mhurhangee/ep-ind-claims huggingface dataset:
A system for separating condensable vapors from light gases in a process stream by desublimating the condensable vapors, comprising: a direct contact heat exchanger unit, DCHE, including a non-volatile heat exchange liquid, NVHEL within a vessel, the vessel having a process stream inlet, a light gas outlet, an inlet for NVHEL and a desublimated solids outlet; the process stream inlet being configured to cause the condensable-vapor-containing process stream to directly contact the NVHEL within the vessel, wherein the system is configured to cool the NVHEL to a temperature and pressure such that direct contact of the NVHEL with the process stream causes the condensable vapors to desublimate and form separated cool gases and a slurry comprising desublimated solids and the NVHEL, the separated light-gas stream exiting the DCHE vessel through the light gas outlet, the desublimated solids exiting the DCHE vessel through the desublimated solids outlet; a solids separator for separating at least a portion of the desublimated solids from the NVHEL, wherein the solids separator is downstream from the desublimated solids outlet of the DCHE vessel; further comprising a recuperative upstream heat exchanger configured to cool the process stream upstream from the DCHE unit using the separated solids downstream from the solids outlet of the DCHE; further comprising a fluid recirculation loop (122, 132, 119) that provides a fluid path from the desublimated solids outlet to the NVHEL inlet of the DCHE and comprising a recirculation heat exchanger for said cooling of the NVHEL. a direct contact heat exchanger unit, DCHE, including a non-volatile heat exchange liquid, NVHEL within a vessel, the vessel having a process stream inlet, a light gas outlet, an inlet for NVHEL and a desublimated solids outlet; the process stream inlet being configured to cause the condensable-vapor-containing process stream to directly contact the NVHEL within the vessel, wherein the system is configured to cool the NVHEL to a temperature and pressure such that direct contact of the NVHEL with the process stream causes the condensable vapors to desublimate and form separated cool gases and a slurry comprising desublimated solids and the NVHEL, the separated light-gas stream exiting the DCHE vessel through the light gas outlet, the desublimated solids exiting the DCHE vessel through the desublimated solids outlet; a solids separator for separating at least a portion of the desublimated solids from the NVHEL, wherein the solids separator is downstream from the desublimated solids outlet of the DCHE vessel; further comprising a recuperative upstream heat exchanger configured to cool the process stream upstream from the DCHE unit using the separated solids downstream from the solids outlet of the DCHE; further comprising a fluid recirculation loop (122, 132, 119) that provides a fluid path from the desublimated solids outlet to the NVHEL inlet of the DCHE and comprising a recirculation heat exchanger for said cooling of the NVHEL.
A post unit (1,1a-b) for safety road barriers, wherein the post unit (1,1a-b) comprises: - a post, - a base part having a hollow body defining a space for receiving the post, and - a fastening member for fastening the post to the base part when the post is inserted into the base part, characterized in that the fastening member is elongated and has an upper portion comprising a fastening arrangement for fastening the fastening member to the post, and a lower portion adapted to be inserted into the space of the base part, the lower portion comprises a protrusion having a first end adapted to be engaged with a first side wall of the base part when the lower portion is inserted in the base part, the fastening arrangement and the post comprises a respective through-hole (26, 30), and the fastening arrangement comprises fastening means to be arranged in the through-holes (26, 30) for attaching the upper portion of the fastening member to the post. - a post, - a base part having a hollow body defining a space for receiving the post, and - a fastening member for fastening the post to the base part when the post is inserted into the base part, characterized in that the fastening member is elongated and has an upper portion comprising a fastening arrangement for fastening the fastening member to the post, and a lower portion adapted to be inserted into the space of the base part, the lower portion comprises a protrusion having a first end adapted to be engaged with a first side wall of the base part when the lower portion is inserted in the base part, the fastening arrangement and the post comprises a respective through-hole (26, 30), and the fastening arrangement comprises fastening means to be arranged in the through-holes (26, 30) for attaching the upper portion of the fastening member to the post.
