mhurhangee/ep-ind-claims huggingface dataset:
A fermented birch sap, which is obtainable by fermentation using birch sap as a sole or main substrate and Inonotus obliquus as a strain, wherein, when using birch sap as main substrate, a carbon source, a nitrogen source, an inorganic salt, and/or a pH adjuster are further added to the birch sap in the fermentation, and in this case, the content of the birch sap is 90% or more, based on the total weight of a fermentation medium used in the step of fermentation, and wherein the fermented birch sap comprises 100 mg/L or more of total phenols and 1.3 g/L or more of polysaccharides. wherein, when using birch sap as main substrate, a carbon source, a nitrogen source, an inorganic salt, and/or a pH adjuster are further added to the birch sap in the fermentation, and in this case, the content of the birch sap is 90% or more, based on the total weight of a fermentation medium used in the step of fermentation, and wherein the fermented birch sap comprises 100 mg/L or more of total phenols and 1.3 g/L or more of polysaccharides.
Industrial truck comprising - a lifting frame, - an operator compartment which can be moved upwards and downwards on the lifting frame, - a lateral push frame, which is arranged on the operator compartment, in the front thereof, and which can be moved upwards and downwards on the lifting frame together with the operator compartment and carries a load-receiving apparatus, which can be moved back and forth laterally transversely to the straight forward travel direction of the industrial truck, and - a vibration-damping device (48, 80, 84), which can be moved upwards and downwards on the lifting frame together with the operator compartment, for damping vibrations, characterised in that the vibration-damping device (48, 80, 84) is arranged between the operator compartment and the load-receiving apparatus and is designed to permit vibration compensation movements of the load-receiving apparatus relative to the operator compartment so as to damp or suppress vibrations. - a lifting frame, - an operator compartment which can be moved upwards and downwards on the lifting frame, - a lateral push frame, which is arranged on the operator compartment, in the front thereof, and which can be moved upwards and downwards on the lifting frame together with the operator compartment and carries a load-receiving apparatus, which can be moved back and forth laterally transversely to the straight forward travel direction of the industrial truck, and - a vibration-damping device (48, 80, 84), which can be moved upwards and downwards on the lifting frame together with the operator compartment, for damping vibrations,
A pharmaceutical composition for use in the prevention or treatment of non-alcoholic fatty liver disease comprising an insulinotropic peptide drug conjugate prepared by covalently linking an insulinotropic peptide and an immunoglobulin Fc region via a non-peptidyl polymer as an active ingredient, wherein the insulinotropic peptide is selected from the group consisting of exendin-4, an exendin-4 derivative prepared by deleting the N-terminal amine group of exendin-4, an exendin-4 derivative prepared by substituting the N-terminal amine group of exendin-4 with a hydroxyl group, an exendin-4 derivative prepared by modifying the N-terminal amine group of exendin-4 with a dimethyl group, and an exendin-4 derivative prepared by deleting alpha-carbon of the N-terminal histidine residue of exendin-4 and the N-terminal amine group linked to the alpha-carbon, and the non-peptidyl polymer is selected from the group consisting of polyethylene glycol, polypropylene glycol, copolymers of ethylene glycol-propylene glycol, polyoxyethylated polyols, polyvinyl alcohol, polysaccharides, dextran, polyvinyl ethyl ether, biodegradable polymers, lipid polymers, chitins, hyaluronic acid, and combinations thereof, wherein the non-peptidyl polymer is linked to a lysine residue at position 27 of the insulinotropic peptide; and wherein the non-alcoholic fatty liver disease is selected from the group consisting of simple steatosis, fatty liver diseases caused by starvation, liver fibrosis and liver cirrhosis.
A method for testing a feed antenna of a satellite comprising: generating a source signal internal to the satellite, wherein the satellite includes the feed antenna disposed on an exterior of the satellite; generating a transmit signal external to the satellite by a broadcast of the source signal with the feed antenna; generating a test signal with a probe in response to a first reception of a test portion of the transmit signal, wherein the probe is external to the satellite; generating a reference signal with a reference horn in response to a second reception of a reference portion of the transmit signal, wherein the reference horn is external to the satellite, wherein the second reception made by the reference horn is receiving a side lobe of the transmit signal; and determining an amplitude and a phase of the transmit signal based on the test signal relative to the reference signal. generating a source signal internal to the satellite, wherein the satellite includes the feed antenna disposed on an exterior of the satellite; generating a transmit signal external to the satellite by a broadcast of the source signal with the feed antenna; generating a test signal with a probe in response to a first reception of a test portion of the transmit signal, wherein the probe is external to the satellite; generating a reference signal with a reference horn in response to a second reception of a reference portion of the transmit signal, wherein the reference horn is external to the satellite, wherein the second reception made by the reference horn is receiving a side lobe of the transmit signal; and determining an amplitude and a phase of the transmit signal based on the test signal relative to the reference signal.
