mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a target base station, the method comprising: receiving (600, 630), a request to adapt transmissions of reference signals for mobility measurements, the request being received from a source base station serving a user equipment; and in response to the request, deciding whether or not to adapt transmissions of the reference signals for mobility measurements, wherein the decision is based on a load of the target base station. receiving (600, 630), a request to adapt transmissions of reference signals for mobility measurements, the request being received from a source base station serving a user equipment; and in response to the request, deciding whether or not to adapt transmissions of the reference signals for mobility measurements, wherein the decision is based on a load of the target base station.
A miR-135, a precursor thereof, or an exogenous polynucleotide encoding said miR-135 or said precursor thereof, for use in treating a medical condition in which an elevation of serotonin level is therapeutically beneficial.
A method of manufacturing a dental component, in particular a dental prosthesis or a partial dental prosthesis, comprising the following steps: (i) producing a model of the dental component; (ii) embedding the model in an investment material; (iii) removing the model from the investment material, in particular by heating or burning out, to obtain a negative mold of the model; (iv) inserting a raw material required for manufacturing the dental component into the negative mold; (v) producing the dental component in the negative mold; and (vi) deflasking the dental component in an at least partly automated manner on the basis of a virtual model of the dental component, characterized in that a deflasking device (50, 160) for deflasking the dental component is provided and comprises a control unit which controls the deflasking device on the basis of the virtual model. (i) producing a model of the dental component; (ii) embedding the model in an investment material; (iii) removing the model from the investment material, in particular by heating or burning out, to obtain a negative mold of the model; (iv) inserting a raw material required for manufacturing the dental component into the negative mold; (v) producing the dental component in the negative mold; and (vi) deflasking the dental component in an at least partly automated manner on the basis of a virtual model of the dental component,
Magnet assembly, in particular for a solenoid valve of a fuel injector, having a magnet core and having a magnet armature, wherein the magnet core has, on an armature-plate-facing face side, an inner pole surface and an outer pole surface, wherein a residual air gap disc is arranged between magnet core and magnet armature, which residual air gap disc is held on the armature-plate-facing face side of the magnet core by means of a clamping connection, wherein the clamping connection has a bracing ring which forces the residual air gap disc against the armature-plate-facing face side of the magnet core, characterized in that a bracing ring receptacle with a counterpart surface is provided, on which counterpart surface the bracing ring is supported with a radial bracing force and presses against the residual air gap disc by means of a resultant bracing force dissipated onto the counterpart surface, wherein the counterpart surface for supporting the bracing ring is a bevel which generates the resulting bracing force in the direction of the residual air gap disc.
A precoding method in a transmitting end of a Multiple Input Multiple Output, MIMO, system, the precoding method comprising: receiving feedback information for deciding a precoding matrix, performing the precoding using the precoding matrix decided according to the received feedback information; and transmitting data precoded by the precoding matrix by using transmitting antennas, characterized in that the precoding matrix is configured using a base matrix and an expansion matrix generated by performing a phase shift on the base matrix; in that the base matrix is one of a DFT (discrete Fourier Transform) matrix and an antenna selection matrix, and in that the precoding matrix is decided as the precoding matrix configured using the DFT matrix if a channel correlation for the received signal is high, and the precoding matrix is decided as the precoding matrix configured using the antenna selection matrix if the channel correlation for the received signal is low. receiving feedback information for deciding a precoding matrix, performing the precoding using the precoding matrix decided according to the received feedback information; and transmitting data precoded by the precoding matrix by using transmitting antennas, characterized in that the precoding matrix is configured using a base matrix and an expansion matrix generated by performing a phase shift on the base matrix; in that the base matrix is one of a DFT (discrete Fourier Transform) matrix and an antenna selection matrix, and in that the precoding matrix is decided as the precoding matrix configured using the DFT matrix if a channel correlation for the received signal is high, and the precoding matrix is decided as the precoding matrix configured using the antenna selection matrix if the channel correlation for the received signal is low.
Infrared shielding nanoparticles, which are nanoparticles of tungsten oxide expressed by a general formula WyOz (wherein w is tungsten, O is oxygen, satisfying 2.2 ≤ z/y ≤ 2.999) and/or composite tungsten oxide expressed by a general formula MxWyOz (wherein M is H, He, alkali metal, alkali earth metal, rare earth elements, one kind or two kinds or more of elements selected from a group consisting of Mg, Zr, Cr, Mn, Fe, Ru, Co, Rh, Ir, Ni, Pd, Pt, Cu, Ag, Au, Zn, Cd, Al, Ga, In, Tl, Si, Ge, Sn, Pb, Sb, B, F, P, S, Se, Br, Te, Ti, Nb, V, Mo, Ta, Re, Be, Hf, Os, Bi, I, W is tungsten, O is oxygen, satisfying 0.001 ≤ x/y ≤ 1, 2.2 ≤ z/y ≤ 3), wherein an average primary particle size of the individual nanoparticle is 1 nm or more and 800 nm or less, a surface of the nanoparticle is coated with an organic metal compound, and the surface of nanoparticle coated with the organic metal compound is further coated with a tetrafunctional silane compound expressed by a general formula Si 4 (wherein R is identical or different kind of 1-6C univalent hydrocarbon group) or its partial hydrolysis product.