Electrical machine comprising a rotor, a stator with a circumferentially arranged stator winding which is composed of an electrically conductive material, and a housing, wherein a fan which is connected to the rotor in a rotationally fixed manner and has radially extending vanes is arranged on an end side of the rotor, characterized in that the housing has a first opening and a second opening which extends in the circumferential direction, and a cooling medium is drawn in by the fan via the first opening and is quickly blown out past a short-circuiting ring of the rotor through intermediate spaces between the end windings of the stator winding and the stator via the second opening; in that the fan has a conducting ring which is arranged outside the vanes in the radial direction and has a conical inner face; in that the first opening is arranged in such a way that the cooling medium is drawn in by the fan substantially in the radial direction; and in that the second opening is arranged in the housing in the region of the intermediate spaces in such a way that the cooling medium flows radially out of the intermediate spaces.
A method of a node (101, 102) of a network determining a beam configuration of a beam (301-309, 311-313) used for transmission of data on a wireless link of the network, the method comprising: - exchanging, with a further node (101, 102) of the network, a beam sweep configuration (4001, 4002), - transmitting and/or receiving pilot signals in a plurality of beams (301-309, 311-313) of at least one beam sweep which is configured in accordance with the beam sweep configuration (4001, 4002) - determining the beam configuration based on a receive property of the pilot signals, and - selecting the beam sweep configuration (4001, 4002) from a plurality of candidate beam sweep configurations exchanged with the further node (101, 102), wherein the beam sweep configuration (4001, 4002) is indicative of a time-duplex configuration of the plurality of beams (301-309, 311-313) of each beam sweep of the at least one beam sweep. - exchanging, with a further node (101, 102) of the network, a beam sweep configuration (4001, 4002), - transmitting and/or receiving pilot signals in a plurality of beams (301-309, 311-313) of at least one beam sweep which is configured in accordance with the beam sweep configuration (4001, 4002) - determining the beam configuration based on a receive property of the pilot signals, and - selecting the beam sweep configuration (4001, 4002) from a plurality of candidate beam sweep configurations exchanged with the further node (101, 102),
A turbo-generator assembly for producing electrical power underwater, the assembly comprising: a pressure-resistant shell that defines a sealed internal chamber; at least one water inlet extending through the shell to effect fluid communication between the chamber and a body of water surrounding the shell; a turbine supported within the chamber to turn on a spin axis in response to admission of a flow of water into the chamber via the or each water inlet; at least one tubular penstock structure that is in fluid communication with the chamber via the or each water inlet; and a drainage receptacle that communicates with the chamber to receive water falling from the turbine, wherein the drainage receptacle is attached to or integrated with an accessory module of a pipeline or with a towhead module (56, 58) of a pipeline bundle, characterised in that the shell is separably mountable and sealable to the drainage receptacle. a pressure-resistant shell that defines a sealed internal chamber; at least one water inlet extending through the shell to effect fluid communication between the chamber and a body of water surrounding the shell; a turbine supported within the chamber to turn on a spin axis in response to admission of a flow of water into the chamber via the or each water inlet; at least one tubular penstock structure that is in fluid communication with the chamber via the or each water inlet; and a drainage receptacle that communicates with the chamber to receive water falling from the turbine, wherein the drainage receptacle is attached to or integrated with an accessory module of a pipeline or with a towhead module (56, 58) of a pipeline bundle, characterised in that the shell is separably mountable and sealable to the drainage receptacle.
A one component epoxy resin composition comprising: (a) 100 parts by weight of liquid epoxy resin; (b) a latent curing agent in an amount of 10 to 35 parts by weight, wherein the latent curing agent comprises at least one selected from the group consisting of an amine compound, an imidazole compound and their adducts; (c) liquid phenol resin in an amount of 0.1 to 25 parts by weight, (d) at least one organic acid or at least one boric acid ester as a stabilizing agent. (a) 100 parts by weight of liquid epoxy resin; (b) a latent curing agent in an amount of 10 to 35 parts by weight, wherein the latent curing agent comprises at least one selected from the group consisting of an amine compound, an imidazole compound and their adducts; (c) liquid phenol resin in an amount of 0.1 to 25 parts by weight, (d) at least one organic acid or at least one boric acid ester as a stabilizing agent.
