mhurhangee/ep-ind-claims huggingface dataset:
A method for pneumatically conveying waste material with a pneumatic waste material conveying system, which conveying system comprises at least one feed point of waste material a material conveying pipe which is connectable to the feed point, a separator device in which the material being conveyed is separated from conveying air, and means for providing a pressure difference in the conveying pipe at least during the conveyance of the material, wherein at least a part of the conveying piping is connectable as a section of a circuit in which conveying air is circulated at least during the conveyance of the material with a pump device the suction side of which is connected to at least the separator device and further to the conveying pipe on its return side so that at least part of conveying air on the pressure side of the pump is led in the circuit on the supply side of the conveying pipe characterized in that in the method the conveying air circulation is connectable also to a reverse direction only in the section of the circuit, by means (113, 114, 122, 124, 125, 126) for connecting the conveying air circulation in the reverse direction in that section of the circuit, which section of the circuit is formed by at least part of the conveying pipe, before the at least one separator device in a material conveying direction, wherein the means for connecting the conveying air in the reverse direction comprise a first air channel on the blowing side of the pump device to the usual supply side of the conveying pipe, said first air channel comprising a first valve element, which, when closed, prevents a connection of at least the blowing side of the pump device to the usual supply side of the conveying pipe, a second air channel from the blowing side of the pump device to the reversed supply side of the conveying pipe in which the blowing side of the pump device is connectable, and a second valve element in the conveying pipe between the separator device and the second air channel, wherein a channel section formed in the conveying pipe is connected to the conveying pipe in a section between the second valve element and the separator device or directly to the separator device.
Container made of thermoplastic material obtained by blow-moulding, or drawing blow-moulding, of a previously injected preform, the container comprising a body extending along a main axis and comprising a bottom of petaloid type which has a central zone from which feet alternating with valleys extend radially, each foot comprising a peripheral portion connected to the body of the container and a central portion connected to the central zone, the container being characterized in that each foot also has a truncated portion, forming a seat for the container and extending between the peripheral portion and the central portion, the truncated portion comprising a surface connecting to the peripheral portion, a surface connecting to the central portion, and an intermediate surface linking the two connecting surfaces ( 14, 15), the intermediate surface being defined by the rotation of at least one generating curve about a truncation axis different from the main axis and specific to each foot, the radius of curvature of the curve of the intermediate surface being greater than the radius ( R1, R2) of curvature of the generating curves ( C1, C2) of the connecting surfaces ( 14, 15).
A method of estimating noise power spectral density PSD in an input sound signal comprising a noise signal part and a target signal part, the method comprising d) providing a digitized electrical input signal to a control path and performing; d1) storing a number of time frames of the input signal each comprising a predefined number N 2 of digital time samples x n (n=1, 2,..., N 2), corresponding to a frame length in time of L 2 =N 2 /f s; d2) performing a time to frequency transformation of the stored time frames on a frame by frame basis to provide corresponding spectra Y of frequency samples; d3) deriving a periodogram comprising the energy content |Y| 2 for each frequency sample in a spectrum, the energy content being the energy of the sum of the noise and target signal; d4) applying a gain function G to each frequency sample of a spectrum, thereby estimating the noise energy level |Ŵ| 2 in each frequency sample, |Ŵ| 2 =G·|Y| 2; d5) dividing the spectra into a number N sb2 of sub-bands, each sub-band comprising a predetermined number n sb2 of frequency samples, and assuming that the noise PSD level is constant across a sub-band; d6) providing a first estimate |N̂| 2 of the noise PSD level in a sub-band based on the non-zero estimated noise energy levels of the frequency samples in the sub-band; d7) providing a second, improved estimate |Ñ| 2 of the noise PSD level in a sub-band by applying a bias compensation factor B to the first estimate, |Ñ| 2 = B·|N̂| 2. d) providing a digitized electrical input signal to a control path and performing; d1) storing a number of time frames of the input signal each comprising a predefined number N 2 of digital time samples x n (n=1, 2,..., N 2), corresponding to a frame length in time of L 2 =N 2 /f s; d2) performing a time to frequency transformation of the stored time frames on a frame by frame basis to provide corresponding spectra Y of frequency samples; d3) deriving a periodogram comprising the energy content |Y| 2 for each frequency sample in a spectrum, the energy content being the energy of the sum of the noise and target signal; d4) applying a gain function G to each frequency sample of a spectrum, thereby estimating the noise energy level |Ŵ| 2 in each frequency sample, |Ŵ| 2 =G·|Y| 2; d5) dividing the spectra into a number N sb2 of sub-bands, each sub-band comprising a predetermined number n sb2 of frequency samples, and assuming that the noise PSD level is constant across a sub-band; d6) providing a first estimate |N̂| 2 of the noise PSD level in a sub-band based on the non-zero estimated noise energy levels of the frequency samples in the sub-band; d7) providing a second, improved estimate |Ñ| 2 of the noise PSD level in a sub-band by applying a bias compensation factor B to the first estimate, |Ñ| 2 = B·|N̂| 2.
