mhurhangee/ep-ind-claims huggingface dataset:
Pharmaceutical composition for use in the treatment of inhibiting tumor development in mammals comprising an effective amount of Human Tamm-Horsfall glycoprotein, native or 5 pegylated, and a pharmacologically acceptable excipient.
Combination sensor module for a vehicle, having at least one first sensor submodule and one second sensor submodule, both sensor submodules (4a, b) being arranged in the combination sensor module and being connectable to the electronics of the vehicle, characterized in that the at least two sensor submodules (4a, b) are operable independently of one another, wherein the combination sensor module is configured to be operable only with the functionality of the second sensor submodule in the event of selective production damage to the first sensor submodule, to be operable only with the functionality of the first sensor submodule in the event of selective production damage to the second sensor submodule, and to be operable with the functionality of the two sensor submodules (4a, b) in the event of no production damage.
Aircraft seat having a seat assembly, wherein - the seat assembly comprising a seat substructure, a seat base and a seat surface assembly, wherein - the aircraft seat has a rocking capability between the seat base and/or the seat substructure and at least parts of the seat surface assembly about a transverse axis, wherein - the upper part of the seat surface assembly is rockable relative to the seat substructure and/or the seat base by a rocker joint, and - a force-limiting device is provided which, when activated by exceeding a force limit, enables a force-limited rocking movement of the seat surface assembly, wherein - the rocking of the seat surface assembly can be blocked by a blocking element, characterized in that - in this blocked state, the force-limited rocking movement takes place under permanent energy absorption of the force-limiting device. - the seat assembly comprising a seat substructure, a seat base and a seat surface assembly, wherein - the aircraft seat has a rocking capability between the seat base and/or the seat substructure and at least parts of the seat surface assembly about a transverse axis, wherein - the upper part of the seat surface assembly is rockable relative to the seat substructure and/or the seat base by a rocker joint, and - a force-limiting device is provided which, when activated by exceeding a force limit, enables a force-limited rocking movement of the seat surface assembly, - the rocking of the seat surface assembly can be blocked by a blocking element, characterized in that - in this blocked state, the force-limited rocking movement takes place under permanent energy absorption of the force-limiting device.
Method for regulating the temperature of a climate chamber comprising a temperature-controlled compartment in which a product such as hatching eggs or chickens, in particular chicks, is provided, wherein the climate chamber comprises: ▪ a fan; ▪ a supply channel extending from the fan up to the compartment; ▪ a temperature sensor provided in the supply channel; an air stream being supplied to the compartment by the fan via the supply channel; the temperature of the air flowing through the supply channel being detected by means of the temperature sensor; wherein the aforementioned temperature sensor is present in the supply channel; and wherein the temperature of the air flowing through the supply channel is detected by means of the temperature sensor; characterized in that the rotational speed of the fan is adjusted for influencing the temperature of the air displaced by the fan, and wherein the rotational speed of the fan is adjusted as a function of the temperature detected by the temperature sensor, wherein the temperature detected by the temperature sensor is compared with a target temperature, and wherein the rotational speed of the fan is increased if the detected temperature is lower than the target temperature and is reduced if the detected temperature is higher than the target temperature. ▪ a fan; ▪ a supply channel extending from the fan up to the compartment; ▪ a temperature sensor provided in the supply channel;
A storage system (100, 500A, 500B, 600) for inventory control, the storage system comprising: a vertical storage structure (122, 522A, 522B, 610) a plurality of vertically-stacked pockets (150, 524A, 524B, 624) disposed on the vertical storage structure, each vertically-stacked pocket configured to be separately openable for allowing user removal of contents of the vertically-stacked pocket; a memory arrangement (416, 426, 436, 446) configured to store content information of each vertically-stacked pocket; a processor in data communication with the memory arrangement, wherein the processor is configured to receive the information and provide a controlled access to the contents; one or more locking devices (405A-E), each locking device associated with one of the vertically-stacked pockets; a lock control comprising one of a bank of semiconductor switches and a bank of electromechanical switches interfaced to the processor via a multiplexor and electrically connected to the one or more locking devices; and characterized by the memory arrangement comprising a memory disposed in each vertically-stacked pocket, wherein the processor is configured to receive the content information wirelessly from the memory arrangement. a vertical storage structure (122, 522A, 522B, 610) a plurality of vertically-stacked pockets (150, 524A, 524B, 624) disposed on the vertical storage structure, each vertically-stacked pocket configured to be separately openable for allowing user removal of contents of the vertically-stacked pocket; a memory arrangement (416, 426, 436, 446) configured to store content information of each vertically-stacked pocket; a processor in data communication with the memory arrangement, wherein the processor is configured to receive the information and provide a controlled access to the contents; one or more locking devices (405A-E), each locking device associated with one of the vertically-stacked pockets; a lock control comprising one of a bank of semiconductor switches and a bank of electromechanical switches interfaced to the processor via a multiplexor and electrically connected to the one or more locking devices; and characterized by the memory arrangement comprising a memory disposed in each vertically-stacked pocket, wherein the processor is configured to receive the content information wirelessly from the memory arrangement.