A method for removing acidic noxious gases from an exhaust gas having a low exhaust-gas temperature, in which the exhaust gas is conducted via an exhaust-gas channel into a reaction section and sodium carbonate, which has been produced beforehand by means of the activation and splitting of a precursor product of sodium carbonate, is supplied to the exhaust gas in the exhaust-gas channel or in the reaction section and the sodium carbonate reacts as a sorbent with the noxious gases in the reaction section so that the exhaust gas, after it has passed a filter following the reaction section, is present as clean gas, a portion of the clean gas being branched off as partial clean gas flow into a return line (18, 22) which leads back into the exhaust-gas channel and/or into the reaction section, the precursor product of sodium carbonate being dosed into the partial clean gas flow at a dosing point in the return line (18, 22) and split there, the partial clean gas flow being heated to an activation temperature upstream of the dosing point, so that the precursor product of sodium carbonate is dosed into a heated partial clean gas flow at the dosing point, and at least 85% of the precursor product having been split in the return line before it is returned with the partial clean gas flow into the reaction section, characterized in that the method is applied at an exhaust-gas temperature of less than 150°C, in that the residence time of the sorbent in the reaction section is chosen such that it is converted at least to 85% to reaction product on leaving the reaction section and is no longer present as hydrogen carbonate, in that the portion of the clean gas, which is branched off as partial clean gas flow into the return line (18, 22), is less than 8% of the clean gas flow, in that the partial clean gas flow in the return line is heated such that the return temperature thereof, that is the temperature which is present before return into the reaction section, is 150-180°C, in that the activation temperature is 180-300°C, preferably 180-260°C, and in that the activation temperature is regulated by means of a predetermined set-point value for the return temperature, wherein a heating device is provided for heating the partial clean gas flow in the return line, the output of which is regulated in the case of a set constant partial clean gas flow in such a manner that the return temperature corresponds to the set-point temperature.
A solid ammonia storage and delivery material consisting of a metal ammine complex salt capable of releasing and thereafter again absorbing ammonia compressed to a density of at least 85% of the solid density, wherein the metal ammine complex salt is an ionic salt of the general formula: M a (NH 3) n X z, wherein M is one or more cations selected from alkaline earth metals, and/or one or more transition metals, such as Mn, Fe, Co, Ni, Cu, and/or Zn, X is one or more anions selected from fluoride, chloride, bromide, iodide, nitrate, thiocyanate, sulphate, molybdate, and phosphate ions, a is the number of cations per salt molecule, z is the number of anions per salt molecule, and n is the coordination number of 2 to 12, and said metal ammine complex salt comprises more than 30% by weight ammonia, and wherein the metal ammine complex salt before compression is a powdery material.
Oral and dental hygiene and cleaning agent, containing, based on its weight, a) 0.05 to 1.0% by weight of at least one zinc salt; b) 0.01 to 1.0% by weight of hexetidine; c) less than 50% by weight of water, whereby the weight ratio of zinc from the zinc salt to hexetidine is 2:3 to 2:5. a) 0.05 to 1.0% by weight of at least one zinc salt; b) 0.01 to 1.0% by weight of hexetidine; c) less than 50% by weight of water,
A method for controlling access to a restricted area, comprising: determining, by an electronic circuit, whether a person wearing a Wearable Access Sensor WAS desires to enter or exit the restricted area based on a rate of change data specifying a rate of change of a charging voltage of an energy storage device used in an electromagnetic field energy harvesting circuit disposed within the WAS; and causing, by the electronic circuit, actuation of a mechanical actuator to enable the person's entrance into or exit from the restricted area when a determination is made that the person desires to enter or exit the restricted area; wherein the determining step is based further on a detected direction of the person's motion and a detected speed of the person's motion; further comprising transitioning the WAS from an energy harvesting mode to a communication mode when the energy storage device is charged to an operating voltage level of a communication device disposed in the WAS.