A modular solar panel 16 to heat a fluid using sunlight comprising: a first, generally planar plate 18 comprised of a heat conductive material, a second, generally planar plate 20 comprised of a heat conductive material, the second planar plate 20 affixed to the first generally planar plate 18 and oriented in a plane generally parallel to the plane of the first generally planar plate 18, the first and second generally planar plates 18, 20 being affixed together in a fluid tight relationship forming a channel 68 therebetween, the channel 68 having an inlet 26 for fluid to be introduced into the channel 68 and an outlet 28 for discharging fluid from the channel 68, each of the first and second, generally planar plates 18, 20 being thin, the second generally planar plate 20 having a plurality of indentations 70 formed therein indented toward the first, generally planar plate 18 to control the flow of fluid passing therethrough; and a photovoltaic cell 40 affixed in heat conducting relationship to the second generally planar plate 20; characterized in that the indentations 70 comprise generally spiral indentations 70 where one leading edge 77 of a spiral indentation 70 is displaced outwardly from the second generally planar plate 20 and wherein the indentations 70 are oriented in columns aligned in the direction of the flow of fluid through the channel 68 and rows generally normal to the flow of fluid through the channel 68 and wherein the indentations 70 of alternating rows are displaced 180 degrees from the prior row of indentations 70. a first, generally planar plate 18 comprised of a heat conductive material, a second, generally planar plate 20 comprised of a heat conductive material, the second planar plate 20 affixed to the first generally planar plate 18 and oriented in a plane generally parallel to the plane of the first generally planar plate 18, the first and second generally planar plates 18, 20 being affixed together in a fluid tight relationship forming a channel 68 therebetween, the channel 68 having an inlet 26 for fluid to be introduced into the channel 68 and an outlet 28 for discharging fluid from the channel 68, each of the first and second, generally planar plates 18, 20 being thin, the second generally planar plate 20 having a plurality of indentations 70 formed therein indented toward the first, generally planar plate 18 to control the flow of fluid passing therethrough; and a photovoltaic cell 40 affixed in heat conducting relationship to the second generally planar plate 20; characterized in that the indentations 70 comprise generally spiral indentations 70 where one leading edge 77 of a spiral indentation 70 is displaced outwardly from the second generally planar plate 20 and wherein the indentations 70 are oriented in columns aligned in the direction of the flow of fluid through the channel 68 and rows generally normal to the flow of fluid through the channel 68 and wherein the indentations 70 of alternating rows are displaced 180 degrees from the prior row of indentations 70.
A gas purification filter unit for removing impurities contained in ozone gas, wherein the gas purification filter unit is provided with a first removal section for removing gas component impurities from the ozone containing impurities, and a second removal section which is disposed at a stage after the first removal section for removing solid fine particle impurities from the ozone containing impurities; wherein the ozone containing impurities is made to flow from an inflow end of the gas purification filter unit and is made to flow through the first removal section and second removal section, and ozone from which impurities have been removed is discharged from an outflow end as a result; wherein one end of the first removal section comprises the inflow end and the first removal section is provided with an external covering having a substantially cylindrical external shape; wherein a connector is formed at one end of the external covering in order to connect to a pipe which is joined to an ozone generator; wherein an accommodation section for detachably accommodating the second removal section is formed at the other end of the first removal section and a cylindrical space is formed in this accommodation section in such a way as to enable the second removal section, which has a substantially cylindrical external shape, to be received therein; wherein the second removal section is accommodated in such a way as to be detachable from the first removal section; wherein a mesh member comprising stainless steel which is resistant to ozone is provided in the accommodation section, thereby allowing ozone that has passed through the first removal section to flow into the second removal section; and wherein the inside of the external covering is filled with an adsorbent for physically adsorbing or chemically adsorbing and removing gas-component impurities.
