mhurhangee/ep-ind-claims huggingface dataset:
Method for mounting attachment parts to an electric machine comprising a stator (1.2) arranged in a stator housing (1.20) and a rotor (1.1), characterised in that - the electric machine is mounted on an assembly device by non-rotatably connecting the rotor (1.1) to a bearing device (10.1) of the assembly device, - for mounting at least one mounting part the stator (1.2) is detachably secured in a predefined installation position by the stator housing (1.20) by means of a clamping device (10.2) of the assembly device, - the mounting part is mounted on the stator (1.2), - for mounting at least one further mounting part in a further installation position the clamping device (10.2) is released and the electric machine is operated as a motor for a time period sufficient for the stator (1.2) together with the stator housing (1.20) to rotate in relation to the rotor (1.1) that is non-rotatably connected to the bearing device (10.1) until reaching the further installation position, - the stator (1.2) is secured in the further installation position by the stator housing (1.20) by means of the clamping device (10.2), and - the further attachment part is mounted on the stator (1.2). - the electric machine is mounted on an assembly device by non-rotatably connecting the rotor (1.1) to a bearing device (10.1) of the assembly device, - for mounting at least one mounting part the stator (1.2) is detachably secured in a predefined installation position by the stator housing (1.20) by means of a clamping device (10.2) of the assembly device, - the mounting part is mounted on the stator (1.2), - for mounting at least one further mounting part in a further installation position the clamping device (10.2) is released and the electric machine is operated as a motor for a time period sufficient for the stator (1.2) together with the stator housing (1.20) to rotate in relation to the rotor (1.1) that is non-rotatably connected to the bearing device (10.1) until reaching the further installation position, - the stator (1.2) is secured in the further installation position by the stator housing (1.20) by means of the clamping device (10.2), and - the further attachment part is mounted on the stator (1.2).
A medical device for detecting a cardiac event, comprising: a plurality of electrodes (18, 20, 22, 25) sensing cardiac signals having a plurality of beats; and a processor configured to identify each beat of the plurality of beats as one of a normal beat and a not normal beat, determine whether a number of beats identified as a normal beat is greater than a normal beat threshold, determine, in response to the number of beats identified as a normal beat being greater than the normal beat threshold, whether an RR interval associated with the beats identified as being a normal beat is less than a threshold interval, and, if not, determine whether RR intervals associated with the beats identified as being normal beats are within an RR interval range, and identify the cardiac event as being one of shockable and not shockable in response to the determining. a plurality of electrodes (18, 20, 22, 25) sensing cardiac signals having a plurality of beats; and a processor configured to identify each beat of the plurality of beats as one of a normal beat and a not normal beat, determine whether a number of beats identified as a normal beat is greater than a normal beat threshold, determine, in response to the number of beats identified as a normal beat being greater than the normal beat threshold, whether an RR interval associated with the beats identified as being a normal beat is less than a threshold interval, and, if not, determine whether RR intervals associated with the beats identified as being normal beats are within an RR interval range, and identify the cardiac event as being one of shockable and not shockable in response to the determining.
A soldering flux comprising: an acrylic resin as a base resin which has an acid value of 0 to 70 and is obtained by polymerization of a monomer mixture containing at least 50% by mass of alkyl (meth)acrylate having an alkyl group having carbon atoms of 12 to 23; and an acrylic resin as a base resin which has an acid value of 30 to 230 and is obtained by polymerization of a monomer mixture containing at least 50% by mass of alkyl (meth)acrylate having an alkyl group having carbon atoms of 6 to 10, wherein the acid value of the acrylic resin is higher than the acid value of the acrylic resin, and a difference between the acid values of these two resins is 15 or more, the acid value being measured according to JIS K 0070, wherein the content of the acrylic resin is 10 to 30% by mass in a total amount of the flux, and the content of the acrylic resin is 10 to 30% by mass in the total amount of the flux, and wherein the flux may further comprise in the total amount of the flux: 0 to 20% by mass of another base resin, 0 to 30% by mass of an activator, 0 to 13% by mass of a thixotropic agent, and 0 to 35% by mass of an organic solvent. an acrylic resin as a base resin which has an acid value of 0 to 70 and is obtained by polymerization of a monomer mixture containing at least 50% by mass of alkyl (meth)acrylate having an alkyl group having carbon atoms of 12 to 23; and an acrylic resin as a base resin which has an acid value of 30 to 230 and is obtained by polymerization of a monomer mixture containing at least 50% by mass of alkyl (meth)acrylate having an alkyl group having carbon atoms of 6 to 10, wherein the acid value of the acrylic resin is higher than the acid value of the acrylic resin, and a difference between the acid values of these two resins is 15 or more, the acid value being measured according to JIS K 0070, wherein the content of the acrylic resin is 10 to 30% by mass in a total amount of the flux, and the content of the acrylic resin is 10 to 30% by mass in the total amount of the flux, and wherein the flux may further comprise in the total amount of the flux: 0 to 20% by mass of another base resin, 0 to 30% by mass of an activator, 0 to 13% by mass of a thixotropic agent, and 0 to 35% by mass of an organic solvent. 0 to 20% by mass of another base resin, 0 to 30% by mass of an activator, 0 to 13% by mass of a thixotropic agent, and 0 to 35% by mass of an organic solvent.
