mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a hybrid aqueous energy storage device comprising an anode electrode, a cathode electrode, a separator, and a sodium containing aqueous electrolyte, the method comprising: providing the storage device in which the cathode electrode comprises an active cathode electrode material comprising lithium λ-manganate cubic spinel material having a formula LiMn 2 O 4, deintercalating lithium ions from the active cathode electrode material during initial charging of the device, to form a substantially lithium free cubic spinel λ-manganate active cathode electrode material, reversibly intercalating sodium ions into the active cathode electrode material during a subsequent discharge cycle to form a cubic spiel λ-manganate active cathode electrode material having a formula Na y Li x Mn 2 O 4 with 0<x<1, 0<y<1, and x+y≤1.1, wherein at least 80 atomic percent of the alkaline metal is Na, and reversibly deintercalating sodium ions from the active cathode electrode during subsequent charge cycles. providing the storage device in which the cathode electrode comprises an active cathode electrode material comprising lithium λ-manganate cubic spinel material having a formula LiMn 2 O 4, deintercalating lithium ions from the active cathode electrode material during initial charging of the device, to form a substantially lithium free cubic spinel λ-manganate active cathode electrode material, reversibly intercalating sodium ions into the active cathode electrode material during a subsequent discharge cycle to form a cubic spiel λ-manganate active cathode electrode material having a formula Na y Li x Mn 2 O 4 with 0<x<1, 0<y<1, and x+y≤1.1, wherein at least 80 atomic percent of the alkaline metal is Na, and reversibly deintercalating sodium ions from the active cathode electrode during subsequent charge cycles.
A method of determining the position of a base station (11 - 15) in a wireless communication network, the method comprising: (a) determining (81 - 94) positions of at least one mobile station (22 - 23) in communication with the base station (11 - 15), wherein each of the at least one mobile station has a global positioning satellite receiver, and the positions of the at least one mobile station are determined from signals received by the at least one mobile station from global positioning satellites (17 - 21); (b) determining (101 - 108, 111, 112, 121 - 125) the position of the base station from the determined positions of the mobile station(s) and from signals transmitted between the base station and the mobile station(s); and (c) using the determined position of the base station to maintain base station location information in a base station almanac data base. (a) determining (81 - 94) positions of at least one mobile station (22 - 23) in communication with the base station (11 - 15), wherein each of the at least one mobile station has a global positioning satellite receiver, and the positions of the at least one mobile station are determined from signals received by the at least one mobile station from global positioning satellites (17 - 21); (b) determining (101 - 108, 111, 112, 121 - 125) the position of the base station from the determined positions of the mobile station(s) and from signals transmitted between the base station and the mobile station(s); and (c) using the determined position of the base station to maintain base station location information in a base station almanac data base.
A wheel drive system for aircraft, comprising a motor that is connected to a wheel, characterized in that the motor has two voltage supply lines ( L1 and L2) for supplying a voltage with varying a length of a winding to be energized, the voltage supply lines ( L1 and L2) being connected to portions of the winding having different lengths; wherein the wheel drive system further comprises: a voltage supply unit ( 3 and 4) that supplies a voltage to the two voltage supply lines ( L1 and L2); and a control unit for controlling the voltage supply unit ( 3 and 4), wherein the control unit is configured to select one of the two voltage supply lines ( L1 and L2) and supply a voltage to the selected voltage supply line, by controlling the voltage supply unit ( 3 and 4). a voltage supply unit ( 3 and 4) that supplies a voltage to the two voltage supply lines ( L1 and L2); and a control unit for controlling the voltage supply unit ( 3 and 4), wherein the control unit is configured to select one of the two voltage supply lines ( L1 and L2) and supply a voltage to the selected voltage supply line, by controlling the voltage supply unit ( 3 and 4).
Process for remineralization of water comprising the steps of: a) providing feed water having a concentration of carbon dioxide in a range of 20 to 60 mg/l, b) providing an aqueous slurry comprising micronized calcium carbonate, wherein the calcium carbonate has a particle size from 0.1 to 5 μm and a HCl insoluble content from 0.02 to 0.6 wt.-%, based on the total weight of the micronized calcium carbonate, and c) combining the feed water of step a) and the aqueous slurry of step b) in order to obtain remineralized water, wherein the concentration of calcium carbonate in the slurry is from 2 to 40 wt.-%, based on the total weight of the slurry. a) providing feed water having a concentration of carbon dioxide in a range of 20 to 60 mg/l, b) providing an aqueous slurry comprising micronized calcium carbonate, wherein the calcium carbonate has a particle size from 0.1 to 5 μm and a HCl insoluble content from 0.02 to 0.6 wt.-%, based on the total weight of the micronized calcium carbonate, and c) combining the feed water of step a) and the aqueous slurry of step b) in order to obtain remineralized water, wherein the concentration of calcium carbonate in the slurry is from 2 to 40 wt.-%, based on the total weight of the slurry.
