mhurhangee/ep-ind-claims huggingface dataset:
A base station (102, 200, 602, 702), comprising: a radio transceiver (214, 134-N); a spectrum virtualization module (130, 242, 716, 724, 732) configured to exchange physical baseband signals with the radio transceiver (214, 134-N), the spectrum virtualization module (130, 242, 716, 724, 732) further configured to perform baseband signal shaping to convert the physical baseband signals into and from virtual baseband signals generated according to one or more virtual frequency bands of a wireless transmission protocol of the spectrum virtualization module (130, 242, 716, 724, 732), and configured to modulate a data stream on one of the virtual baseband signals according to a virtual tick rate of a virtual clock; and a spectrum manager (114, 232, 910) including a decision module (120, 250), the decision module (120, 250) configured to determine, based on one or more transmission policies, a spectrum allocation that maps one or more physical frequency bands available in a geographic area of the base station (102, 200, 602, 702) to the one or more virtual frequency bands in accordance with the wireless transmission protocol for baseband signal shaping by the spectrum virtualization module (130, 242, 716, 724, 732); and wherein the virtual tick rate is directly proportional to an aggregated bandwidth of the selected physical frequency bands. a radio transceiver (214, 134-N); a spectrum virtualization module (130, 242, 716, 724, 732) configured to exchange physical baseband signals with the radio transceiver (214, 134-N), the spectrum virtualization module (130, 242, 716, 724, 732) further configured to perform baseband signal shaping to convert the physical baseband signals into and from virtual baseband signals generated according to one or more virtual frequency bands of a wireless transmission protocol of the spectrum virtualization module (130, 242, 716, 724, 732), and configured to modulate a data stream on one of the virtual baseband signals according to a virtual tick rate of a virtual clock; and a spectrum manager (114, 232, 910) including a decision module (120, 250), the decision module (120, 250) configured to determine, based on one or more transmission policies, a spectrum allocation that maps one or more physical frequency bands available in a geographic area of the base station (102, 200, 602, 702) to the one or more virtual frequency bands in accordance with the wireless transmission protocol for baseband signal shaping by the spectrum virtualization module (130, 242, 716, 724, 732); and wherein the virtual tick rate is directly proportional to an aggregated bandwidth of the selected physical frequency bands.
A system for adjusting the conveyor belt tension within an agricultural harvester, the system comprising a conveyor comprising a first roller, a second roller spaced apart from the first roller, and a conveyor belt configured to engage the first and second rollers (76, 78), a tensioner assembly including an input member, an output shaft being coupled to the first roller and a ratcheting mechanism, the ratcheting mechanism being coupled between the input member and output shaft characterized in that the ratcheting mechanism is configured to selectively convert movement of the input member into translation of the output shaft and to selectively adjust a position of the first roller relative to the second roller to adjust a tension force exerted on the conveyor belt, and the output shaft is rotatably coupled to the input member and threadingly engages the input member such that rotation of the input member relative to the output shaft moves the output shaft relative to the input member along a direction parallel to a rotational axis of the output shaft to adjust the position of the first roller relative to the second roller. a conveyor comprising a first roller, a second roller spaced apart from the first roller, and a conveyor belt configured to engage the first and second rollers (76, 78), a tensioner assembly including an input member, an output shaft being coupled to the first roller and a ratcheting mechanism, the ratcheting mechanism being coupled between the input member and output shaft characterized in that the ratcheting mechanism is configured to selectively convert movement of the input member into translation of the output shaft and to selectively adjust a position of the first roller relative to the second roller to adjust a tension force exerted on the conveyor belt, and the output shaft is rotatably coupled to the input member and threadingly engages the input member such that rotation of the input member relative to the output shaft moves the output shaft relative to the input member along a direction parallel to a rotational axis of the output shaft to adjust the position of the first roller relative to the second roller.