A method for producing amides comprising: A. amidifying a biobased oil of vegetable or animal oils having at least one triglyceride backbone, wherein at least one fatty acid has at least one double bond, or derivatives of biobased oils, wherein fatty acid derivatisation occurs along the fatty acid backbone, so that substantially all of the fatty acids are amidified at the fatty acid glyceride sites; B. reacting the amidified biobased oil, or oil derivative with ozone and excess alcohol in the presence of a solvent at a temperature between about -80°C to about 80°C to produce intermediate products; C. refluxing the intermediate products or further reacting at lower than reflux temperature, wherein ester alcohols are produced from the intermediate products at double bond sites to produce a mixture of hybrid ester/amide products. A. amidifying a biobased oil of vegetable or animal oils having at least one triglyceride backbone, wherein at least one fatty acid has at least one double bond, or derivatives of biobased oils, wherein fatty acid derivatisation occurs along the fatty acid backbone, so that substantially all of the fatty acids are amidified at the fatty acid glyceride sites; B. reacting the amidified biobased oil, or oil derivative with ozone and excess alcohol in the presence of a solvent at a temperature between about -80°C to about 80°C to produce intermediate products; C. refluxing the intermediate products or further reacting at lower than reflux temperature, wherein ester alcohols are produced from the intermediate products at double bond sites to produce a mixture of hybrid ester/amide products.
Method for assisting a driver of a vehicle with at least one sensor arrangement for monitoring the surroundings of the vehicle, and a superimposition steering system for actuating a steering system of the vehicle during the execution of reverse travel of the vehicle, wherein the method provides the following method steps: a) monitoring the surroundings to the rear of the vehicle, b) defining a target in the surroundings to the rear, c) determining the position of the target relative to the vehicle, d) calculating a setpoint steering lock of the vehicle for reaching the target during the reverse travel, e) determining the steering wheel angle predefined by the driver, characterized by the following step: f) adapting a transmission ratio of the superimposition steering system between the steering wheel angle and the steering lock of the vehicle in order to approximate the steering lock to the setpoint steering lock, wherein before the start of the reverse travel of the vehicle the target is marked with a marking device, wherein the driver selects the target directly on a display unit by means of an input unit assigned to the display unit or determines a zone in which the target is defined. a) monitoring the surroundings to the rear of the vehicle, b) defining a target in the surroundings to the rear, c) determining the position of the target relative to the vehicle, d) calculating a setpoint steering lock of the vehicle for reaching the target during the reverse travel, e) determining the steering wheel angle predefined by the driver, f) adapting a transmission ratio of the superimposition steering system between the steering wheel angle and the steering lock of the vehicle in order to approximate the steering lock to the setpoint steering lock, wherein before the start of the reverse travel of the vehicle the target is marked with a marking device, wherein the driver selects the target directly on a display unit by means of an input unit assigned to the display unit or determines a zone in which the target is defined.
A surgical access device positionable within a tissue opening, comprising: (a) a tissue retractor including a flexible body configured to engage tissue surrounding the tissue opening, the flexible body including a proximal flange, a distal flange, and a medial body portion extending between the proximal and distal flanges; (b) a plurality of surgical instrument channels arranged in a central portion of the tissue retractor, wherein each surgical instrument channel is configured to guide a surgical instrument distally through the surgical access device; (c) at least one needle entrance port arranged on a proximal portion of the surgical access device; and (d) at least one needle exit port arranged distally of the needle entrance port, wherein the at least one needle entrance port and the at least one needle exit port are configured to cooperate to define a needle channel extending distally through the surgical access device and obliquely relative to a central axis thereof, wherein the needle channel is configured to guide a suture passer needle through the surgical access device and adjacent tissue to facilitate closure of the tissue opening; characterized in that the distal flange includes a plurality of perforated regions arranged circumferentially about the central axis, wherein each perforated region extends radially inwardly from an outer edge of the distal flange. (a) a tissue retractor including a flexible body configured to engage tissue surrounding the tissue opening, the flexible body including a proximal flange, a distal flange, and a medial body portion extending between the proximal and distal flanges; (b) a plurality of surgical instrument channels arranged in a central portion of the tissue retractor, wherein each surgical instrument channel is configured to guide a surgical instrument distally through the surgical access device; (c) at least one needle entrance port arranged on a proximal portion of the surgical access device; and (d) at least one needle exit port arranged distally of the needle entrance port,
Device (1, 1') for cooling a roll, particularly a work roll for the rolling of rolling stock, comprising: a cooling shell (50, 60) which is opposite at least a sub-region of the circumference of the roll surface, for forming a cooling gap, which can be flowed through by a cooling fluid, between the sub-region of the roll surface and the cooling shell (50, 60), characterised in that the device (1, 1') further comprises the following: a lever (40, 44), which is pivotable about a first suspension point (8, 48) in the direction of the roll surface and is rotatably connected with a first half (51, 61), as considered in the circumferential direction of the roll, of the cooling shell (50, 60), wherein the cooling gap can be selectably decreased or increased by pivotation of the lever (40, 44); and a length-variable linear guide (90, 99), which is pivotable about a second suspension point (88, 48) and which is rotatably connected with the second half (59, 69), as considered in the circumferential direction of the roll, of the cooling shell (50, 60). a cooling shell (50, 60) which is opposite at least a sub-region of the circumference of the roll surface, for forming a cooling gap, which can be flowed through by a cooling fluid, between the sub-region of the roll surface and the cooling shell (50, 60), characterised in that the device (1, 1') further comprises the following: a lever (40, 44), which is pivotable about a first suspension point (8, 48) in the direction of the roll surface and is rotatably connected with a first half (51, 61), as considered in the circumferential direction of the roll, of the cooling shell (50, 60), wherein the cooling gap can be selectably decreased or increased by pivotation of the lever (40, 44); and a length-variable linear guide (90, 99), which is pivotable about a second suspension point (88, 48) and which is rotatably connected with the second half (59, 69), as considered in the circumferential direction of the roll, of the cooling shell (50, 60). a lever (40, 44), which is pivotable about a first suspension point (8, 48) in the direction of the roll surface and is rotatably connected with a first half (51, 61), as considered in the circumferential direction of the roll, of the cooling shell (50, 60), wherein the cooling gap can be selectably decreased or increased by pivotation of the lever (40, 44); and a length-variable linear guide (90, 99), which is pivotable about a second suspension point (88, 48) and which is rotatably connected with the second half (59, 69), as considered in the circumferential direction of the roll, of the cooling shell (50, 60).