A metallo-graphene nanocomposite structure comprising a metallo-graphene nanocomposite for converting electromagnetic radiation to an electric signal, the metallo-graphene nanocomposite comprising: a photo-absorbing layer comprising graphene nanoribbons; and a plurality of electrically-connected metallic nanostructures placed in an asymmetric pattern and that are in contact with the photo-absorbing layer, wherein the plurality of electrically-connected metallic nanostructures comprise geometrically asymmetric metal patches that break a symmetry of electrical potential inside of the graphene nanoribbons and allow bias-free, low-dark-current operation, wherein the plurality of metallic nanostructures act as contact electrodes for the nanocomposite, wherein the plurality of metallic nanostructures have a metal-to-metal spacing at the sub-micrometer level, the metallo-graphene nanocomposite structure further comprising a semiconductor substrate comprising a silicon wafer (306, 504) having a silicon oxide layer (304, 502), wherein the photo-absorbing layer is in contact with the the silicon oxide layer of the semiconductor substrate, wherein the nanocomposite structure is configured to operate as a photodetector capable of detecting a wavelength range from ultraviolet wavelengths to microwave wavelengths, and wherein the metallic nanostructures provide a strong concentration of photo-generated carriers near the contact electrodes. a photo-absorbing layer comprising graphene nanoribbons; and a plurality of electrically-connected metallic nanostructures placed in an asymmetric pattern and that are in contact with the photo-absorbing layer, wherein the plurality of electrically-connected metallic nanostructures comprise geometrically asymmetric metal patches that break a symmetry of electrical potential inside of the graphene nanoribbons and allow bias-free, low-dark-current operation, wherein the plurality of metallic nanostructures act as contact electrodes for the nanocomposite, wherein the plurality of metallic nanostructures have a metal-to-metal spacing at the sub-micrometer level, wherein the photo-absorbing layer is in contact with the the silicon oxide layer of the semiconductor substrate, wherein the nanocomposite structure is configured to operate as a photodetector capable of detecting a wavelength range from ultraviolet wavelengths to microwave wavelengths, and wherein the metallic nanostructures provide a strong concentration of photo-generated carriers near the contact electrodes.
An apparatus for manufacturing panels made of foamed plastic material, comprising a supporting framework for a device for feeding a sheet-like element to be cut to at least one cutting station and a device for unloading the sheet-like element cut into panels made of foamed plastic material from said cutting station, said at least one cutting station comprising a supporting structure for at least one cutting wire that forms, along its own extension, a cutting portion designed to contact said sheet-like element to be cut, means being provided for the relative motion of said cutting portion with respect to said sheet-like element to be cut, characterized in that there being also, upstream of each cutting station, an incision station having at least one first incision blade adapted to provide, at at least one face of said sheet-like element to be cut, a respective incision at the region designed to be contacted by said cutting portion of said cutting wire, the apparatus further comprising, substantially at said cutting station, a pick-up device for picking up the dust generated as a consequence of the cutting of said sheet-like element, said pick-up device being associated with a device for sending said dust to a foaming apparatus.
Method, in particular computer-implemented method, for the bypassing of impassable obstacles by a robot, in particular a household robot; wherein a collision of the robot with an obstacle is detected as the robot moves through a room; wherein an optical original recording of the obstacle is produced; wherein a multiplicity of artificial duplicates is generated from the original recording, which duplicates in each case take account of the geometry of the obstacle and differ from one another; wherein an artificial intelligence, in particular a neural network, is trained with at least some of the duplicates in a training process such that the robot detects the obstacle prior to a collision with the obstacle in future; wherein a training result of the training process is used for the bypassing of the obstacle by the robot in a movement routine of the robot, characterised in that training duplicates and test duplicates are generated from the original recording; that the artificial intelligence is trained in the training process with the training duplicates; that the training process is broken down into intervals and an intermediate result of the training process is tested in a test process with at least some of the test duplicates in order to determine how likely the robot is to detect the obstacle prior to a collision; that the intermediate result is used as the training result if the likelihood lies above a predetermined value; and if the likelihood lies below the predetermined value, the training process is continued and testing is subsequently performed at intervals by means of test processes.