Configurable control panel for an aircraft cockpit, comprising a set of generic control modules each comprising a set of at least one manually manipulatable control mechanism (O1, O2) configuring at least one screen, the generic control modules comprising at least one master module and at least one generic slave module associated with the master module and comprising a screen and at least one control mechanism, the master module being designed to configure the screen and the said at least one control mechanism (O1, O2) of the said generic slave module, in which the control mechanism (O1, O2) of the master module constitutes a mechanism for selecting functional systems, the said slave module being configurable according to a selection of a functional system and being designed for controlling several functions selected from the master module, characterized in that the master module comprises a screen.
Emergency power supply device for the rotor blade adjustment system of a wind turbine with several electrical electric power accumulators (16, 17, 18), an electrical charging unit, an electrical circuit arrangement which allows the charging unit to be electrically coupled to several of the electric power accumulators (16, 17, 18), whereby one or more additional charging units (21, 23) are provided so that the number of charging units corresponds to the number of electric power accumulators, whereby the circuit arrangement allows each of the charging units (20, 21, 22) to be electrically coupled to several of the electric power accumulators (16, 17, 18) and each of the electric power accumulators (16, 17, 18) can be electrically coupled to several of the charging units (20, 21, 22), characterized in that precisely one of the charging units (20, 21, 22) is assigned as a main charging unit to each of the electric power accumulators (16, 17, 18), and precisely one other of the charging units (20, 21, 22) is assigned as a secondary charging unit.
A method for producing electricity, and hydrogen or syngas, using a molten carbonate fuel cell comprising an anode and cathode, the method comprising: introducing a fuel stream comprising a reformable fuel into the anode of the molten carbonate fuel cell, an internal reforming element associated with the anode, or a combination thereof; introducing a cathode inlet stream comprising CO 2 and O 2 into the cathode of the molten carbonate fuel cell; generating electricity within the molten carbonate fuel cell at a fuel utilization of 65% or less, in particular 60% or less, 55% or less, 50% or less, 45% or less, 40% or less, 35% or less, 30% or less, 25% or less, or 20% or less; and at a cell operating voltage, a ratio of a cell operating voltage to a cell maximum voltage being 0.65 or less, in particular 0.64 or less, 0.63 or less, 0.62 or less, or 0.61 or less; generating an anode exhaust from an anode outlet of the molten carbonate fuel cell; and separating from the anode exhaust a H 2 -containing stream, a syngas-containing stream, or a combination thereof, wherein the fuel utilization is the ratio of the amount of hydrogen oxidized in the anode for production of electricity versus the reformable hydrogen content of the anode input, wherein reformable hydrogen content of a fuel is the number of H 2 molecules that can be derived from a fuel by reforming the fuel and then driving the water gas shift reaction to completion to maximize H 2 production.
An X-ray analyzer comprising: an X-ray excitation device comprising a sample chamber in which a sample as an analysis target is allowed to be disposed; an X-ray detection device comprising: an X-ray detector configured to detect a characteristic X-ray emitted from the sample; and a room-temperature shield surrounding the X-ray detector; and a gate valve disposed between the X-ray excitation device and the X-ray detection device, wherein an inside of the room-temperature shield is communicatable with an inside of the sample chamber, wherein the gate valve comprises a partition plate configured to block communication between the inside of the sample chamber and the inside of the room-temperature shield, wherein the gate valve is openable and closable, and at least a portion of the room-temperature shield is formed by a bellows, characterized in that the partition plate has an X-ray transmission portion allowing the characteristic X-ray emitted from the sample to pass therethrough. an X-ray excitation device comprising a sample chamber in which a sample as an analysis target is allowed to be disposed; an X-ray detection device comprising: an X-ray detector configured to detect a characteristic X-ray emitted from the sample; and a room-temperature shield surrounding the X-ray detector; and an X-ray detector configured to detect a characteristic X-ray emitted from the sample; and a room-temperature shield surrounding the X-ray detector; and a gate valve disposed between the X-ray excitation device and the X-ray detection device, wherein an inside of the room-temperature shield is communicatable with an inside of the sample chamber, wherein the gate valve comprises a partition plate configured to block communication between the inside of the sample chamber and the inside of the room-temperature shield, wherein the gate valve is openable and closable, and at least a portion of the room-temperature shield is formed by a bellows, characterized in that the partition plate has an X-ray transmission portion allowing the characteristic X-ray emitted from the sample to pass therethrough.