A computer implemented method of sequence to sequence data processing, comprising: inputting a first input comprising a first input data sequence into a model, the model outputting a first output data sequence, a first part of the model generating an intermediate state (102, 103) comprising information relating to an alignment relationship between the first input data sequence and the first output data sequence, the intermediate state (102, 103) being used in the model to generate the first output data sequence, wherein the first input data sequence comprises a sequence of text related units, and the first output data sequence comprises a sequence representing audio frames; storing the intermediate state (102, 103), wherein the method is characterised by; modifying the model to replace the first part with the stored intermediate state; and inputting a second input comprising a second input data sequence into the modified model, the modified model outputting a second output data sequence using the intermediate state (102, 103), wherein the first input data sequence has the same length as the second input data sequence and wherein the first input has the same dimensions as the second input, and wherein the second input data sequence comprises a sequence of text related units, and the second output data sequence comprises a sequence representing audio frames. inputting a first input comprising a first input data sequence into a model, the model outputting a first output data sequence, a first part of the model generating an intermediate state (102, 103) comprising information relating to an alignment relationship between the first input data sequence and the first output data sequence, the intermediate state (102, 103) being used in the model to generate the first output data sequence, wherein the first input data sequence comprises a sequence of text related units, and the first output data sequence comprises a sequence representing audio frames; storing the intermediate state (102, 103), wherein the method is characterised by; modifying the model to replace the first part with the stored intermediate state; and inputting a second input comprising a second input data sequence into the modified model, the modified model outputting a second output data sequence using the intermediate state (102, 103), wherein the first input data sequence has the same length as the second input data sequence and wherein the first input has the same dimensions as the second input, and wherein the second input data sequence comprises a sequence of text related units, and the second output data sequence comprises a sequence representing audio frames.
A method of calibrating an accelerometer of an electronic device, the accelerometer having at least a primary sensing axis and a secondary sensing axis, the secondary sensing axis being oriented parallel to the primary sensing axis and in the opposite direction of the primary sensing axis, the method comprising: measuring acceleration using the primary sensing axis and the secondary sensing axis of the accelerometer to obtain acceleration calibration data; determining calibration parameters in accordance with acceleration calibration data from the accelerometer, the calibration parameters representing values which may be used to adjust a measured acceleration, wherein the calibration parameters comprise a bias factor of the primary sensing axis; the method being characterized in the step of determining the bias factor for the primary sensing axis using acceleration calibration data obtained from the primary sensing axis and the secondary sensing axis, wherein the bias factor is determined as an average of acceleration calibration data obtained from the primary sensing axis and an accelerometer measurement from the secondary sensing axis when the electronic device is in a first orientation; and storing the calibration parameters in a memory of the electronic device. measuring acceleration using the primary sensing axis and the secondary sensing axis of the accelerometer to obtain acceleration calibration data; determining calibration parameters in accordance with acceleration calibration data from the accelerometer, the calibration parameters representing values which may be used to adjust a measured acceleration, wherein the calibration parameters comprise a bias factor of the primary sensing axis; the method being characterized in the step of determining the bias factor for the primary sensing axis using acceleration calibration data obtained from the primary sensing axis and the secondary sensing axis, wherein the bias factor is determined as an average of acceleration calibration data obtained from the primary sensing axis and an accelerometer measurement from the secondary sensing axis when the electronic device is in a first orientation; and storing the calibration parameters in a memory of the electronic device.