Plug connector system with a first plug connector and a second plug connector, wherein the first plug connector comprises a first shield having an engagement portion and the second plug connector comprises a second shield having a receiving portion, wherein the engagement portion of the first shield of the first plug connector engages in the receiving portion of the second shield of the second plug connector, wherein an outer side of the engagement portion has a marking, wherein the receiving portion has a through-opening, wherein the marking is positioned on the outer side of the first shield in such a way that the marking can be arranged entirely in the region of the through-opening of the second plug connector, whereby the marking is fully visible, wherein the first plug connector has a first contact element and the second plug connector has a second contact element, wherein the first contact element and the first shield are arranged concentrically, wherein the second contact element and the second shield are arranged concentrically, wherein the first contact element and the second contact element are mechanically and electrically connected to one another when the marking is fully visible, characterized in that the first contact element and the second contact element are arranged perpendicularly to one another. wherein the first plug connector comprises a first shield having an engagement portion and the second plug connector comprises a second shield having a receiving portion, wherein the engagement portion of the first shield of the first plug connector engages in the receiving portion of the second shield of the second plug connector, wherein an outer side of the engagement portion has a marking, wherein the receiving portion has a through-opening, wherein the marking is positioned on the outer side of the first shield in such a way that the marking can be arranged entirely in the region of the through-opening of the second plug connector, whereby the marking is fully visible, wherein the first plug connector has a first contact element and the second plug connector has a second contact element, wherein the first contact element and the first shield are arranged concentrically, wherein the second contact element and the second shield are arranged concentrically, wherein the first contact element and the second contact element are mechanically and electrically connected to one another when the marking is fully visible, characterized in that the first contact element and the second contact element are arranged perpendicularly to one another.
Cleaning head for a hard surface cleaning appliance, wherein the cleaning head comprises at least one cleaning roller (104, 106), which is rotatable about a rotational axis and is held on a rotationally drivable drive shaft in a rotationally-fixed manner, wherein the drive shaft comprises at least one shaft inner part consisting of metal, characterized in that the shaft inner part is surrounded by a shaft outer part consisting of a plastic material.
An apparatus for drying a gas to be processed comprising a first heat exchanger, a second heat exchanger and a condensate separator which are received inside a box-like body (10, 20, 30, 40, 50), said first and second exchangers (1, 2) comprising a plurality of corrugated fins interposed between heat exchange plates (12, 12', 12") so as to define a course for the gas to be processed and/or for a heat exchange fluid along longitudinal portions, said fins being distributed in each exchanger at levels one above the other which are separated by said plates (12, 12', 12"), characterized in that the first and second exchangers (1, 2) are provided in such a manner that a flow of gas in the first exchanger is substantially perpendicular to a flow of gas in the second exchanger in an L-like manner, and in that the first and second exchangers (1, 2) extend over said longitudinal portions (10, 20) which are substantially equal to each other, those longitudinal portions (10, 20) being defined by the longitudinal extent of the fins, the heat exchange plates of the first exchanger having a different thickness with respect to the plates of the second exchanger and the first and second exchangers (1, 2) having substantially identical spatial requirements.
A qubit device comprising a first and a second linear qubit array (101, 102), wherein each qubit array comprises: a semiconductor substrate layer; a set of control gates (112, 114, 116) configured to define a single row of electrostatically confined quantum dots along the substrate layer, each quantum dot being suitable for holding a qubit; and a set of nanomagnets distributed along the row of quantum dots such that a nanomagnet is arranged at every other pair of quantum dots of the row of quantum dots; wherein each nanomagnet has an out-of-plane magnetization with respect to the substrate layer and wherein every other pair of quantum dots are subjected to an out-of-plane magnetic field generated by a respective nanomagnet, such that a qubit spin resonance frequency of every other pair of quantum dots is shifted with respect to an adjacent pair of quantum dots of the row of quantum dots; wherein the rows of the first and second array (101, 102) extend in a common row direction and are separated along a direction transverse to the row direction; and the qubit device further comprising: a set of superconducting resonators connecting pairs of quantum dots (122a, 122b) between the first and second array (101, 102), wherein each pair of quantum dots (122a, 122b) in the first array is configured to couple with a superconducting resonator of the set to connect with a different pair of quantum dots (122a, 122b) of the second array. a semiconductor substrate layer; a set of control gates (112, 114, 116) configured to define a single row of electrostatically confined quantum dots along the substrate layer, each quantum dot being suitable for holding a qubit; and a set of nanomagnets distributed along the row of quantum dots such that a nanomagnet is arranged at every other pair of quantum dots of the row of quantum dots; wherein each nanomagnet has an out-of-plane magnetization with respect to the substrate layer and wherein every other pair of quantum dots are subjected to an out-of-plane magnetic field generated by a respective nanomagnet, such that a qubit spin resonance frequency of every other pair of quantum dots is shifted with respect to an adjacent pair of quantum dots of the row of quantum dots; wherein the rows of the first and second array (101, 102) extend in a common row direction and are separated along a direction transverse to the row direction; and the qubit device further comprising: a set of superconducting resonators connecting pairs of quantum dots (122a, 122b) between the first and second array (101, 102), wherein each pair of quantum dots (122a, 122b) in the first array is configured to couple with a superconducting resonator of the set to connect with a different pair of quantum dots (122a, 122b) of the second array.
