mhurhangee/ep-ind-claims huggingface dataset:
Saw unit comprising: - a support; - an oscillating body connected to said support with the possibility of oscillating; - a motor carried by said oscillating body, said motor having a motor shaft; - a blade shaft carried by said oscillating body, said blade shaft being arranged for supporting a blade; - transmission means (16, 17, 18) arranged for transmitting the motion from said motor shaft to said blade shaft, said transmission means (16, 17, 18) being carried by said oscillating body; wherein the oscillation of said oscillating body entails the oscillation of said motor, blade shaft and transmission means (16, 17, 18); wherein said oscillating body is constrained to oscillate around an oscillation axis between at least two positions of an oscillation stroke during which the component in a vertical direction of the oscillation of said blade shaft is greater than the component in a vertical direction of the oscillation of said motor; and wherein, during said oscillation stroke, said motor shaft is always arranged below said oscillation axis and/or said blade shaft; characterized in that said transmission means comprises a transmission shaft that is rotatably supported by said oscillating body, a first endless flexible member and a second endless flexible member, said first endless flexible member being wound around said motor shaft and around a first end of said transmission shaft, said second endless flexible member being wound around a second end, opposite the first end, of said transmission shaft and around said blade shaft. - a support; - an oscillating body connected to said support with the possibility of oscillating; - a motor carried by said oscillating body, said motor having a motor shaft; - a blade shaft carried by said oscillating body, said blade shaft being arranged for supporting a blade; - transmission means (16, 17, 18) arranged for transmitting the motion from said motor shaft to said blade shaft, said transmission means (16, 17, 18) being carried by said oscillating body;
A method of wireless communication performed by a recipient user equipment, UE, of a sidelink resource sharing system, comprising: receiving, from a plurality of provider UEs, resource information associated with the plurality of provider UEs; selecting, based at least in part on a ranked order and the resource information, one or more resources associated with one or more selected UEs, of the plurality of provider UEs, wherein the ranked order is based at least in part on measurement information, determined by the recipient UE, associated with the plurality of provider UEs; and performing a sidelink communication using the one or more resources. receiving, from a plurality of provider UEs, resource information associated with the plurality of provider UEs; selecting, based at least in part on a ranked order and the resource information, one or more resources associated with one or more selected UEs, of the plurality of provider UEs, wherein the ranked order is based at least in part on measurement information, determined by the recipient UE, associated with the plurality of provider UEs; and performing a sidelink communication using the one or more resources.
Method for producing identically shaped meat portions of identical mass through pressing a meat portion of frozen muscle meat in a depression of a mould into a rounded end shape, wherein a meat piece in its natural shape, to which no further meat pieces adhere, is placed in the mould in a frozen or unfrozen condition with a desired weight and preferably a desired raw shape (pre-shape) in its frozen condition, and pressed into the final shape in the mould, characterised in that a natural muscle meat piece not pressed or sawn in a way that the shape predetermined by the muscle is no longer recognisable, is used at a weight that is at least twice as great as the desired weight of the meat portion for deriving the meat portion, whereby the muscle meat piece is divided into meat portions of identical weights and/or target weight meat portions with the desired weight, which are or will be shaped in such a way prior to placing in the depression that their cross-section is not greater than the cross-section of the depression.
A method of treating wood or a wood product comprising the step of contacting the wood or the wood product with an aqueous wood preservative composition, the aqueous wood preservative composition comprising an aqueous carrier, a micronized copper compound, wherein the copper compound is basic copper carbonate, and penflufen, in a copper: penflufen ratio between 5:1 to 200: 1, wherein the copper loading into wood is between 40 to 8009 g/m 3 and the penflufen loading into wood is between 4 to 200 g/m 3 to produce a treated wood or wood product.
A method for determining the energy production which is to be expected for a wind power installation for a forecast time period, in particular the expected annual energy production of a wind power installation, wherein - the wind power installation has a plurality of installation components, - at least one of the installation components is selected as a thermally relevant component, - a plurality of chronologically distributed wind speed values are specified for the forecast time period, and - an expected power output level of the wind power installation is determined for one of the wind speed values in a power output level determining step, wherein - the expected power output level stipulates an installation power output level which is to be expected as the power output level which is generated by the wind power installation for this wind speed value, and - a component temperature which is assigned to this wind speed value is taken into account by the at least one thermally relevant component, and - the expected power output level of the wind power installation, which is determined for the wind speed value, is used to determine the energy production of the wind power installation which is to be expected for the forecast time period. - the wind power installation has a plurality of installation components, - at least one of the installation components is selected as a thermally relevant component, - a plurality of chronologically distributed wind speed values are specified for the forecast time period, and - an expected power output level of the wind power installation is determined for one of the wind speed values in a power output level determining step, wherein - the expected power output level stipulates an installation power output level which is to be expected as the power output level which is generated by the wind power installation for this wind speed value, and - a component temperature which is assigned to this wind speed value is taken into account by the at least one thermally relevant component, and - the expected power output level stipulates an installation power output level which is to be expected as the power output level which is generated by the wind power installation for this wind speed value, and - a component temperature which is assigned to this wind speed value is taken into account by the at least one thermally relevant component, and - the expected power output level of the wind power installation, which is determined for the wind speed value, is used to determine the energy production of the wind power installation which is to be expected for the forecast time period.