Distance measuring device with a light source adapted to illuminate an object with light pulses (7, 8) having a duration T p, at least one photo element adapted to capture the light pulses after being back reflected from the object, a trigger generator for controlling the emission of the light pulses and for activating the photo element during temporal integration gates (11, 12), wherein the photo element is adapted to output a signal value U at the end of each integration gate (11, 12) with the signal value U being proportional to the energy of the light arriving on the photo element during its activation, characterized in that the trigger generator stores a trigger scheme to control the emission of the light pulses (7, 8) such that a sequence of the light pulses (7, 8) comprising four consecutive light pulses (7, 8) consisting of two light pulses having an intensity I e,l and two light pulses having an intensity I e,h being higher than I e,l is emitted and that the repetition rate 1/Δ rep of the light pulses (7, 8) is constant, and to activate the photo element such that the delays between the integration gates (11, 12) and the emission start points in time of the four light pulses (7, 8) are such that the light pulses (9, 10) arriving on the photo element are captured such that one arriving light pulse corresponding to the intensity I e,l and one arriving light pulse corresponding to the intensity I e,h are captured by the photo element within first integration gates with an integration start point in time T 1,s and an integration end point in time T 1,e as well as the other arriving light pulse corresponding to the intensity I e,l and the other arriving light pulse corresponding to the intensity I e,h are captured by the photo element within second integration gates with an integration start point in time T 2,s and an integration end point in time T 2,e, wherein the delay for the first integration gates is chosen such that either T 1,s or T 1,e is between Δ tof and Δ tof +T p and the delay for the second integration gates is chosen such that the respective light pulses are at least partially within the second integrations gates, wherein T 1,s. T 1,e, T 2,s, T 2,e are the delays from the emission start point in time and Δ tof is the first point in time the arriving light pulses (9, 10) arrive on the photo element, and a processing unit adapted to calculate the distance between the distance measuring device and the object by using the difference of the signal values U being output at the end of the first integration gates and the difference of the signal values U being output at the end of the second integration gates.
An in vitro method for use in diagnosis of Alzheimer's disease in a human subject which comprises screening for the presence in the genome of said subject of at least one mutation or allelic variant in a cell cycle regulatory gene selected from: CDKN3, p15ink4B, p16ink4A, p19ink4D, p27kip1, p21cip1, p57kip2 and TP53, wherein the presence of a mutation or allelic variant in a cell cycle regulatory gene is taken as an indication of Alzheimer's disease.
A semiconductor device comprising: an avalanche photodiode unit configured to receive incident light to generate a trigger current and comprising a wide band-gap semiconductor; and a thyristor unit configured to receive and be activated by the trigger current to an electrically conductive state; wherein the avalanche photodiode unit and the thyristor unit are integrally formed on a wide band-gap semiconductor body. an avalanche photodiode unit configured to receive incident light to generate a trigger current and comprising a wide band-gap semiconductor; and a thyristor unit configured to receive and be activated by the trigger current to an electrically conductive state; wherein the avalanche photodiode unit and the thyristor unit are integrally formed on a wide band-gap semiconductor body.