System (1") for docking an aerostat (2") on a receiving structure comprising a receiving structure, a mooring cable and at least one unmanned aerial vehicle, characterized in that the unmanned aerial vehicle can be controlled in order to move between said aerostat (2") and said receiving structure while carrying a first end of the mooring cable the second end of which is fastened to said receiving structure and in order to fasten said first end to said aerostat (2"), so that this cable connects said aerostat (2") to said receiving structure; the unmanned aerial vehicle being arranged to start from the receiving structure, and the unmanned aerial vehicle being arranged for being controlled to: (i) carry said first end of said mooring cable to the aerostat (2"), when the second end is fastened to said receiving structure; and (ii) fasten said first end to said aerostat(2"). (i) carry said first end of said mooring cable to the aerostat (2"), when the second end is fastened to said receiving structure; and (ii) fasten said first end to said aerostat(2").
A compound according to the following formula: R=R'(a) or R"(b) R' oxygen linked pyridyl R" oxygen linked N-alklyated pyridinium wherein: M is selected from aluminium or zinc, R" is linked via an oxygen atom to a pyridine group at least 1 of which bears a cationic charge, and the remaining peripheral carbon atoms are an unsubstituted organic radical, a + b = 4 b = 1 to 3.9 X = Cl -, Br -, I -, methanesulphonate, ethanesulphonate, formate, acetate or other inorganic or organic counter-ion or mixture thereof; and wherein alkylation on the pyridine nitrogen is optionally branched C1-C8 alkyl. R=R'(a) or R"(b) R' oxygen linked pyridyl R" oxygen linked N-alklyated pyridinium M is selected from aluminium or zinc, R" is linked via an oxygen atom to a pyridine group at least 1 of which bears a cationic charge, and the remaining peripheral carbon atoms are an unsubstituted organic radical, a + b = 4 b = 1 to 3.9 X = Cl -, Br -, I -, methanesulphonate, ethanesulphonate, formate, acetate or other inorganic or organic counter-ion or mixture thereof; and wherein alkylation on the pyridine nitrogen is optionally branched C1-C8 alkyl.
A method for matching a time delay and a bandwidth of a plurality of sensors (620, 622), the method characterised by comprising: receiving first sensor data having a first timestamp from a first sensor having a first bandwidth; receiving second sensor data having a second timestamp from a second sensor having a second bandwidth, wherein the first bandwidth is different to the second bandwidth; and synchronizing the first sensor data and the second sensor data by performing one or more of: compensating for a first time delay of the first sensor data, wherein compensating comprises determining or providing the first time delay; compensating for a second time delay of the second sensor data, wherein compensating comprises determining or providing the second time delay; compensating for a relative time delay between the first sensor data and the second sensor data, wherein compensating comprises determining or providing a first time delay of the first sensor data and a second time delay of the second sensor data; or matching (760; 770) the first bandwidth and the second bandwidth to a common bandwidth. receiving first sensor data having a first timestamp from a first sensor having a first bandwidth; receiving second sensor data having a second timestamp from a second sensor having a second bandwidth, wherein the first bandwidth is different to the second bandwidth; and synchronizing the first sensor data and the second sensor data by performing one or more of: compensating for a first time delay of the first sensor data, wherein compensating comprises determining or providing the first time delay; compensating for a second time delay of the second sensor data, wherein compensating comprises determining or providing the second time delay; compensating for a relative time delay between the first sensor data and the second sensor data, wherein compensating comprises determining or providing a first time delay of the first sensor data and a second time delay of the second sensor data; or matching (760; 770) the first bandwidth and the second bandwidth to a common bandwidth. compensating for a first time delay of the first sensor data, wherein compensating comprises determining or providing the first time delay; compensating for a second time delay of the second sensor data, wherein compensating comprises determining or providing the second time delay; compensating for a relative time delay between the first sensor data and the second sensor data, wherein compensating comprises determining or providing a first time delay of the first sensor data and a second time delay of the second sensor data; or matching (760; 770) the first bandwidth and the second bandwidth to a common bandwidth.