A method of monitoring solenoid valve operation in a continuous inkjet printer, said method being characterised in that it includes the step of detecting the presence of current draw by said solenoid valve.
A composition comprising a peptide and oside extract of Vigna unguiculata seeds substantially free of any residual native protein and, if need be, a suitable excipient, characterized in that the peptide and oside extract comprises 10-90% by weight of peptides and 10-90% by weight of sugars, the percentages being expressed in relation to the total weight of said peptide and sugar extract.
A substrate comprising a coating of a masking material, and a plurality of discrete reaction zones onto which one or more binding agents are intended to be attached, wherein said zones are uncoated areas on the substrate, wherein the masking material comprises a pigment, an acrylic resin, an epoxy resin and a structuring agent, and wherein the structuring agent is a PTFE wax.
A rotor for a permanent magnet generator comprising: a rotor body extending between a first end and a second end, having a cylindrical bore and a plurality of flats on an outer peripheral surface; permanent magnets positioned at said flats; and an outer ring surrounding said permanent magnets and defining an outer diameter (D 1) and a ratio of said outer diameter (D 1) to an axial length (D 2) between said first and second ends being between 3.2 and 3.4; wherein there are 12 of said flats and said permanent magnets; wherein a thickness (t) of said magnets is defined as a difference between a radius (D 5) from a center axis of said cylindrical bore to a magnet outer surface of said permanent magnets, and a radius (D 4) from said center axis to an outer surface of one of said flats, said radius (D 4) extending perpendicular to said outer surface of the one of said flats, and a ratio of said axial length (D 2) to said thickness (t) being between 3.0 and 3.6; wherein a ratio of said outer diameter (D 1) to said thickness (t) is between 10 and 12; wherein said permanent magnets also extend between first and second ends, and said first and second ends of said permanent magnets being axially inward of said first and second ends of said body; and wherein the outer ring is axially shorter than the rotor body, and axially longer than the permanent magnets. a rotor body extending between a first end and a second end, having a cylindrical bore and a plurality of flats on an outer peripheral surface; permanent magnets positioned at said flats; and an outer ring surrounding said permanent magnets and defining an outer diameter (D 1) and a ratio of said outer diameter (D 1) to an axial length (D 2) between said first and second ends being between 3.2 and 3.4; wherein there are 12 of said flats and said permanent magnets; wherein a thickness (t) of said magnets is defined as a difference between a radius (D 5) from a center axis of said cylindrical bore to a magnet outer surface of said permanent magnets, and a radius (D 4) from said center axis to an outer surface of one of said flats, said radius (D 4) extending perpendicular to said outer surface of the one of said flats, and a ratio of said axial length (D 2) to said thickness (t) being between 3.0 and 3.6; wherein a ratio of said outer diameter (D 1) to said thickness (t) is between 10 and 12; wherein said permanent magnets also extend between first and second ends, and said first and second ends of said permanent magnets being axially inward of said first and second ends of said body; and wherein the outer ring is axially shorter than the rotor body, and axially longer than the permanent magnets.