A control system for controlling a plant, the control system comprising a feedback loop including an integrator; a signal generator; and a scaling unit, wherein the control system is arranged such that: the feedback loop comprises an input suitable for connection to an output of the plant; the integrator integrates a signal received from the input to generate a state signal x̂; and the signal generator generates a periodic base perturbation signal with an initial amplitude; characterised in that: the scaling unit generates a scaling factor having a first value if the variance of the state signal var ( x̂) is zero, or a second value if the variance of the state signal is non-zero, wherein the second value is proportional to e − 1 var x ^; wherein the scaling unit is arranged to multiply the initial amplitude of the periodic base perturbation signal by the scaling factor to produce a state dependent perturbation signal (35, 36), which is provided at an output of the control system suitable for connection to an input of the plant. the feedback loop comprises an input suitable for connection to an output of the plant; the integrator integrates a signal received from the input to generate a state signal x̂; and the signal generator generates a periodic base perturbation signal with an initial amplitude; characterised in that: the scaling unit generates a scaling factor having a first value if the variance of the state signal var ( x̂) is zero, or a second value if the variance of the state signal is non-zero, wherein the second value is proportional to e − 1 var x ^; wherein the scaling unit is arranged to multiply the initial amplitude of the periodic base perturbation signal by the scaling factor to produce a state dependent perturbation signal (35, 36), which is provided at an output of the control system suitable for connection to an input of the plant. the scaling unit generates a scaling factor having a first value if the variance of the state signal var ( x̂) is zero, or a second value if the variance of the state signal is non-zero, wherein the second value is proportional to e − 1 var x ^; wherein the scaling unit is arranged to multiply the initial amplitude of the periodic base perturbation signal by the scaling factor to produce a state dependent perturbation signal (35, 36), which is provided at an output of the control system suitable for connection to an input of the plant.
Body (1 III - 1 V), in particular box body, of a commercial vehicle, preferably a truck, trailer or semi-trailer, with a loading space (7 III -7 V) arranged therein and at least one lighting unit (8 III -8 V) for illuminating the loading space (7 III -7 V), wherein the lighting unit (8 III -8 V) is elongated shaped, in particular strip-shaped, and is at least partially received in at least one receptacle (11 III -11 V) of an receiving component (9 III -9 V) limiting the loading space (7 III -7 V), in that the part of the lighting unit (8-8 V) received in the receptacle (11 III -11 V) is not protruding with respect to the receptacle component (9 III -9 V), in particular to the regions of the receptacle component (9 III -9 V) provided on opposite sides of the lighting unit (8 III -8 V), into the loading space (7 III -7 V) wherein the at least one lighting unit (9 III -9 V) is mounted in at least one intermediate piece (16 III -16 V), wherein the intermediate piece (16 III -16 V) together with the lighting unit (8 III -8 V) is at least partially received in the receptacle (11 III -11 V) of the receiving component (9 III -9 V), wherein the at least one intermediate piece (16 III -16 V) is held in the receiving component (9 III -9 V) at least partially by a snap-in connection and/or adhesive connection and wherein the at least one receiving component (9 V) comprises a roof panel (3 V) and/or a side wall panel (4 V) with an inner cover layer (5 V) adjoining the loading space (7 V) and/or the at least one receiving component (9 III,9 IV) is a profile (12 III,12 IV), wherein the intermediate piece (16 III -16 V) is arranged on the side of the inner cover layer (5 III -5 V) of the roof panel (3 III -3 V) and/or side wall panel (4 III -4 V) facing the loading space (7 III -7 V).
A compound having the general formula wherein the pyridine rings A, B and C are independently unsubstituted or substituted by one or more substituents which are independently selected from the group consisting of C 1-6 -alkyl, haloalkyl having 1 to 6 carbon atoms, Hal or OR 13; L 1 and L 2 are independently selected from moieties having the formula (a) or (b) wherein at least one of L 1 or L 2 has the formula (b); R 1 and R 2 are independently selected from the group consisting of hydrogen, C 1-6 -alkyl, and phenyl; R 3 is selected from hydrogen and C 1-6 -alkyl; R 4, R 5, R 6, and R 7 are independently selected from the group consisting of hydrogen and C 1-6 -alkyl; R 8, R 9, R 10, and R 11 are independently selected from the group consisting of