A dishwasher comprising a washing chamber having a base, two side walls and wherein the washing process is performed, a door providing access into the washing chamber, a rack wherein items to be washed are placed and having wires surrounding it, two rails disposed oppositely on the base and parallel to the side wall, at least two front wheels, mounted to the front side of the rack, seated on the rails, providing the rack to be placed into and taken out from the washing chamber by moving forwards and backwards in the rails, at least two rear wheels, mounted to the rear side of the rack, seated on the rails, providing the rack to be placed into and taken out from the washing chamber by moving forwards and backwards in the rails, at least one stopper disposed on the base, extending from the base towards into the washing chamber and characterized by - at least one connection member, providing the rear wheel to be pivotally mounted to the rack, said connection member contacting the stopper when the rack is pulled outwards from the washing chamber, thereby providing the rack to stop and preventing the rack from completely leaving the washing chamber. - at least one connection member, providing the rear wheel to be pivotally mounted to the rack, said connection member contacting the stopper when the rack is pulled outwards from the washing chamber, thereby providing the rack to stop and preventing the rack from completely leaving the washing chamber.
Clocked inverter of an electrical voltage for an ultrasonic motor, the inverter comprising an electrical direct voltage source, a storage coil, a switch for the current is of the storage coil, an electrical summation transformer with a primary winding and a secondary winding, a controlled generator, and two switches (11, 12) clocked in antiphase, wherein the storage coil is connected to a first output of the electrical direct voltage source via a first connection and to a middle output A of the primary winding of the summation transformer via a second connection, wherein a capacitor is connected parallel to the primary winding, and two connections (23, 24) of the summation transformer are connected to a second output of the electrical direct voltage source via the switches (11, 12) clocked in antiphase, wherein the switch is designed as a two-channel switch which, with a first connection, is connected to the second connection of the storage coil and, with a second connection, is connected to the second output of the electrical direct voltage source, wherein the switches (11, 12) clocked in antiphase are controlled by clocked electrical rectangular voltages U2, U3 which are provided by the controlled generator, wherein the frequency of the electrical rectangular voltages U2, U3 is equal to the working frequency fa of the ultrasonic motor, and wherein the switch is controlled by a clocked electrical rectangular voltage U1 being provided by the controlled generator, wherein the frequency of the electrical rectangular voltage U1 is two times bigger than the working frequency fa of the ultrasonic motor.
A method for producing at least one protein variant with improved wash performance as compared to a parent protein, comprising: a) determining an optimum protein charge range for wash performance in a detergent composition, by testing a plurality of substituted protein variants in a wash performance test of interest, said protein variants having a net charge change of i) 0, -1 or -2, and ii) +1 or +2 relative to the parent protein, for the property of interest, and wherein the net charge having the peak performance in the test of interest is determined to be the optimum protein charge; and b) modifying at least one amino acid residue at one or more positions having a solvent accessible surface of greater than 50% on the surface of said parent protein to yield more than one protein variant having a more positive charge or a more negative charge compared to the parent protein so that each of the protein variants have the optimum charge as determined in part a); and c) assessing the wash performance of the protein variants from step b) to identify a protein variant that exhibits improved wash performance in said test of interest as compared to the parent protein. a) determining an optimum protein charge range for wash performance in a detergent composition, by testing a plurality of substituted protein variants in a wash performance test of interest, said protein variants having a net charge change of i) 0, -1 or -2, and ii) +1 or +2 relative to the parent protein, for the property of interest, and wherein the net charge having the peak performance in the test of interest is determined to be the optimum protein charge; and i) 0, -1 or -2, and ii) +1 or +2 b) modifying at least one amino acid residue at one or more positions having a solvent accessible surface of greater than 50% on the surface of said parent protein to yield more than one protein variant having a more positive charge or a more negative charge compared to the parent protein so that each of the protein variants have the optimum charge as determined in part a); and c) assessing the wash performance of the protein variants from step b) to identify a protein variant that exhibits improved wash performance in said test of interest as compared to the parent protein.