A vascular repair device for treating aortic vascular damage, comprising: a) a main prosthesis having a main graft component that includes an external surface and an internal surface, the main graft component defining a main lumen, a proximal end, a distal end wherein the proximal end defines a first major longitudinal axis and the distal end defines a second major longitudinal axis wherein the first major longitudinal axis is at a positive angle to the second major longitudinal axis, and a transition section between the proximal end and the distal end, the transition section defining four distal openings (630, 632, 634, 636); b) external stents (618, 620) secured on either side of the transition section of the main graft component; c) a proximal stent extending proximally from the proximal end of the main graft component, the proximal stent including proximal apices and distal apices and being secured to an inside surface of the main graft component at the distal apices; d) an adjacent stent that is distal to the proximal stent and secured to the internal surface of the main graft component, the adjacent stent including proximal apices and distal apices, wherein the proximal apices of the adjacent stent are nested between the distal apices of the proximal stent; e) four subsections (638, 640, 642, 644) extending distally within the main graft component from the four distal openings, respectively; and f) internal prostheses secured within the main graft component from which the subsections distally extend. a) a main prosthesis having a main graft component that includes an external surface and an internal surface, the main graft component defining a main lumen, a proximal end, a distal end wherein the proximal end defines a first major longitudinal axis and the distal end defines a second major longitudinal axis wherein the first major longitudinal axis is at a positive angle to the second major longitudinal axis, and a transition section between the proximal end and the distal end, the transition section defining four distal openings (630, 632, 634, 636); b) external stents (618, 620) secured on either side of the transition section of the main graft component; c) a proximal stent extending proximally from the proximal end of the main graft component, the proximal stent including proximal apices and distal apices and being secured to an inside surface of the main graft component at the distal apices; d) an adjacent stent that is distal to the proximal stent and secured to the internal surface of the main graft component, the adjacent stent including proximal apices and distal apices, wherein the proximal apices of the adjacent stent are nested between the distal apices of the proximal stent; e) four subsections (638, 640, 642, 644) extending distally within the main graft component from the four distal openings, respectively; and f) internal prostheses secured within the main graft component from which the subsections distally extend.
An around view provision apparatus comprising: a display unit; a first camera provided at a left side of a vehicle; a second camera provided at a rear side of the vehicle; a third camera provided at a right side of the vehicle; a fourth camera provided at a front side of the vehicle, the first to fourth cameras provided to capture images of different regions, a direction of at least one of the cameras (195a, 195b, 195c, 195d) being adjustable; a processor configured to control the at least one camera to capture images around the vehicle based on a movement of the vehicle, wherein the at least one camera (195a,195b,195c,195d) is controlled to operate in a first mode when the vehicle is moving forward at a first prescribed speed or more and controlled to operate in a second mode when the vehicle is moving forward at less than a second prescribed speed or is moving backward, characterised in that in the first mode, the at least one camera configured to capture a lateral region that cannot be observed through a side view mirror or a rear view mirror, and in the second mode, the at least one camera configured to capture a larger region that is angled downward relative to the lateral region in the first mode, and wherein during execution of the second mode, images from the fourth camera, the second camera, the first camera and the third camera are combined to generate an around view image and the generated around view image is displayed on the display unit. a display unit; a first camera provided at a left side of a vehicle; a second camera provided at a rear side of the vehicle; a third camera provided at a right side of the vehicle; a fourth camera provided at a front side of the vehicle, the first to fourth cameras provided to capture images of different regions, a direction of at least one of the cameras (195a, 195b, 195c, 195d) being adjustable; a processor configured to control the at least one camera to capture images around the vehicle based on a movement of the vehicle, wherein the at least one camera (195a,195b,195c,195d) is controlled to operate in a first mode when the vehicle is moving forward at a first prescribed speed or more and controlled to operate in a second mode when the vehicle is moving forward at less than a second prescribed speed or is moving backward, characterised in that in the first mode, the at least one camera configured to capture a lateral region that cannot be observed through a side view mirror or a rear view mirror, and in the second mode, the at least one camera configured to capture a larger region that is angled downward relative to the lateral region in the first mode, and wherein during execution of the second mode, images from the fourth camera, the second camera, the first camera and the third camera are combined to generate an around view image and the generated around view image is displayed on the display unit.
A soft physiotherapy instrument, comprising: a flexible sheet and a controller configured to control the flexible sheet, the flexible sheet comprises: a first flexible layer; a second flexible layer overlapped with the first flexible layer; a plurality of functional layers sandwiched between the first flexible layer and the second flexible layer, wherein each of the plurality of functional layer comprises a carbon nanotube layer, the carbon nanotube layer comprises a plurality of carbon nanotubes uniformly distributed in the carbon nanotube layer; and a plurality of electrodes, wherein two ends of each of the plurality of electrodes are separately electrically connected with a pair of the plurality of functional layers located a part from each other, and a voltage is applied on each two electrodes of the plurality of electrodes, a circuit is formed between the controller, the two of the plurality of electrodes, the plurality of functional layers electrically connected with the two of the plurality of electrodes, and skin of a user, a current flows through the controller, the two of the plurality of electrodes, the plurality of functional layers electrically connected with the two of the plurality of electrodes, and the skin of the user. a first flexible layer; a second flexible layer overlapped with the first flexible layer; a plurality of functional layers sandwiched between the first flexible layer and the second flexible layer, wherein each of the plurality of functional layer comprises a carbon nanotube layer, the carbon nanotube layer comprises a plurality of carbon nanotubes uniformly distributed in the carbon nanotube layer; and a plurality of electrodes, wherein two ends of each of the plurality of electrodes are separately electrically connected with a pair of the plurality of functional layers located a part from each other, and a voltage is applied on each two electrodes of the plurality of electrodes, a circuit is formed between the controller, the two of the plurality of electrodes, the plurality of functional layers electrically connected with the two of the plurality of electrodes, and skin of a user, a current flows through the controller, the two of the plurality of electrodes, the plurality of functional layers electrically connected with the two of the plurality of electrodes, and the skin of the user.