hydrogen and C 1-6 -alkyl; R 12 is selected from the group consisting of hydrogen and C 1-6 -alkyl; R 13 is independently selected from hydrogen, C 1-6 -alkyl, and phenyl; p is 1 or 2; q is 0, 1 or 2; and Hal is selected from the group consisting of F, Cl, Br, and I; or a pharmaceutically acceptable salt thereof. the pyridine rings A, B and C are independently unsubstituted or substituted by one or more substituents which are independently selected from the group consisting of C 1-6 -alkyl, haloalkyl having 1 to 6 carbon atoms, Hal or OR 13; L 1 and L 2 are independently selected from moieties having the formula (a) or (b) wherein at least one of L 1 or L 2 has the formula (b); R 1 and R 2 are independently selected from the group consisting of hydrogen, C 1-6 -alkyl, and phenyl; R 3 is selected from hydrogen and C 1-6 -alkyl; R 4, R 5, R 6, and R 7 are independently selected from the group consisting of hydrogen and C 1-6 -alkyl; R 8, R 9, R 10, and R 11 are independently selected from the group consisting of hydrogen and C 1-6 -alkyl; R 12 is selected from the group consisting of hydrogen and C 1-6 -alkyl; R 13 is independently selected from hydrogen, C 1-6 -alkyl, and phenyl; p is 1 or 2; q is 0, 1 or 2; and Hal is selected from the group consisting of F, Cl, Br, and I;
Process for preparing triaryl organoborates of the formula 1 / n K n + R 3 4 B − − R 1 where one equivalent of an organoboronic ester of the formula B-R 1 (OR 2) (OR 3) is initially charged together with 1/n equivalents of salt K n+ nX - and 3 equivalents of metal M in a solvent or a solvent mixture S, 3 equivalents of a haloaromatic R 4 -Y are added, water and optionally a second organic solvent S is added and the compound 1 / n K n + R 3 4 B − − R 1 is separated off with the organic phase, and R 1 is an optionally hydroxyl- and/or alkoxy- and/or acyloxy- and/or halogen-substituted C 1 - to C 22 -alkyl, C 3 - to C 22 -alkenyl, C 3 - to C 22 -alkynyl, C 5 -to C 7 -cycloalkyl or C 7 - to C 13 -aralkyl radical and R 2 and R 3 are independently an optionally branched C 1 - to C 22 -alkyl radical or an optionally alkylsubstituted C 3 - to C 7 -cycloalkyl radical or R 2 and R 3 together form a 2-8-membered carbon bridge which is optionally substituted by alkyl and/or interrupted by oxygen atoms and R 4 is a C 6 - to C 10 -aryl radical optionally substituted by at least one radical selected from halogen, C 1 -to C 4 -alkyl, trifluoromethyl, C 1 -to C 4 -alkoxy, trifluoromethoxy, phenyl and phenoxy and K is an organocation of valency n and having any substitution, based on nitrogen, phosphorus, oxygen, sulfur and/or iodine, and M is any metal selected from the alkali metals, magnesium, calcium and aluminium and X is a halide or alkoxide or alkyl sulfide and Y is iodine or bromine or chlorine and n is 1, 2 or 3 and S is an aprotic organic solvent or a mixture of aprotic solvents.
A test and measurement instrument comprising: an input circuit for receiving an input signal; an acquisition memory structured to store a digital signal related to the input signal; and a trigger subsystem having: one or more event decoders operative responsive to one or more features of the input signal or the digital signal to detect that a series of events occurred; the test and measurement instrument is characterised by a timer structured to detect that a last previously detected event in the series of events is a final event in the series of events based on passage of a timeout period after the last previously detected event; and a last event analyzer structured to generate a trigger signal in response to detecting that the final event in the series of events occurred. an input circuit for receiving an input signal; an acquisition memory structured to store a digital signal related to the input signal; and a trigger subsystem having: one or more event decoders operative responsive to one or more features of the input signal or the digital signal to detect that a series of events occurred; the test and measurement instrument is characterised by a timer structured to detect that a last previously detected event in the series of events is a final event in the series of events based on passage of a timeout period after the last previously detected event; and a last event analyzer structured to generate a trigger signal in response to detecting that the final event in the series of events occurred. one or more event decoders operative responsive to one or more features of the input signal or the digital signal to detect that a series of events occurred; the test and measurement instrument is characterised by a timer structured to detect that a last previously detected event in the series of events is a final event in the series of events based on passage of a timeout period after the last previously detected event; and a last event analyzer structured to generate a trigger signal in response to detecting that the final event in the series of events occurred.