mhurhangee/ep-ind-claims huggingface dataset:
Process for preparing isocyanate containing alkoxysilane groups, in which, in the sequence of steps A) to D), A) haloalkylalkoxysilane is reacted with metal cyanate and alcohol to give alkoxysilanoalkylurethane, B) alkoxysilanoalkylurethane is freed of low boilers, solids, salt burdens and/or high boilers and optionally purified, C) alkoxysilanoalkylurethane obtained after B) is thermally cleaved to release isocyanate containing alkoxysilane groups and by-product, leaving bottoms material, and D) isocyanate containing alkoxysilane groups and by-product are separated from one another and from the cleavage bottoms material and collected, characterized in that the process regime at least of steps C) to D) is continuous. A) haloalkylalkoxysilane is reacted with metal cyanate and alcohol to give alkoxysilanoalkylurethane, B) alkoxysilanoalkylurethane is freed of low boilers, solids, salt burdens and/or high boilers and optionally purified, C) alkoxysilanoalkylurethane obtained after B) is thermally cleaved to release isocyanate containing alkoxysilane groups and by-product, leaving bottoms material, and D) isocyanate containing alkoxysilane groups and by-product are separated from one another and from the cleavage bottoms material and collected,
A current-controlled oscillator, comprising: an input terminal for receiving an input current; a ramp voltage generating sub-circuit, coupled to the input terminal, for generating a first ramp voltage and a second ramp voltage controlled by a first clock signal and a second clock signal, wherein a frequency of the first and second clock signals is based, in part, on a value of the input current; a ramp voltage selecting sub-circuit for selecting one of the first ramp voltage and the second ramp voltage depending on a value of the first ramp voltage relative to a value of the second ramp voltage; and a switching signal generating sub-circuit for receiving the selected ramp voltage and for generating a switching signal based on a value of the selected ramp voltage relative to a reference voltage, wherein the switching signal generating sub-circuit outputs the first clock signal and the second clock signal; wherein the ramp voltage generating sub-circuit includes a first switch, controlled by the first clock signal, coupled between the first ramp voltage node and the input terminal, and a second switch, controlled by the second clock signal, coupled between the second ramp voltage node and the input terminal; and wherein the ramp voltage selecting sub-circuit includes a ramp voltage comparator for comparing the first ramp voltage and the second ramp voltage and for outputting a comparator output signal and wherein, based on comparison, the ramp voltage selecting sub-circuit outputs one of the first ramp voltage and the second ramp voltage. an input terminal for receiving an input current; a ramp voltage generating sub-circuit, coupled to the input terminal, for generating a first ramp voltage and a second ramp voltage controlled by a first clock signal and a second clock signal, wherein a frequency of the first and second clock signals is based, in part, on a value of the input current; a ramp voltage selecting sub-circuit for selecting one of the first ramp voltage and the second ramp voltage depending on a value of the first ramp voltage relative to a value of the second ramp voltage; and a switching signal generating sub-circuit for receiving the selected ramp voltage and for generating a switching signal based on a value of the selected ramp voltage relative to a reference voltage, wherein the switching signal generating sub-circuit outputs the first clock signal and the second clock signal; wherein the ramp voltage generating sub-circuit includes a first switch, controlled by the first clock signal, coupled between the first ramp voltage node and the input terminal, and a second switch, controlled by the second clock signal, coupled between the second ramp voltage node and the input terminal; and wherein the ramp voltage selecting sub-circuit includes a ramp voltage comparator for comparing the first ramp voltage and the second ramp voltage and for outputting a comparator output signal and wherein, based on comparison, the ramp voltage selecting sub-circuit outputs one of the first ramp voltage and the second ramp voltage.
An amount of cyclophosphamide, an amount of a population of Treg cells and an amount of a IL-2 polypeptide for use in a method of inducing or restoring immune tolerance in a patient suffering from IPEX syndrome comprising the steps of i) administering the patient with the said amount of cyclophosphamide, ii) then engrafting the patient with the said amount of the population of Treg cells, and iii) finally administering the patient with the said amount of a IL-2 polypeptide.