Treatment machine for containers, such as bottles, cans, or the like, comprising at least one drive unit with a drive motor and motor housing, as well as a manipulation unit that is connected to the drive unit, and with a drive housing, which receives the drive unit and at least one bearing for the manipulation unit, wherein - the motor housing is also the drive housing and forms a combined single motor/drive housing, and wherein - the motor/drive housing comprises at least one securing flange driven by the drive motor as a bearing for the direct connection of the manipulation unit, characterised in that - the drive motor is formed as a reluctance motor with high dynamics and great flexibility in respect of its construction design, and covers a torque range of up to several 1000 Nm, and for this purpose is provided with a rotor and a stator, - wherein the rotor has a pronounced pole made of a weakly magnetic material and - the corresponding stator contains the required magnetic coils, and wherein - the stator and the rotor of the drive motor are formed in each case as hollow cylinders, and - as a result of this they define in their interiors a hollow drill hole for the torsion-resistant coupling of a drive shaft of the manipulation unit. - the motor housing is also the drive housing and forms a combined single motor/drive housing, and wherein - the motor/drive housing comprises at least one securing flange driven by the drive motor as a bearing for the direct connection of the manipulation unit, - the drive motor is formed as a reluctance motor with high dynamics and great flexibility in respect of its construction design, and covers a torque range of up to several 1000 Nm, and for this purpose is provided with a rotor and a stator, - wherein the rotor has a pronounced pole made of a weakly magnetic material and - the corresponding stator contains the required magnetic coils, and wherein - the stator and the rotor of the drive motor are formed in each case as hollow cylinders, and - as a result of this they define in their interiors a hollow drill hole for the torsion-resistant coupling of a drive shaft of the manipulation unit.
A wedge for a lead-through system, which wedge comprises a first wedge element, a second wedge element, a third wedge element and a fourth wedge element, whereby the first and second wedge elements (1, 2) are arranged in line with each other and moveable towards and away from each other, whereby the third and fourth wedge elements (3, 4) are placed above each other and between the first and second wedge elements (1, 2) and the first and second wedge elements (1,2) abut the third and fourth wedge elements (3,4) along sloping surfaces, and whereby the wedge elements (1, 2, 3, 4) and the sloping surfaces are so arranged that the third and fourth wedge elements (3, 4) will be moved away from each other when the first and second wedge elements (1,2) are moved toward each other and that the third and fourth wedge elements (3, 4) are moved toward each other when the first and second wedge elements (1, 2) are moved away from each other, wherein it comprises a bracket on the outside of the first wedge element, which bracket receives a socket arranged to be able to rotate in relation to the bracket, that a compression screw is connected with one end to the second wedge element and goes through an opening of the first wedge element and that a head of the compression screw is received inside the socket of the bracket in such a way that it may move longitudinally in relation to the socket but not rotate in relation to the socket, wherein the socket has a cylindrical part at one end, a head at the opposite end and an outer circumferential groove placed between the cylindrical part and the head and wherein the socket has an inner through opening, and wherein in a full compressing state of the wedge, the outer end of the head of the compression screw is flush with the outer end of the head of the socket.
A frame error concealment method for audio signal, comprising: detecting an error frame from a bitstream; analyzing one or more signal characteristics of the error frame; setting a number of previous good frames to be referred to in a regression analysis method to conceal the error of the error frame, based on the analyzed one or more signal characteristics of the error frame; and concealing the error using the regression analysis method. detecting an error frame from a bitstream; analyzing one or more signal characteristics of the error frame; setting a number of previous good frames to be referred to in a regression analysis method to conceal the error of the error frame, based on the analyzed one or more signal characteristics of the error frame; and concealing the error using the regression analysis method.
A system comprising: at least one inertial sensor operable to provide inertial sensor data during a trip; a processing unit coupled to the at least one inertial sensor, the processing unit operable to calculate navigation data based on the inertial sensor data and to estimate error in the inertial sensor data, wherein the processing unit is further operable to adjust subsequent inertial sensor data received during the trip from the at least one inertial sensor to compensate for the estimated error in the inertial sensor data; and a memory coupled to the processing unit and operable to store data between power cycles; characterized in that: wherein the processing unit is further operable to calculate a current trip error estimate of the inertial sensor data error from a plurality of inertial sensor data error estimates during the trip and to estimate a repeatability error component of the current trip error estimate based on the current trip error estimate and previous trip error estimates stored in the memory; wherein the repeatability error component is stored in the memory, the processing unit being further operable to update inertial sensor data at the start of the next trip based on the repeatability error component. at least one inertial sensor operable to provide inertial sensor data during a trip; a processing unit coupled to the at least one inertial sensor, the processing unit operable to calculate navigation data based on the inertial sensor data and to estimate error in the inertial sensor data, wherein the processing unit is further operable to adjust subsequent inertial sensor data received during the trip from the at least one inertial sensor to compensate for the estimated error in the inertial sensor data; and a memory coupled to the processing unit and operable to store data between power cycles; characterized in that: wherein the processing unit is further operable to calculate a current trip error estimate of the inertial sensor data error from a plurality of inertial sensor data error estimates during the trip and to estimate a repeatability error component of the current trip error estimate based on the current trip error estimate and previous trip error estimates stored in the memory; wherein the repeatability error component is stored in the memory, the processing unit being further operable to update inertial sensor data at the start of the next trip based on the repeatability error component. wherein the processing unit is further operable to calculate a current trip error estimate of the inertial sensor data error from a plurality of inertial sensor data error estimates during the trip and to estimate a repeatability error component of the current trip error estimate based on the current trip error estimate and previous trip error estimates stored in the memory; wherein the repeatability error component is stored in the memory, the processing unit being further operable to update inertial sensor data at the start of the next trip based on the repeatability error component.