A method for processing blockchain-based data, the method comprising: receiving, by a blockchain node, transaction data and formatted information corresponding to the transaction data, wherein the blockchain node is a node in a blockchain network; processing, by the blockchain node, the transaction data based on the formatted information, wherein the processing comprises broadcasting, by the blockchain node, the formatted information and the transaction data, so that another blockchain node in the blockchain network performs consensus processing on the transaction data based on the formatted information; determining, by the blockchain node and based on a transaction type corresponding to the transaction data and a predetermined relationship between the transaction type and a processing policy, the processing policy corresponding to the transaction data, wherein the processing policy comprises a data attribute used for conversion and a conversion rule corresponding to the data attribute; converting, by the blockchain node, the formatted information into a first attribute value based on the conversion rule comprised in the processing policy; determining a data attribute corresponding to the first attribute value; and verifying, by the blockchain node, the received transaction data by comparing the first attribute value and a second attribute value of the determined data attribute in the transaction data, wherein if the first attribute value and the second attribute value are the same, the verifying determines that the transaction data passes the verification. receiving, by a blockchain node, transaction data and formatted information corresponding to the transaction data, wherein the blockchain node is a node in a blockchain network; processing, by the blockchain node, the transaction data based on the formatted information, wherein the processing comprises broadcasting, by the blockchain node, the formatted information and the transaction data, so that another blockchain node in the blockchain network performs consensus processing on the transaction data based on the formatted information; determining, by the blockchain node and based on a transaction type corresponding to the transaction data and a predetermined relationship between the transaction type and a processing policy, the processing policy corresponding to the transaction data, wherein the processing policy comprises a data attribute used for conversion and a conversion rule corresponding to the data attribute; converting, by the blockchain node, the formatted information into a first attribute value based on the conversion rule comprised in the processing policy; determining a data attribute corresponding to the first attribute value; and verifying, by the blockchain node, the received transaction data by comparing the first attribute value and a second attribute value of the determined data attribute in the transaction data, wherein if the first attribute value and the second attribute value are the same, the verifying determines that the transaction data passes the verification.
A control device for an espagnolette locking/unlocking device for a leaf, comprising a rotary operating member and an actuating square, said actuating square being ready to engage with the hub of the espagnolette, said control device is intended to be surface mounted on a leaf side member, such that said actuating square is under the form of a square actuating module, comprising a square section actuating head (301, 341) intended to be inserted within the hub, extending from a body associated to receiving means (50, 52) inserted within a cavity of the rotary operating member, such that said module is associated at its head to holding means (40, 44, 343) intended to hold said module at the espagnolette hub level, characterized in that said module body comprises at least one threaded part (302, 340) combining to adjusting means (50, 52) and in that at least one of said holding elements (40, 44) has an end capable to be located in an interface zone in line with the espagnolette hub.
A Ni-Fe-Cr alloy consisting of: 0 to 20.0 mass% of Mo, 8.0 to 40.0 mass% of W, 20.0 to 40.0 mass% of a total amount of Mo and W, 20.0 to 50.0 mass% of Fe, 12.0 to 36.0 mass% of Cr and 1.0 to 2.5 mass% of B, optionally further containing 15.0 mass% or less of a total amount of elements selected from Co, Mn and Si, the content of Co being 15.0 mass% or less, the content of Mn being 5.0 mass% or less, and the content of Si being 2.0 mass% or less, and the remainder being Ni and unavoidable impurities. 0 to 20.0 mass% of Mo, 8.0 to 40.0 mass% of W, 20.0 to 40.0 mass% of a total amount of Mo and W, 20.0 to 50.0 mass% of Fe, 12.0 to 36.0 mass% of Cr and 1.0 to 2.5 mass% of B, optionally further containing 15.0 mass% or less of a total amount of elements selected from Co, Mn and Si, the content of Co being 15.0 mass% or less, the content of Mn being 5.0 mass% or less, and the content of Si being 2.0 mass% or less, and the remainder being Ni and unavoidable impurities.