A stationary contact arm assembly for a molded case circuit breaker, the stationary contact arm assembly comprising: a current limiting type stationary contact arm having a terminal portion and a contact portion provided at both end portions thereof in the length direction, and an inclined extension portion provided between the contact portion and the terminal portion and formed to be downwardly extended in an inclined manner from the terminal portion, a flat extension portion forming a space between the flat extension portion and a bottom surface of the contact potion, and a bent portion formed in a bent shape from the flat extension portion to the contact portion, and wherein the inclined extension portion is provided between the flat extension portion and the terminal portion; a magnet assembly having a plurality of steel plates at least part of which is installed to be pushed into the space between the flat extension portion and contact portion in the stationary contact arm to enhance the magnetic permeability so as to increase an electromagnetic repulsive force during the current limiting operation; characterised by further comprising an elastic support plate having an elastic support portion installed on the flat extension portion of the stationary contact arm to support the magnet assembly, wherein the flat extension portion of the stationary contact arm is provided with a concave groove portion into which the elastic support portion is inserted. a current limiting type stationary contact arm having a terminal portion and a contact portion provided at both end portions thereof in the length direction, and an inclined extension portion provided between the contact portion and the terminal portion and formed to be downwardly extended in an inclined manner from the terminal portion, a flat extension portion forming a space between the flat extension portion and a bottom surface of the contact potion, and a bent portion formed in a bent shape from the flat extension portion to the contact portion, and wherein the inclined extension portion is provided between the flat extension portion and the terminal portion; a magnet assembly having a plurality of steel plates at least part of which is installed to be pushed into the space between the flat extension portion and contact portion in the stationary contact arm to enhance the magnetic permeability so as to increase an electromagnetic repulsive force during the current limiting operation; characterised by further comprising an elastic support plate having an elastic support portion installed on the flat extension portion of the stationary contact arm to support the magnet assembly, wherein the flat extension portion of the stationary contact arm is provided with a concave groove portion into which the elastic support portion is inserted.
A method for supporting an enhanced multimedia broadcast multicast service, eMBMS, in a relay network, comprising: receiving, by a relay node, a message for indicating the position of an Multicast/Broadcast over Single Frequency Network, MBSFN, sub-frame related to the eMBMS in a transmission frame, which is sent from the network side; muting, by the relay node, the MBSFN sub-frame according to the position of the MBSFN sub-frame in the transmission frame indicated in the received message; and the method further comprising: receiving, by the relay node, MCCH configuration information from the network side; and sending, by the relay node, the MCCH configuration information to a user equipment. receiving, by a relay node, a message for indicating the position of an Multicast/Broadcast over Single Frequency Network, MBSFN, sub-frame related to the eMBMS in a transmission frame, which is sent from the network side; muting, by the relay node, the MBSFN sub-frame according to the position of the MBSFN sub-frame in the transmission frame indicated in the received message; and the method further comprising: receiving, by the relay node, MCCH configuration information from the network side; and sending, by the relay node, the MCCH configuration information to a user equipment. receiving, by the relay node, MCCH configuration information from the network side; and sending, by the relay node, the MCCH configuration information to a user equipment.
A method for producing a semifinished product for an implant, in particular for an intraluminal endoprosthesis, comprising the following steps: a) providing a first sleeve from a first metallic material and at least one second sleeve (12, 13) from a second metallic material, b) arranging the first sleeve and the at least one second sleeve (12, 13) one inside the other in such a manner that this sleeve combination forms at least a press fit between the sleeves, and c) forming the sleeve combination at an increased temperature by means of extrusion, wherein the forming is performed at a temperature of the tool and of the sleeve combination in the range of from 300°C to 500°C. a) providing a first sleeve from a first metallic material and at least one second sleeve (12, 13) from a second metallic material, b) arranging the first sleeve and the at least one second sleeve (12, 13) one inside the other in such a manner that this sleeve combination forms at least a press fit between the sleeves, and c) forming the sleeve combination at an increased temperature by means of extrusion, wherein
A method for transmitting data, the method being performed by a user equipment, UE, and comprising: in response to a reception of synchronization information from a network, sending a Chirp requesting UE access data; in response to the Chirp, receiving and saving at least a portion of UE access data; utilizing at least a portion of the saved UE access data to perform more than one data transmission procedure until a predetermined time period, associated with the saved UE access data, expires. in response to a reception of synchronization information from a network, sending a Chirp requesting UE access data; in response to the Chirp, receiving and saving at least a portion of UE access data; utilizing at least a portion of the saved UE access data to perform more than one data transmission procedure until a predetermined time period, associated with the saved UE access data, expires.