Drainage device for draining road, car park or roof surfaces, with a channel body having a length and with filter material located in the channel body for purifying water polluted by solid particles and/or dissolved contaminants, wherein above the filter material there is provided a water inflow body having a flow-through section with a plurality of flow-through openings, via which the contaminated water enters the filter material, and having a sedimentation chamber for the sedimentation of suspended matter, wherein the water inflow body has at least one water conducting element, via which the contaminated water can be conducted into the sedimentation chamber and from there into the flow-through openings or at least partially directly into the flow-through openings while bypassing the sedimentation chamber, characterised in that the flow-through section of the water inflow body is represented by a dome-like raised area enclosed by the sedimentation chamber of trench-like design.
A mobile floor cleaning robot (100,100') comprising: at least one drive wheel (142a, 142b) operable to propel the robot across a floor surface; a cleaning bin (122, 122 ',122") disposed within the robot and arranged to receive debris ingested by the robot during cleaning; and a robot vacuum comprising a motor and a fan connected to the motor and configured to generate a flow of air to pull debris into the cleaning bin from an opening on an underside of the robot; characterized in that: the floor cleaning robot further comprises a one-way air flow valve disposed within the robot and configured to automatically close in response to operation of a vacuum of an evacuation station (200,200') configured to evacuate debris from the cleaning bin (122, 122 ',122") through the opening on the underside of the robot (100,100'), and wherein the air flow valve is disposed in an air passage connecting the robot vacuum to the interior of the cleaning bin. at least one drive wheel (142a, 142b) operable to propel the robot across a floor surface; a cleaning bin (122, 122 ',122") disposed within the robot and arranged to receive debris ingested by the robot during cleaning; and a robot vacuum comprising a motor and a fan connected to the motor and configured to generate a flow of air to pull debris into the cleaning bin from an opening on an underside of the robot; characterized in that: the floor cleaning robot further comprises a one-way air flow valve disposed within the robot and configured to automatically close in response to operation of a vacuum of an evacuation station (200,200') configured to evacuate debris from the cleaning bin (122, 122 ',122") through the opening on the underside of the robot (100,100'), and wherein the air flow valve is disposed in an air passage connecting the robot vacuum to the interior of the cleaning bin. the floor cleaning robot further comprises a one-way air flow valve disposed within the robot and configured to automatically close in response to operation of a vacuum of an evacuation station (200,200') configured to evacuate debris from the cleaning bin (122, 122 ',122") through the opening on the underside of the robot (100,100'), and wherein the air flow valve is disposed in an air passage connecting the robot vacuum to the interior of the cleaning bin.
A method comprising: transmitting, from a wireless node, a first data unit via a first channel of a first frequency band of a plurality of frequency bands; selecting a second frequency band of the plurality of frequency bands; performing a context transfer at the wireless node from the first frequency band to the second frequency band; wherein the performing of the context transfer comprises: transferring or re-assigning data units stored in a first data transmission queue associated with the first frequency band to a second data transmission queue associated with the second frequency band; and re-assigning control data associated with the first frequency band from the first frequency band to the second frequency band; and transmitting, from the wireless node, a second data unit via a second channel of the second frequency band. transmitting, from a wireless node, a first data unit via a first channel of a first frequency band of a plurality of frequency bands; selecting a second frequency band of the plurality of frequency bands; performing a context transfer at the wireless node from the first frequency band to the second frequency band; wherein the performing of the context transfer comprises: transferring or re-assigning data units stored in a first data transmission queue associated with the first frequency band to a second data transmission queue associated with the second frequency band; and re-assigning control data associated with the first frequency band from the first frequency band to the second frequency band; and transmitting, from the wireless node, a second data unit via a second channel of the second frequency band.