A transmission operable in a plurality of operating modes, the transmission comprising: an input shaft configured to receive torque from a drive unit and transmit the torque to an output shaft of the transmission, a plurality of gearsets (128, 130, 132, 134) arranged between the input shaft and the output shaft and including a first planetary gearset coupled to the input shaft and a second planetary gearset coupled to the input shaft, a variable-ratio unit coupled to the second planetary gearset and configured to receive a power load, and a plurality of torque transmitting mechanisms including a first clutch and a variator bypass clutch, the first clutch engageable to couple the first planetary gearset to the second planetary gearset to define a first power path therebetween, and the variator bypass clutch engageable to bypass the variable-ratio unit so that power transmitted along the first power path is transmitted to the variator bypass clutch rather than the variable-ratio unit, characterized in that the power load received by the variable-ratio unit is reduced in at least one operating mode when: the first clutch is engaged and the variator bypass clutch is engaged. an input shaft configured to receive torque from a drive unit and transmit the torque to an output shaft of the transmission, a plurality of gearsets (128, 130, 132, 134) arranged between the input shaft and the output shaft and including a first planetary gearset coupled to the input shaft and a second planetary gearset coupled to the input shaft, a variable-ratio unit coupled to the second planetary gearset and configured to receive a power load, and a plurality of torque transmitting mechanisms including a first clutch and a variator bypass clutch, the first clutch engageable to couple the first planetary gearset to the second planetary gearset to define a first power path therebetween, and the variator bypass clutch engageable to bypass the variable-ratio unit so that power transmitted along the first power path is transmitted to the variator bypass clutch rather than the variable-ratio unit, characterized in that the power load received by the variable-ratio unit is reduced in at least one operating mode when: the first clutch is engaged and the variator bypass clutch is engaged. the first clutch is engaged and the variator bypass clutch is engaged.
A sawing device, in particular an underfloor circular saw for a panel-sizing installation, having at least one circular saw blade receiving spindle, rotatably mounted on a circular saw blade spindle support about a circular saw blade rotational axis, to which a circular saw blade is securable or secured and a circular saw blade drive motor for rotation of the circular saw blade receiving spindle about the circular saw blade rotational axis, wherein the circular saw blade spindle support together with the circular saw blade receiving spindle with its circular saw blade rotational axis is pivotably mounted on a path, in the form of a portion of a circular arc, about a pivot axis, arranged at a distance from the circular saw blade rotational axis and parallel to the circular saw blade rotational axis, of the sawing device, and the sawing device has at least one guide device, in the form of a portion of a circular arc, by which the circular saw blade spindle support is guided upon pivoting about the pivot axis, characterized in that the guide device in the form of a portion of a circular arc is or has a guide rail and/or a guide groove.
A computer-implemented method of producing a scalar image from a derivative field and a multi-channel image, the multi-channel image comprising a vector for each pixel in the image, each vector defining a value of the respective pixel in the channels, the derivative field being calculated or derived from the multi-channel image, the method including the steps of: a) receiving a selection of a function class c, wherein all members of the class c are polynomial functions, preferably second order polynomial functions, which map each vector of the multi-channel image to a unique scalar value; b) selecting a function f from the class c which maps the multi-channel image to a scalar image, the derivative field of which is closest to the derivative field, wherein the step of selecting the function f comprises solving a polynomial expansion by minimisation; c) generating the scalar image from the multi-channel image by using the function f to calculate each scalar value in the scalar image from a corresponding vector in the multi-channel image. a) receiving a selection of a function class c, wherein all members of the class c are polynomial functions, preferably second order polynomial functions, which map each vector of the multi-channel image to a unique scalar value; b) selecting a function f from the class c which maps the multi-channel image to a scalar image, the derivative field of which is closest to the derivative field, wherein the step of selecting the function f comprises solving a polynomial expansion by minimisation; c) generating the scalar image from the multi-channel image by using the function f to calculate each scalar value in the scalar image from a corresponding vector in the multi-channel image.
Method for monitoring tyre pressure of a vehicle tyre by means of a tyre pressure monitoring unit which comprises a pressure sensor for measuring tyre pressure and a transmitter for wirelessly transmitting tyre pressure data, wherein pressure data are transmitted in a first operating mode of the tyre pressure monitoring unit in that data transmissions are made at first time intervals, each containing a plurality of data telegrams with identical pressure data which follow one another at second time intervals which are less than 1% of the first time intervals, and wherein in a second operating mode of the tyre pressure monitoring unit at least some of the data transmissions, which follow one another at first time intervals, consist only of a single data telegram, characterised in that in the second operating mode, every nth data transmission consists of several data telegrams and the remaining data transmissions consist of only a single data telegram, where n is a natural number between 3 and 10. wherein pressure data are transmitted in a first operating mode of the tyre pressure monitoring unit in that data transmissions are made at first time intervals, each containing a plurality of data telegrams with identical pressure data which follow one another at second time intervals which are less than 1% of the first time intervals, and wherein in a second operating mode of the tyre pressure monitoring unit at least some of the data transmissions, which follow one another at first time intervals, consist only of a single data telegram, characterised in that in the second operating mode, every nth data transmission consists of several data telegrams and the remaining data transmissions consist of only a single data telegram, where n is a natural number between 3 and 10.