A nanoparticle-containing hydrogel comprising metal nanoparticles selected from the group consisting of Ag nanoparticles, Cu nanoparticles, CuO nanoparticles, Fe 2 O 3 nanoparticles, Pt nanoparticles, Pd nanoparticles and combinations thereof; and at least one peptide having the general formula: Z - a - b - Z ' c wherein Z is an N-terminal protecting group; X is, at each occurrence, independently selected from the group consisting of aliphatic amino acids; Y is, at each occurrence, independently selected from the group consisting of polar amino acids, wherein said polar amino acids have a polar group which is independently selected from a hydroxyl, an ether, an imido, an amido, an ester, an amino, a guanidino, a seleno, and a telluro group; Z' is a C-terminal protecting group; a is an integer selected from 1 to 6, preferably 1 to 5; b is 1 or 2, preferably 1; and c is 0 or 1. Z is an N-terminal protecting group; X is, at each occurrence, independently selected from the group consisting of aliphatic amino acids; Y is, at each occurrence, independently selected from the group consisting of polar amino acids, wherein said polar amino acids have a polar group which is independently selected from a hydroxyl, an ether, an imido, an amido, an ester, an amino, a guanidino, a seleno, and a telluro group; Z' is a C-terminal protecting group; a is an integer selected from 1 to 6, preferably 1 to 5; b is 1 or 2, preferably 1; and c is 0 or 1.
A board structure for a vehicle, said board structure including a core having a honeycomb structure, a front side surface member and a back side surface member between which said core is sandwiched so that said front side surface member and said back side surface member cover openings of hollow spaces of said honeycomb structure of said core, and a thermosetting resin foamed and charged in said hollow spaces of said core, said board structure being characterized by comprising: a hinge portion (11, 20) formed by squashing a part of said core charged with said thermosetting resin from a side of said back side surface member toward said front side surface member, in which said front side surface member and said back side surface, member are joined to each other; and a flexible hinge sheet provided on an outer side of said front side surface member across said hinge portion (11, 20); wherein at least a part of said hinge sheet in a thickness direction thereof is embedded in said front side surface member. a hinge portion (11, 20) formed by squashing a part of said core charged with said thermosetting resin from a side of said back side surface member toward said front side surface member, in which said front side surface member and said back side surface, member are joined to each other; and a flexible hinge sheet provided on an outer side of said front side surface member across said hinge portion (11, 20); wherein at least a part of said hinge sheet in a thickness direction thereof is embedded in said front side surface member.
A method for performing an energy efficient desulphurization and decarbonisation of a flue gas comprising sulphur oxides and carbon dioxide comprising the steps of: (a) starting a reaction between an electropositive metal and the sulphur oxides and the carbon dioxide of said flue gas; (b) reducing the sulphur oxides and the carbon dioxide of said flue gas simultaneously in an exothermic reaction with an electropositive metal and thereby generating reduced gaseous carbon products and solid reaction products while cooling; (c) extracting the solid reaction products of the reducing step (b) in a solvent to generate a first suspension comprising suspended carbon containing reaction products and sulphur containing reaction products; (d) oxidizing the first suspension obtained in step (c) to generate a second suspension comprising suspended carbon containing reaction products and oxidized sulphur containing reaction products; and (e) separating the oxidized sulphur containing reaction products from the suspended carbon containing reaction products, wherein the electropositive metal is a metal whose standard electrode potential with regard to the standard hydrogen electrode is less than -0.5V. (a) starting a reaction between an electropositive metal and the sulphur oxides and the carbon dioxide of said flue gas; (b) reducing the sulphur oxides and the carbon dioxide of said flue gas simultaneously in an exothermic reaction with an electropositive metal and thereby generating reduced gaseous carbon products and solid reaction products while cooling; (c) extracting the solid reaction products of the reducing step (b) in a solvent to generate a first suspension comprising suspended carbon containing reaction products and sulphur containing reaction products; (d) oxidizing the first suspension obtained in step (c) to generate a second suspension comprising suspended carbon containing reaction products and oxidized sulphur containing reaction products; and (e) separating the oxidized sulphur containing reaction products from the suspended carbon containing reaction products, wherein the electropositive metal is a metal whose standard electrode potential with regard to the standard hydrogen electrode is less than -0.5V.