A method for detecting a compound of interest in a sample comprising the steps of: a) providing a binding construct comprising a recognition portion which recognizes and binds the compound of interest, and a nucleic acid portion; b) mixing the binding construct with the sample to form construct-compound complexes in solution; c) providing one or more surfaces, wherein the one or more surfaces comprise particles bearing one or more accessible binding targets capable of recognizing and binding to the recognition portion of the binding construct; d) introducing the one or more surfaces to the mixture of the binding construct and the sample in order for the one or more surfaces to form construct-surface complexes with any unbound binding constructs; e) separating the construct-surface complexes from the mixture leaving behind the construct-compound complexes in solution, without physical removal of the construct-surface complexes from the solution; f) detecting the presence or absence of the nucleic acid portion of the binding construct in the solution; wherein, in step (f), the detecting the presence or absence of the nucleic acid portion of the binding construct comprises amplification of the nucleic acid portion, and wherein the presence of the nucleic acid portion of the binding construct indicates the presence of the compound of interest in the sample. a) providing a binding construct comprising a recognition portion which recognizes and binds the compound of interest, and a nucleic acid portion; b) mixing the binding construct with the sample to form construct-compound complexes in solution; c) providing one or more surfaces, wherein the one or more surfaces comprise particles bearing one or more accessible binding targets capable of recognizing and binding to the recognition portion of the binding construct; d) introducing the one or more surfaces to the mixture of the binding construct and the sample in order for the one or more surfaces to form construct-surface complexes with any unbound binding constructs; e) separating the construct-surface complexes from the mixture leaving behind the construct-compound complexes in solution, without physical removal of the construct-surface complexes from the solution; f) detecting the presence or absence of the nucleic acid portion of the binding construct in the solution;
A deformable membrane assembly comprising a deformable membrane in contact with a body of fluid, the membrane being held peripherally by a bendable supporting member (50, 60); a fixed support; a selectively operable adjuster for adjusting the pressure of the fluid for causing distension of the membrane in accordance with a predefined form; and at least three engaging members which are disposed at spaced locations round the bendable supporting member that couple the bendable supporting member to the fixed support; there being an engaging member provided at or proximate at least one point round the supporting member (50, 60) where the profile of the supporting member corresponding to the predefined form of the membrane exhibits locally maximum or minimum curvature in the direction of distension of the membrane.
A photopolymerizable inkjet ink comprising: photopolymerizable monomer(s) consisting of one or more photopolymerizable monomers each having a Stimulation Index of less than 3, where the Stimulation Index indicates the extent of sensitization as measured by a skin sensitization test based on Local Lymph Node Assay; and a phenol aromatic compound having two hydroxyl groups in the molecule thereof, wherein the photopolymerizable monomer is at least one of polyethylene glycol dimethacrylate represented by the following General Formula where n is nearly equal to 2, 9 or 14, CH 2 =CH-CO-(OC 2 H 4) n -OCOCH=CH 2 where n is nearly equal to 23, γ-butyrolactone methacrylate, trimethylolpropane trimethacrylate, tricyclodecanedimethanol dimethacrylate, caprolactone-modified dipentaerythritol hexaacrylate, polypropylene glycol diacrylate [CH 2 =CH-CO-(OC 3 H 6) n -OCOCH=CH 2, where n is nearly equal to 12], diacrylates of caprolactone-modified neopentylglycol hydroxypivalate, polyethoxylated tetramethylol methane tetraacrylate, ethylene oxide-modified bisphenol A diacrylate, neopentyl glycol dimethacrylate, stearyl acrylate, 1,4-butanediol dimethacrylate, hydroxyethyl acrylamide, acryloylmorpholine, t-butyl methacrylate, n-pentyl methacrylate, n-hexyl methacrylate, ethylene oxide-modified phenol acrylate, isostearyl acrylate, ethylene oxide-modified trimethylolpropane trimethacrylate, stearyl methacrylate, glycerin dimethacrylate, triethylene glycol divinyl ether and isobutyl vinyl ether photopolymerizable monomer(s) consisting of one or more photopolymerizable monomers each having a Stimulation Index of less than 3, where the Stimulation Index indicates the extent of sensitization as measured by a skin sensitization test based on Local Lymph Node Assay; and a phenol aromatic compound having two hydroxyl groups