A method of fabricating a thick film of a large area substrate, comprising: applying a first resin around the periphery of a base substrate to form a resin partition enclosing an inner area of the base substrate, and wherein at least a portion of the inner area of the base substrate remains exposed; and applying a second resin on an inner area of the base substrate formed by the resin partition, characterized in that the first and second resin includes the mixture of urethane acrylate oligomer of 10-21 %, poly acryl of 10-21 %, monomer of 30-63%, and additives of 1.5-6%, wherein the monomer is formed with a mixture comprising IBOA (isobornyl Acrylate) of 10-21%, HBA (Hydroxybutyl Acrylate) of 10-21% and HEMA (Hydroxy Metaethyl Acrylate) 10-21%. applying a first resin around the periphery of a base substrate to form a resin partition enclosing an inner area of the base substrate, and wherein at least a portion of the inner area of the base substrate remains exposed; and applying a second resin on an inner area of the base substrate formed by the resin partition, characterized in that the first and second resin includes the mixture of urethane acrylate oligomer of 10-21 %, poly acryl of 10-21 %, monomer of 30-63%, and additives of 1.5-6%, wherein the monomer is formed with a mixture comprising IBOA (isobornyl Acrylate) of 10-21%, HBA (Hydroxybutyl Acrylate) of 10-21% and HEMA (Hydroxy Metaethyl Acrylate) 10-21%.
Variable speed drive intended to control an electrical load, said variable speed drive being constructed to be inserted along a main axis defined by a front-rear direction of the variable speed drive, through an opening produced in a frame and comprising a front part suitable for supporting a control interface and a rear part assembled on the front part, the front part forming a flange relative to the rear part, said flange being arranged to bear against the area situated at the periphery of the opening produced in the frame, thus compressing a gasket positioned between the flange and the area situated at the periphery of the opening, said rear part comprising a main body having a cross section with an outer shape constructed to closely fit the inner perimeter of the opening, and a fixing plinth extending the main body towards the rear, said fixing plinth comprising a plurality of fixing tabs, making it possible to fix the variable speed drive on a support, the front part and the rear part of the variable speed drive being formed in such a way as to have passages to access, from the front of the variable speed drive, each fixing tab situated at the rear, said passages being produced parallel to the main axis, the variable speed drive comprising an undercut produced on the main body of the rear part, having a sufficient depth to allow the fixing plinth to pass through said opening.
Automatic storage for storing articles, comprising a storage area with a plurality of storage locations for the articles, the storage locations being operable by a manipulator for storing and removing the articles or being operable by manipulator for removing the articles, the storage area being at least partially enclosed by housing walls, an access door being arranged preferably in one of the housing walls, a discharge opening being arranged in one of the housing walls or in the access door, the discharge opening comprising a closing flap closing the discharge opening in a closing position, characterized in that in an open position, an upper edge of the closing flap is aligned with an end position of the manipulator so that an article discharged by the manipulator at its end position falls onto the closing flap, wherein the article can be taken from the closing flap through the discharge opening or slides over the closing flap to the discharge opening. comprising a storage area with a plurality of storage locations for the articles, the storage locations being operable by a manipulator for storing and removing the articles or being operable by manipulator for removing the articles, the storage area being at least partially enclosed by housing walls, an access door being arranged preferably in one of the housing walls, a discharge opening being arranged in one of the housing walls or in the access door, the discharge opening comprising a closing flap closing the discharge opening in a closing position, characterized in that in an open position, an upper edge of the closing flap is aligned with an end position of the manipulator so that an article discharged by the manipulator at its end position falls onto the closing flap, wherein the article can be taken from the closing flap through the discharge opening or slides over the closing flap to the discharge opening.