anomalous use of the user device based on a variance from the use profile, to determine whether the anomalous use is representative of a security threat, and to instruct the user device to perform one or more automatic actions to respond to determining that the anomalous use is representative of the security threat, wherein performing the one or more automatic actions comprises activating the wireless interface component to spoof a wireless network, to collect information of a wireless device that connects to the wireless network, and to report the information of the wireless device via the interface component. to monitor user interactions with the user device over time to establish a use profile, to detect anomalous use of the user device based on a variance from the use profile, to determine whether the anomalous use is representative of a security threat, and to instruct the user device to perform one or more automatic actions to respond to determining that the anomalous use is representative of the security threat, wherein performing the one or more automatic actions comprises activating the wireless interface component to spoof a wireless network, to collect information of a wireless device that connects to the wireless network, and to report the information of the wireless device via the interface component.
A full length antibody, wherein at least one heavy chain has a C-terminal extension having an amino acid sequence comprising EEQYASTY (SEQ ID NO:1), EEQYQSTY (SEQ ID NO:2), EEQYNSTY (SEQ ID NO:3), EEQYQS (amino acids 1 through 6 of SEQ ID NO:2), EEQYQST (amino acids 1 through 7 of SEQ ID NO: 2), EQYQSTY (amino acids 2 through 8 of SEQ ID NO:2), QYQS (amino acids 3 through 6 of SEQ ID NO: 6), or QYQSTY (amino acids 3 through 8 of SEQ ID NO: 2).
Method for identifying a denial-of-service-attack, wherein the method comprises the following steps: receiving a data packet originating from a target server by a monitoring server, to which a response network address is assigned; and outputting a warning signal by the monitoring server, if the received data packet is a response packet received unrequestedly by the monitoring server. receiving a data packet originating from a target server by a monitoring server, to which a response network address is assigned; and outputting a warning signal by the monitoring server, if the received data packet is a response packet received unrequestedly by the monitoring server.
Process for depositing nanoparticles on a substrate and comprising the following steps: a) generating an aerosol from a suspension of nanoparticles in a liquid; b) generating, with the aerosol, a jet of nanoparticles in a carrier gas, under vacuum; c) depositing said nanoparticles of the jet on a substrate; characterised in that step a) is implemented from a surfactant-free suspension, wherein the nanoparticles comprise a core made of a conductive or semiconductor material coated by a shell made of silicon dioxide (SiO 2), said suspension being produced with the following steps: 1) providing a suspension in a liquid of nanoparticles stabilised with a surfactant, for example citrate or CTAB (hexadecyltrimethylammonium bromide); 2) bringing the suspension thus provided in contact with MPTMS (3-mercaptopropyl)trimethoxysilane) to obtain a suspension of nanoparticles coated with silicon dioxide (SiO 2) and surfactant free. a) generating an aerosol from a suspension of nanoparticles in a liquid; b) generating, with the aerosol, a jet of nanoparticles in a carrier gas, under vacuum; c) depositing said nanoparticles of the jet on a substrate; 1) providing a suspension in a liquid of nanoparticles stabilised with a surfactant, for example citrate or CTAB (hexadecyltrimethylammonium bromide); 2) bringing the suspension thus provided in contact with MPTMS (3-mercaptopropyl)trimethoxysilane) to obtain a suspension of nanoparticles coated with silicon dioxide (SiO 2) and surfactant free.
A method of using tagging signals for leakage detection and measurement in cable television networks, the detection of the tagging signals by an apparatus for leakage detection and/or measurement allowing to determine the localization of leakage points, characterized in that at least one narrowband tagging signal is placed in an associated at least one guard band, GB, between analog or digital cable television channels carrying television, radio or data services, wherein the at least one narrowband signal is a sinusoidal wave modulated with amplitude with a modulation frequency in the range from 1 to 50 Hz and with a modulation depth not exceeding 30%.
A network comprising a plurality of nodes (A, B, 4), the plurality of nodes comprising a first node and a second node, the first and second nodes being connected through the network of nodes via a first path and a second path, the first and second paths being different, in which the network has first and second modes of operation, a first mode in which traffic between the first and second nodes is transmitted over the first path and not the second path, and a second mode where the traffic is transmitted over the first and second paths, wherein the network comprises a mode selector arranged to select the mode of operation based upon a level of traffic for the destination node.
A method for adjusting a carrier frequency of a multiple-input multiple-output microwave device, comprising: obtaining, by an indoor unit, IDU, a frequency of a radio frequency-reference crystal oscillator of each outdoor unit, ODU, and a first frequency multiplication factor of each ODU, wherein the first frequency multiplication factor is a ratio of a transmit frequency design value of a remote radio frequency unit corresponding to each ODU to the frequency of the radio frequency-reference crystal oscillator of the ODU; selecting, by the IDU, one of the frequencies of the radio frequency-reference crystal oscillators as a reference frequency, wherein an ODU corresponding to the reference frequency is a reference ODU; and adjusting, by the IDU, a carrier frequency of the multiple-input multiple-output microwave device according to the first frequency multiplication factor and a radio frequency offset between the reference frequency and the frequency of the radio frequency-reference crystal oscillator of each of the other ODUs, wherein the other ODUs refer to all the ODUs except the reference ODU. obtaining, by an indoor unit, IDU, a frequency of a radio frequency-reference crystal oscillator of each outdoor unit, ODU, and a first frequency multiplication factor of each ODU, wherein the first frequency multiplication factor is a ratio of a transmit frequency design value of a remote radio frequency unit corresponding to each ODU to the frequency of the radio frequency-reference crystal oscillator of the ODU; selecting, by the IDU, one of the frequencies of the radio frequency-reference crystal oscillators as a reference frequency, wherein an ODU corresponding to the reference frequency is a reference ODU; and adjusting, by the IDU, a carrier frequency of the multiple-input multiple-output microwave device according to the first frequency multiplication factor and a radio frequency offset between the reference frequency and the frequency of the radio frequency-reference crystal oscillator of each of the other ODUs, wherein the other ODUs refer to all the ODUs except the reference ODU.
An obstruction for preventing entry of animals in an opening defined by a curved roof tile (12, 100), the obstruction comprising: an obstruction plate for at least partially obstructing the opening; a bendable leg extending outwardly from an upper edge of the obstruction plate, the bendable leg being integral with the obstruction plate and extending in the plane of the obstruction plate when not bent; and a clip defining an aperture, the bendable leg passing through the aperture, the clip being selectively slidable along the bendable leg, the clip being configured for clipping onto the curved roof tile (12, 100). an obstruction plate for at least partially obstructing the opening; a bendable leg extending outwardly from an upper edge of the obstruction plate, the bendable leg being integral with the obstruction plate and extending in the plane of the obstruction plate when not bent; and a clip defining an aperture, the bendable leg passing through the aperture, the clip being selectively slidable along the bendable leg, the clip being configured for clipping onto the curved roof tile (12, 100).