in the molecule thereof, wherein the photopolymerizable monomer is at least one of polyethylene glycol dimethacrylate represented by the following General Formula where n is nearly equal to 2, 9 or 14, CH 2 =CH-CO-(OC 2 H 4) n -OCOCH=CH 2 where n is nearly equal to 23, γ-butyrolactone methacrylate, trimethylolpropane trimethacrylate, tricyclodecanedimethanol dimethacrylate, caprolactone-modified dipentaerythritol hexaacrylate, polypropylene glycol diacrylate [CH 2 =CH-CO-(OC 3 H 6) n -OCOCH=CH 2, where n is nearly equal to 12], diacrylates of caprolactone-modified neopentylglycol hydroxypivalate, polyethoxylated tetramethylol methane tetraacrylate, ethylene oxide-modified bisphenol A diacrylate, neopentyl glycol dimethacrylate, stearyl acrylate, 1,4-butanediol dimethacrylate, hydroxyethyl acrylamide, acryloylmorpholine, t-butyl methacrylate, n-pentyl methacrylate, n-hexyl methacrylate, ethylene oxide-modified phenol acrylate, isostearyl acrylate, ethylene oxide-modified trimethylolpropane trimethacrylate, stearyl methacrylate, glycerin dimethacrylate, triethylene glycol divinyl ether and isobutyl vinyl ether
A communication method based on a time division multiple access communication system, the method comprises the steps of: receiving, by a communication terminal, an embedded signaling frame, and characterised by: performing, by the communication terminal, embedded information parsing on the embedded signaling frame to acquire embedded signalings and control information (101, 203), wherein the control information is used for indicating a position of a corresponding embedded signaling; buffering, by the communication terminal, the embedded signalings into corresponding buffer regions in accordance with the control information (102, 204); and performing, by the communication terminal, embedded signaling decoding on the embedded signalings in all of the buffer regions to acquire a control signaling when each of the buffer regions has buffered a corresponding embedded signaling (103, 205). performing, by the communication terminal, embedded information parsing on the embedded signaling frame to acquire embedded signalings and control information (101, 203), wherein the control information is used for indicating a position of a corresponding embedded signaling; buffering, by the communication terminal, the embedded signalings into corresponding buffer regions in accordance with the control information (102, 204); and performing, by the communication terminal, embedded signaling decoding on the embedded signalings in all of the buffer regions to acquire a control signaling when each of the buffer regions has buffered a corresponding embedded signaling (103, 205).
An imaging system for imaging of subjects, the imaging system comprising: a spectral camera configured to capture a spectral image of a subject in a spectral capture period comprising a plurality of spectral time points, the spectral image comprising a plurality of spectral frames each captured at a wavelength of a plurality of wavelengths and each corresponding to a spectral time point of the plurality of spectral time points; a reference camera configured to capture a reference image of the subject in a reference capture period comprising a plurality of reference time points and corresponding to the spectral capture period, the reference image comprising a plurality of reference frames each corresponding to a reference time point of the plurality of reference time points and a spectral frame of the plurality of spectral frames; characterised by: a calculation unit configured to calculate a motion vector for each reference frame of a subset of the plurality of reference frames; and an alignment unit configured to align the spectral frames with each other by applying each calculated motion vector to the spectral frame of the plurality of spectral frames to which it corresponds. a spectral camera configured to capture a spectral image of a subject in a spectral capture period comprising a plurality of spectral time points, the spectral image comprising a plurality of spectral frames each captured at a wavelength of a plurality of wavelengths and each corresponding to a spectral time point of the plurality of spectral time points; a reference camera configured to capture a reference image of the subject in a reference capture period comprising a plurality of reference time points and corresponding to the spectral capture period, the reference image comprising a plurality of reference frames each corresponding to a reference time point of the plurality of reference time points and a spectral frame of the plurality of spectral frames; a calculation unit configured to calculate a motion vector for each reference frame of a subset of the plurality of reference frames; and an alignment unit configured to align the spectral frames with each other by applying each calculated motion vector to the spectral frame of the plurality of spectral frames to which it corresponds.