A substrate processing apparatus for processing a substrate, comprising: a first substrate stage having a first substrate-holding surface configured to hold a first region in a lower surface of the substrate; a second substrate stage having a second substrate-holding surface configured to hold a second region in the lower surface of the substrate; a second-stage rotating mechanism configured to rotate the second substrate stage about an axis of the second substrate stage; a stage elevator configured to move the first substrate-holding surface between an elevated position higher than the second substrate-holding surface and a lowered position lower than the second substrate-holding surface; an eccentricity detector configured to measure an amount of eccentricity of a center of the substrate from the axis of the second substrate stage; and a horizontally-moving mechanism configured to move the first substrate stage and align the center of the substrate with the axis of the second substrate stage. a first substrate stage having a first substrate-holding surface configured to hold a first region in a lower surface of the substrate; a second substrate stage having a second substrate-holding surface configured to hold a second region in the lower surface of the substrate; a second-stage rotating mechanism configured to rotate the second substrate stage about an axis of the second substrate stage; a stage elevator configured to move the first substrate-holding surface between an elevated position higher than the second substrate-holding surface and a lowered position lower than the second substrate-holding surface; an eccentricity detector configured to measure an amount of eccentricity of a center of the substrate from the axis of the second substrate stage; and a horizontally-moving mechanism configured to move the first substrate stage and align the center of the substrate with the axis of the second substrate stage.
Cutting unit for cutting preparation features in a web of sheetlike material, said cutting unit comprising: a first part with a rigid base portion (132, 142), at least one first cutting tool configured to cut a first preparation feature in the web of sheetlike material, at least one second cutting tool configured to cut a second preparation feature in the web of sheetlike material; the at least one first and second cutting tools (130, 140) being attached to the base portion and located at a distance from each other, wherein at least one of the first or second cutting tools (130, 140) is supported by a flexible support (134, 144) and wherein the flexible support (134, 144) is located in the rigid base portion of the first part, characterized in that the first and second cutting tools (130, 140) are supported by a first and second flexible support (134, 144), respectively and wherein the hardness of the material of the first flexible support is different from the hardness of the material of the second flexible support. a first part with a rigid base portion (132, 142), at least one first cutting tool configured to cut a first preparation feature in the web of sheetlike material, at least one second cutting tool configured to cut a second preparation feature in the web of sheetlike material; the at least one first and second cutting tools (130, 140) being attached to the base portion and located at a distance from each other, wherein at least one of the first or second cutting tools (130, 140) is supported by a flexible support (134, 144) and wherein the flexible support (134, 144) is located in the rigid base portion of the first part, characterized in that the first and second cutting tools (130, 140) are supported by a first and second flexible support (134, 144), respectively and wherein the hardness of the material of the first flexible support is different from the hardness of the material of the second flexible support.
A computer-implemented method (100, 200, 300, 400) of registering and verifying the validity of the identity of a mining node on a blockchain in a blockchain network, comprising: creating (102, 206), by the mining node, a validity-check transaction having a first output controlled by the mining node, and a second output providing an information field containing a miner identifier; propagating (102, 208, 210), by the mining node, the validity-check transaction on the blockchain network; and mining (104, 306), by the mining node, a new block containing a generation transaction, wherein the generation transaction includes, as an output, another information field that contains the miner identifier, wherein the information field of the generation transaction also contains a reference to the validity-check transaction; verifying, by a second node, the validity of the miner identifier through receiving the miner identifier, retrieving a copy of the generation transaction from the blockchain, retrieving a copy of the validity-check transaction from the blockchain based on the reference contained in the generation transaction, confirming (406, 410) that the received miner identifier matches the miner identifier contained in the generation transaction and in the validity-check transaction, and determining (410, 412) whether the miner identifier is valid through determining whether the first output of the validity-check transaction is within an unspent transaction output set for the blockchain network; wherein the miner identifier is invalidated when the miner spends the first output, thereby removing it from the unspent transaction output set for the blockchain network. creating (102, 206), by the mining node, a validity-check transaction having a first output controlled by the mining node, and a second output providing an information field containing a miner identifier; propagating (102, 208, 210), by the mining node, the validity-check transaction on the blockchain network; and mining (104, 306), by the mining node, a new block containing a generation transaction, wherein the generation transaction includes, as an output, another information field that contains the miner identifier, wherein the information field of the generation transaction also contains a reference to the validity-check transaction; verifying, by a second node, the validity of the miner identifier through receiving the miner identifier, retrieving a copy of the generation transaction from the blockchain, retrieving a copy of the validity-check transaction from the blockchain based on the reference contained in the generation transaction, confirming (406, 410) that the received miner identifier matches the miner identifier contained in the generation transaction and in the validity-check transaction, and determining (410, 412) whether the miner identifier is valid through determining whether the first output of the validity-check transaction is within an unspent transaction output set for the blockchain network; wherein the miner identifier is invalidated when the miner spends the first output, thereby removing it from the unspent transaction output set for the blockchain network.