A conveyor belt comprising: a stretchable knitted fabric; an elastic layer that is provided on an upper surface of the knitted fabric and is made of a first thermoplastic material; and characterized in that it is comprising a surface resin layer that is provided on an upper surface of the elastic layer, is made of a second thermoplastic material having hardness lower than hardness of the first thermoplastic material, and the surface resin layer includes a conveying surface having unevenness, wherein tensile strength of the conveyor belt is 3.5 to 35 MPa, and a coefficient of static friction of the conveying surface is 0.5 to 1.0. a stretchable knitted fabric; an elastic layer that is provided on an upper surface of the knitted fabric and is made of a first thermoplastic material; and characterized in that it is comprising a surface resin layer that is provided on an upper surface of the elastic layer, is made of a second thermoplastic material having hardness lower than hardness of the first thermoplastic material, and the surface resin layer includes a conveying surface having unevenness, wherein tensile strength of the conveyor belt is 3.5 to 35 MPa, and a coefficient of static friction of the conveying surface is 0.5 to 1.0.
Method for processing an amine-based solvent contaminated by the introduction of sulfur oxides, in which - a potassium compound is introduced into the contaminated solvent, and the contaminated solvent is cooled to a temperature T, so that the solubility of the potassium sulfate becomes less than the specified concentration of potassium sulfate, and - the potassium sulfate is filtered off, with formation of a prepared solvent, characterized in that an oxidizing agent is introduced into the contaminated solvent, so that sulfite is oxidized to sulfate. - a potassium compound is introduced into the contaminated solvent, and the contaminated solvent is cooled to a temperature T, so that the solubility of the potassium sulfate becomes less than the specified concentration of potassium sulfate, and - the potassium sulfate is filtered off, with formation of a prepared solvent,
An isolated or recombinant protein comprising an antigen binding domain of an antibody which specifically binds to an epitope located within the N-domain of midkine as defined by amino acid residues 1-61 of SEQ ID NO: 2, wherein the isolated or recombinant protein inhibits or reduces midkine-induced cell migration and comprises: a heavy chain variable domain comprising heavy chain CDR sequences CDR1, CDR2 and CDR3 as shown in SEQ ID NO: 7, SEQ ID NO: 8 and SEQ ID NO: 9 respectively; and a light chain variable domain comprising light chain CDR sequences CDR1, CDR2 and CDR3 as shown in SEQ ID NO: 10, SEQ ID NO: 11 and SEQ ID NO: 12 respectively for use in the treatment or prevention of a midkine-related disorder, wherein the midkine-related disorder is autoimmune disease, cancer, an inflammatory disease, multiple sclerosis, or post-laparotomy adhesions.
A computing device, comprising: a radio frequency -RF- interface configured to receive data from an additional device while the computing device is operating in a first power mode powered only via the RF interface; a memory having a first portion and a second portion, wherein the memory is coupled to the RF interface and configured to: receive the data from the RF interface while the computing device is in the first power mode; and store the data in the first portion while the computing device is in the first power mode; wherein the computing device is configured to prevent storage of the data in the second portion while the computing device is in the first power mode; and a user interface configured to permit a user to interact with the computing device; wherein the computing device is configured to operate in at least two different power modes, wherein: the computing device is powered only via the RF interface while operating in the first power mode; and the computing device is powered by a non-radio frequency (non-RF) power source while operating in a second power mode; wherein the RF interface is configured to transmit data stored in the memory to the additional device while the computing device is in the first power mode. a radio frequency -RF- interface configured to receive data from an additional device while the computing device is operating in a first power mode powered only via the RF interface; a memory having a first portion and a second portion, wherein the memory is coupled to the RF interface and configured to: receive the data from the RF interface while the computing device is in the first power mode; and store the data in the first portion while the computing device is in the first power mode; receive the data from the RF interface while the computing device is in the first power mode; and store the data in the first portion while the computing device is in the first power mode; wherein the computing device is configured to prevent storage of the data in the second portion while the computing device is in the first power mode; and a user interface configured to permit a user to interact with the computing device; wherein the computing device is configured to operate in at least two different power modes, wherein: the computing device is powered only via the RF interface while operating in the first power mode; and the computing device is powered by a non-radio frequency (non-RF) power source while operating in a second power mode; the computing device is powered only via the RF interface while operating in the first power mode; and the computing device is powered by a non-radio frequency (non-RF) power source while operating in a second power mode; wherein the RF interface is configured to transmit data stored in the memory to the additional device while the computing device is in the first power mode.