A radio wave transceiver system, comprising: - at least one pair of waveguides (107T, 107R) made of a dielectric material comprising a transmit waveguide and a receive waveguide; - a transceiver circuit coupled to a first end of each of said transmit and receive waveguides, capable of transmitting and of receiving radio waves respectively propagating in said transmit and receive waveguides; and - at least one transmit antenna and one receive antenna respectively coupled to a second end of said transmit and receive waveguides, and capable of transmitting or receiving said waves to/from a non-guided external medium, wherein the system further comprises an initialization device comprising an initialization switch controllable to, during an initialization phase, bypass the transmit antenna and the receive antenna to measure a round trip delay of radio waves in said transmit and receive waveguides, the system being configured to be used as a radar to estimate distances by time-of-flight measurement between a forward radio wave transmitted by the transceiver circuit and a return radio wave received by the transceiver circuit after reflection on an external object. - at least one pair of waveguides (107T, 107R) made of a dielectric material comprising a transmit waveguide and a receive waveguide; - a transceiver circuit coupled to a first end of each of said transmit and receive waveguides, capable of transmitting and of receiving radio waves respectively propagating in said transmit and receive waveguides; and - at least one transmit antenna and one receive antenna respectively coupled to a second end of said transmit and receive waveguides, and capable of transmitting or receiving said waves to/from a non-guided external medium,
Method for determining an indicator for predicting an instability in a compressor which is designed as an axial or centrifugal compressor, comprising the following steps: - operating a compressor designed as an axial or centrifugal compressor in operating states which differ by different values of a parameter for a flow mass flow of the compressor, wherein in this situation the operating states are passed through with decreasing flow mass flows; - determining the values of the flow mass flow parameter for the operating states; - detecting time-resolved pressure readings when passing through the operating states by means of a pressure sensor which is disposed in a housing of the compressor adjacently upstream of an entrance plane of a rotor stage; - determining the skewness for the operating states, characterized in that the following step is performed additionally - determining an indicator for instability of the compressor when a sign change of the curve rise is determined for a curve progression of the skewness over the parameter for the flow mass flow for the operating states. - operating a compressor designed as an axial or centrifugal compressor in operating states which differ by different values of a parameter for a flow mass flow of the compressor, wherein in this situation the operating states are passed through with decreasing flow mass flows; - determining the values of the flow mass flow parameter for the operating states; - detecting time-resolved pressure readings when passing through the operating states by means of a pressure sensor which is disposed in a housing of the compressor adjacently upstream of an entrance plane of a rotor stage; - determining the skewness for the operating states, - determining an indicator for instability of the compressor when a sign change of the curve rise is determined for a curve progression of the skewness over the parameter for the flow mass flow for the operating states.
A cylindrical battery comprising a cylindrical battery case and a layered electrode group contained in the battery case, wherein the layered electrode group comprises: a positive electrode plate retaining a positive active material in a positive electrode current collector; a negative electrode plate retaining a negative active material in a negative electrode current collector; and a separator interposed between the positive electrode plate and the negative electrode plate, wherein the positive electrode plate is formed into a substantial U-shape by disposing two active material retaining portions retaining the positive active material opposite to each other, the negative electrode plate is formed into a substantial U-shape by disposing two active material retaining portions retaining the negative active material opposite to each other, and the layered electrode group is formed into a substantially rectangular parallelepiped shape, in which the positive electrode plate and the negative electrode plate are layered such that at least one active material retaining portion at either one of the positive electrode plate and the negative electrode plate is sandwiched between two active material retaining portions at the other one of the positive electrode plate and the negative electrode plate, wherein the positive electrode plate or the negative electrode plate has a current collecting terminal extending from a folded portion formed between the two active material retaining portions outward along a folding line of the folded portion. a positive electrode plate retaining a positive active material in a positive electrode current collector; a negative electrode plate retaining a negative active material in a negative electrode current collector; and a separator interposed between the positive electrode plate and the negative electrode plate, wherein the positive electrode plate is formed into a substantial U-shape by disposing two active material retaining portions retaining the positive active material opposite to each other, the negative electrode plate is formed into a substantial U-shape by disposing two active material retaining portions retaining the negative active material opposite to each other, and the layered electrode group is formed into a substantially rectangular parallelepiped shape, in which the positive electrode plate and the negative electrode plate are layered such that at least one active material retaining portion at either one of the positive electrode plate and the negative electrode plate is sandwiched between two active material retaining portions at the other one of the positive electrode plate and the negative electrode plate,
A developer storage container comprising: a first storage member storing a developer; a second storage member fitted to the first storage member; and a sealing member that seals between the first storage member and the second storage member for preventing leakage of the developer, wherein the first storage member includes a first fitting portion; wherein the second storage member includes a fitting surface to which the first fitting portion is fitted; wherein the first fitting portion includes a pressing portion pressing the sealing member; the pressing portion having an inclined portion facing the fitting surface, wherein the first fitting portion further includes an outer wall formed continuously with the inclined portion of the pressing portion, the outer wall and the fitting surface facing each other and being parallel to each other. a first storage member storing a developer; a second storage member fitted to the first storage member; and a sealing member that seals between the first storage member and the second storage member for preventing leakage of the developer, wherein the first storage member includes a first fitting portion; wherein the second storage member includes a fitting surface to which the first fitting portion is fitted; wherein the first fitting portion includes a pressing portion pressing the sealing member; the pressing portion having an inclined portion facing the fitting surface, wherein the first fitting portion further includes an outer wall formed continuously with the inclined portion of the pressing portion, the outer wall and the fitting surface facing each other and being parallel to each other.