A chain tensioning arrangement for an axially extending column pipe which is configured to house a submersible pump, the chain tensioning arrangement comprising a cross beam configured to extend in the radial direction in relation to the column pipe, wherein the chain tensioning arrangement comprises: - a spring arrangement connected to the cross beam and comprising at least one spring member, and - an arm that is movably connected to the cross beam and that comprises an engagement member configured for engaging and unengaging a chain connected to said pump, wherein the arm has a main extension configured to extend in the radial direction in relation to the column pipe, the arm being displaceable in the axial direction between a lower position and an upper position, said at least one spring member being arranged to displace the arm in the direction from the lower position towards the upper position. - a spring arrangement connected to the cross beam and comprising at least one spring member, and - an arm that is movably connected to the cross beam and that comprises an engagement member configured for engaging and unengaging a chain connected to said pump, wherein the arm has a main extension configured to extend in the radial direction in relation to the column pipe, the arm being displaceable in the axial direction between a lower position and an upper position, said at least one spring member being arranged to displace the arm in the direction from the lower position towards the upper position.
A control node comprising: a first communication component for communicating with a first wireless access network node; a second communication component for communicating with a second wireless access network node; and a processor configured to: determine a first aggregate data rate for a user equipment, UE; determine a second aggregate data rate for the UE; send the first aggregate rate to the first wireless access network node for controlling data communication between the first wireless access network node and the UE; and send the second aggregate data rate to the second wireless access network node for controlling data communication between the second wireless access network node and the UE, wherein, from an overall aggregate data rate of the UE, the first aggregate data rate and the second aggregate data rate are derived from a respective access point name aggregate maximum bit rate, APN-AMBR, carried by the first wireless access network node and the second wireless access network node, without exceeding the overall aggregate data rate of the UE. a first communication component for communicating with a first wireless access network node; a second communication component for communicating with a second wireless access network node; and a processor configured to: determine a first aggregate data rate for a user equipment, UE; determine a second aggregate data rate for the UE; send the first aggregate rate to the first wireless access network node for controlling data communication between the first wireless access network node and the UE; and send the second aggregate data rate to the second wireless access network node for controlling data communication between the second wireless access network node and the UE, determine a first aggregate data rate for a user equipment, UE; determine a second aggregate data rate for the UE; send the first aggregate rate to the first wireless access network node for controlling data communication between the first wireless access network node and the UE; and send the second aggregate data rate to the second wireless access network node for controlling data communication between the second wireless access network node and the UE, wherein, from an overall aggregate data rate of the UE, the first aggregate data rate and the second aggregate data rate are derived from a respective access point name aggregate maximum bit rate, APN-AMBR, carried by the first wireless access network node and the second wireless access network node, without exceeding the overall aggregate data rate of the UE.
A polymer memory device, comprising an active layer obtained by crosslinking a polyimide polymer represented by Formula: wherein X is -CH-, N or P, and Y is selected from the group consisting of the following derivatives: R is H or an alkyl group of 1 to 8 carbon atoms, and Z is any one selected from the group consisting of the following aromatic and aliphatic derivatives: and n is a positive integer (repetitive unit), and the polyimide polymer compound has a weight average molecular weight of 5,000 to 5,000,000, and the active layer of the polymer memory device is made of said polyimide polymer in the form of a film having a thickness of 10∼100 nm.
A compression ignition combustion method for an internal combustion engine having: a. a combustion chamber, b. an intake manifold; c. an intake port downstream from the intake manifold and upstream from the combustion chamber, the intake port having an intake valve situated therein; d. a first tank containing a fuel having a first reactivity; e. a second tank containing a material having a second reactivity; the method including the steps of: i. supplying both the fuel from the first tank and the material from the second tank to the combustion chamber during an engine combustion cycle: when the engine is idling, and to obtain a stratified distribution of fuel reactivity within the combustion chamber, with regions of highest fuel reactivity being spaced from regions of lowest reactivity, and ii. restricting the amount of air within the combustion chamber to adapt the equivalence ratio to a level such that Reactivity-Controlled Compression Ignition methods can be used effectively, iii. beginning combustion in one or more regions of highest reactivity. a. a combustion chamber, b. an intake manifold; c. an intake port downstream from the intake manifold and upstream from the combustion chamber, the intake port having an intake valve situated therein; d. a first tank containing a fuel having a first reactivity; e. a second tank containing a material having a second reactivity; i. supplying both the fuel from the first tank and the material from the second tank to the combustion chamber during an engine combustion cycle: when the engine is idling, and to obtain a stratified distribution of fuel reactivity within the combustion chamber, with regions of highest fuel reactivity being spaced from regions of lowest reactivity, and when the engine is idling, and to obtain a stratified distribution of fuel reactivity within the combustion chamber, with regions of highest fuel reactivity being spaced from regions of lowest reactivity, and ii. restricting the amount of air within the combustion chamber to adapt the equivalence ratio to a level such that Reactivity-Controlled Compression Ignition methods can be used effectively, iii. beginning combustion in one or more regions of highest reactivity.