Procedure for monitoring the condition of a coil with at least two connecting wires (d 1, d 2), wherein said coil is part of a unit designed to determine at least one process variable of a medium in a vessel, wherein said procedure comprises the following steps: - Determination of a target value (R ges,ref) of an Ohmic total resistance for the coil and the connecting wires (d 1,d 2), - Application of an electrical excitation signal on the coil and receipt of an electrical reception signal from the coil by means of the two connecting wires (d 1, d 2), - Determination of an actual value (R ges) of the Ohmic total resistance at least using the reception signal, and - Comparison of the actual value (R ges) with the target value (R ges,ref) and determination of a condition indicator using the comparison, - wherein the excitation signal is an alternating signal, wherein a first phase (Φ 1) between the excitation signal and the reception signal is determined for at least a first excitation signal with a first predeterminable frequency (f 1), and wherein a deviation is determined between the first phase (Φ 1) and a target value (Φ ref,1) for the first phase, and - in the event that the deviation of the first phase exceeds a first predeterminable limit value, one concludes the presence of at least a shorted coil in the area of the coil. - Determination of a target value (R ges,ref) of an Ohmic total resistance for the coil and the connecting wires (d 1,d 2), - Application of an electrical excitation signal on the coil and receipt of an electrical reception signal from the coil by means of the two connecting wires (d 1, d 2), - Determination of an actual value (R ges) of the Ohmic total resistance at least using the reception signal, and - Comparison of the actual value (R ges) with the target value (R ges,ref) and determination of a condition indicator using the comparison, - wherein the excitation signal is an alternating signal, wherein a first phase (Φ 1) between the excitation signal and the reception signal is determined for at least a first excitation signal with a first predeterminable frequency (f 1), and wherein a deviation is determined between the first phase (Φ 1) and a target value (Φ ref,1) for the first phase, and - in the event that the deviation of the first phase exceeds a first predeterminable limit value, one concludes the presence of at least a shorted coil in the area of the coil.
Urban transportation and logistics system, comprising • a first ground level comprising railway tracks for freight railway transport, • a second engineering and technical level comprising pipelines and technical communications, such as water mains, heat and sewer pipes, gas, electric networks, • a third level comprising passenger transport equipment, namely metro trains, • a fourth pedestrian level, located under open sky and including residential and non-residential buildings, whereby each level is located one above the other, characterized in that the first ground level comprises motor roads for freight road transport, the second engineering and technical level comprises garbage chute constructions, the third level comprises passenger transport equipment, namely travelators or electric buses and in that the levels are connected with each other and with the residential and non-residential buildings by vertical staircase-elevator systems. • a first ground level comprising railway tracks for freight railway transport, • a second engineering and technical level comprising pipelines and technical communications, such as water mains, heat and sewer pipes, gas, electric networks, • a third level comprising passenger transport equipment, namely metro trains, • a fourth pedestrian level, located under open sky and including residential and non-residential buildings,
Diffuser for releasable fastening to a reflector screen, comprising a diffuser element and fastening means for fastening the diffuser element to the reflector screen, wherein the fastening means has a plurality of fastening elements designed and configured to receive corresponding screen spokes of the reflector screen, characterised in that the fastening elements are designed as one-piece elements applying a spring action, wherein the fastening elements are flat plates and have an opening for receiving one screen spoke each, wherein the opening is arranged eccentrically with respect to the centre point of the fastening element.