Method for production of a layer of nanofibres from solutions or melts of polymers in electrostatic field of a high intensity, during which the produced nanofibres deposit on a substrate material passing through the active chamber, in which there is positioned the active electrode, characterised by that the electrostatic field for production, transfer and depositing of nanofibres is induced between the active electrode and the substrate material, which is positioned in the active chamber without contact with any charged or grounded means, on which is by means of at least one corona emitter positioned behind the substrate material opposite to the active electrode in a contactless way applied an electric charge of opposite polarity than that of the active electrode, while an electric charge applied on the substrate material is being partially or totally consumed through depositing of nanofibres on moving substrate material.
A primary fuselage structure for an aircraft, including: - a plurality of circumferential frames (42a, 42b); - a first floor structure exhibiting opposite lateral ends connected to said circumferential frames; and - at least one strut (50a, 50b) for supporting said first floor structure, said strut including a lower end fixed on a circumferential frame of said plurality of circumferential frames and an opposite upper end fixed on said first floor structure, said primary fuselage structure being characterized in that it includes at least one failure-initiating element (58a, 58b) incuding first fastening means by which the failure-initiating element is fixed on a circumferential frame (42a, 42b) of said plurality of circumferential frames, away from the lower end of said strut, as well as second fastening means by which the failure-initiating element is fixed on said strut (50a, 50b), away from the ends (54, 56) of said strut, so that the failure-initiating element (58a, 58b) applies to said strut (50a, 50b) a lateral force under the influence of an impact force oriented substantially in the radial direction and inward relative to a longitudinal axis of the primary fuselage structure, so as to contribute to premature failure in buckling of the strut subjected to a compression resulting from said impact force. - a plurality of circumferential frames (42a, 42b); - a first floor structure exhibiting opposite lateral ends connected to said circumferential frames; and - at least one strut (50a, 50b) for supporting said first floor structure, said strut including a lower end fixed on a circumferential frame of said plurality of circumferential frames and an opposite upper end fixed on said first floor structure, said primary fuselage structure being characterized in that it includes at least one failure-initiating element (58a, 58b) incuding first fastening means by which the failure-initiating element is fixed on a circumferential frame (42a, 42b) of said plurality of circumferential frames, away from the lower end of said strut, as well as second fastening means by which the failure-initiating element is fixed on said strut (50a, 50b), away from the ends (54, 56) of said strut, so that the failure-initiating element (58a, 58b) applies to said strut (50a, 50b) a lateral force under the influence of an impact force oriented substantially in the radial direction and inward relative to a longitudinal axis of the primary fuselage structure, so as to contribute to premature failure in buckling of the strut subjected to a compression resulting from said impact force.
A roller shutter comprising a plurality of slats, each slat comprising an even elongated metal sheet having a longitudinal direction and a transversal direction, said even elongated metal sheet having a first longitudinal edge and a second longitudinal edge, wherein said first longitudinal edge forms a first spiral and said second longitudinal edge forms a second spiral, wherein said first spiral and second spiral have a same rotation direction (70, 80), wherein said first and second spirals have a first and a second longitudinal axis (20, 30) parallel to said longitudinal direction of said even elongated metal sheet, and wherein the first and second spirals of neighbouring slats are coupled to each other, characterized in that said first and second longitudinal axis (20, 30) lay on a same plane, said plane being coincident with that of the even elongated metal sheet, wherein said even elongated metal sheet has a plurality of apertures defined by boundary portions obtained by the remainder of said even elongated metal sheet, and in that at least one of said spirals (50, 60) extends angularly beyond 360°.