Joint bearing for a rail vehicle, with a bearing housing and a socket adjoining the bearing housing, wherein the socket has a circumferential collar, and wherein a seal for sealing off the bearing housing from the socket is arranged between the collar and the bearing housing, characterised in that the socket is surrounded by the bearing housing below the collar and the collar rests on the bearing housing and wherein the seal is arranged immediately below the collar and is pretensioned between the collar and the bearing housing.
A method to measure the specific surface area of a conductive material, comprising the steps of: adding an additive, which forms a shunt resistance, on to the conductive material with an electric double layer; measuring the capacitance of the electric double layer of the conductive material through electrochemical impedance spectroscopy by forming a three-electrode electrochemical cell comprising an electrolyte, while using the conductive material and the additive prepared in step as a working electrode; and calculating the specific surface area of the conductive material from the capacitance; wherein the additive is a material that performs a redox reaction or an intercalation reaction with the ions of the electrolyte. adding an additive, which forms a shunt resistance, on to the conductive material with an electric double layer; measuring the capacitance of the electric double layer of the conductive material through electrochemical impedance spectroscopy by forming a three-electrode electrochemical cell comprising an electrolyte, while using the conductive material and the additive prepared in step as a working electrode; and calculating the specific surface area of the conductive material from the capacitance;
Tumble dryer or washer-dryer, comprising a drum which is designed to hold laundry to be dried, and comprising a housing by which the drum is rotatably received, the housing having at least one active oscillating circuit part, and the drum having at least one passive oscillating circuit part, characterised in that the passive oscillating circuit part has a temperature-dependent, frequency-influencing component, the active oscillating circuit part and the passive oscillating circuit part are designed to jointly form an oscillating circuit (11, 21) of which the resonance frequency depends on the temperature of the drum via the temperature-dependent, frequency-influencing component, the active oscillating circuit part is connected to a control unit in a signal-transmitting manner, and the control unit is designed to determine the temperature of the drum, preferably of a drum casing, from a time curve and/or from a frequency curve of the oscillation of the oscillating circuit (11, 21).
An evolved Node-B, eNB, the eNB comprising: a receiver, configured to receive a handover request message from a Long Term Evolution, LTE, Mobility Management Entity, MME, the handover request message including an identity of a wireless transmit/receive unit, WTRU, to be handed over from GSM EDGE Radio Access Network, GERAN, technology to LTE technology; a processor, configured to establish radio resources for the WTRU based on the handover request message; and a transmitter, configured to communicate a handover request acknowledgement message to the MME; wherein the processor is further configured to establish a tunnel for forwarding data from a GERAN base station controller, BSC, to the eNB or from the eNB to the BSC, wherein user data is forwarded from the BSC, serving the WTRU, to the eNB; wherein the receiver is further configured to receive the user data from the BSC via the tunnel; and wherein the handover request message includes a source cell identifier, ID; an MME ID; and a tunneling endpoint ID, TEID. a receiver, configured to receive a handover request message from a Long Term Evolution, LTE, Mobility Management Entity, MME, the handover request message including an identity of a wireless transmit/receive unit, WTRU, to be handed over from GSM EDGE Radio Access Network, GERAN, technology to LTE technology; a processor, configured to establish radio resources for the WTRU based on the handover request message; and a transmitter, configured to communicate a handover request acknowledgement message to the MME; wherein the processor is further configured to establish a tunnel for forwarding data from a GERAN base station controller, BSC, to the eNB or from the eNB to the BSC, wherein user data is forwarded from the BSC, serving the WTRU, to the eNB; wherein the receiver is further configured to receive the user data from the BSC via the tunnel; and wherein the handover request message includes a source cell identifier, ID; an MME ID; and a tunneling endpoint ID, TEID.
Hybrid air-cooling tower comprising an air inlet module, a dry module and at least one humidification device, the dry module being adjacent to the humidification device, the air inlet module being configured to suction outside air and transfer it to the humidification device, at least one humidification passage of air transferred passing through the humidification device, characterised in that the humidification device is comprised in a mixed module, at least one bypass passage separate from said at least one humidification passage passing through the mixed module outside of the space occupied by said at least one humidification device, said at least one bypass passage being partitioned with respect to said at least one humidification passage and to said at least one humidification device, the at least one bypass passage being configured to direct the air transferred by the air inlet module to the dry module without passing through the humidification device.