mhurhangee/ep-ind-claims huggingface dataset:
Flexographic printing machine comprising: - at least one support structure; - at least one printing roller rotatably mounted on said support structure and configured to be driven in rotation around a rotation axis and to be intercepted by a tape of material to be printed; said printing roller comprising: - at least one support core pivotally mounted to said support structure; - at least one tubular element mechanically connected to said core and extending along said rotation axis; - connection means at least partially interposed between said support core and said tubular element and configured to mechanically connect them; said connection means comprise: - at least one protruding element extending from said support core radially in relation to said rotation axis; - at least one housing seat formed on an inner wall of said tubular element, configured to house said protruding element of said support core; said machine being characterised in that: said protruding element is provided with at least two side walls inclined with respect to said rotation axis and said housing seat is provided with two stop walls inclined with respect to said rotation axis and configured to receive said inclined side walls of said protruding element in abutment. - at least one support structure; - at least one printing roller rotatably mounted on said support structure and configured to be driven in rotation around a rotation axis and to be intercepted by a tape of material to be printed; said printing roller comprising: - at least one support core pivotally mounted to said support structure; - at least one tubular element mechanically connected to said core and extending along said rotation axis; - connection means at least partially interposed between said support core and said tubular element and configured to mechanically connect them; - at least one support core pivotally mounted to said support structure; - at least one tubular element mechanically connected to said core and extending along said rotation axis; - connection means at least partially interposed between said support core and said tubular element and configured to mechanically connect them; said connection means comprise: - at least one protruding element extending from said support core radially in relation to said rotation axis; - at least one housing seat formed on an inner wall of said tubular element, configured to house said protruding element of said support core; - at least one protruding element extending from said support core radially in relation to said rotation axis; - at least one housing seat formed on an inner wall of said tubular element, configured to house said protruding element of said support core; said machine being characterised in that: said protruding element is provided with at least two side walls inclined with respect to said rotation axis and said housing seat is provided with two stop walls inclined with respect to said rotation axis and configured to receive said inclined side walls of said protruding element in abutment.
Self-propelled road milling machine comprising a machine frame which is supported by a chassis having two rear wheels or running gears (4L, 4R) and a front wheel or running gear or two front wheels or running gears (3L, 3R), at least one rear wheel or running gear (4L, 4R) being movable into an inner working position in relation to a longitudinal side of the machine frame and into an outer working position in relation to a longitudinal side of the machine frame, and a working device comprising a work roller which is arranged in the outer working position of the at least one rear wheel or running gear (4L, 4R) between the rear wheels or running gears (4L, 4R), characterised in that the road milling machine comprises a cleaning device which has a cleaning unit arranged in front of the work roller in the working direction, the cleaning unit being adapted to remove material from the surface of the terrain over which the at least one rear wheel or running gear (4L, 4R) travel.
An apparatus for extracting juice and pulp from fruit or vegetables in order to obtain a flowable mass, such as juice or puree, comprising: a receptacle; a cylindrical strainer located within said receptacle and rotatable about its axis of symmetry, said cylindrical strainer having a bottom and a perforated side wall; a motor unit for rotating said cylindrical strainer about its axis of symmetry; an inlet unit for introducing fruit or vegetables into said strainer; an outlet unit for collecting flowable mass from said receptacle, characterized in that the apparatus further comprises a lip-shaped flexible element located within said strainer and urged against the inside surface of said perforated side wall. a receptacle; a cylindrical strainer located within said receptacle and rotatable about its axis of symmetry, said cylindrical strainer having a bottom and a perforated side wall; a motor unit for rotating said cylindrical strainer about its axis of symmetry; an inlet unit for introducing fruit or vegetables into said strainer; an outlet unit for collecting flowable mass from said receptacle, characterized in that the apparatus further comprises a lip-shaped flexible element located within said strainer and urged against the inside surface of said perforated side wall.
A liquid composition comprising: (a) an alpha-2-macroglobulin polypeptide (A2M) isolated from a biological sample from a mammal, wherein a concentration of the A2M present in the liquid composition is at least 5 times higher than the concentration of A2M present in the biological sample, and (b) plasma from the biological sample from the mammal; wherein the liquid composition does not elicit an immune response in the mammal. (a) an alpha-2-macroglobulin polypeptide (A2M) isolated from a biological sample from a mammal, wherein a concentration of the A2M present in the liquid composition is at least 5 times higher than the concentration of A2M present in the biological sample, and (b) plasma from the biological sample from the mammal;
A computing device comprising: a heating element thermally coupled to an adhesive, wherein the adhesive is to bond a first portion of the computing device and a second portion of the computing device, wherein the heating element is operable to be heated in response to application of power, wherein the heated heating element is operable to cause release of a bond by the adhesive to allow for physical separation of the first portion of the computing device and the second portion of the computing device, characterized in that the heating element is accessible through an opening, wherein the opening is an existing port of the computing device. a heating element thermally coupled to an adhesive, wherein the adhesive is to bond a first portion of the computing device and a second portion of the computing device, wherein the heating element is operable to be heated in response to application of power, wherein the heated heating element is operable to cause release of a bond by the adhesive to allow for physical separation of the first portion of the computing device and the second portion of the computing device, characterized in that the heating element is accessible through an opening, wherein the opening is an existing port of the computing device.
A method in a preamble receiver (101a, 101b, 101c, 101d, 101e, 101f, 101g) for processing a preamble sequence (110a, 110b, 110c, 110d) comprising one or more identical short sequences (s[n]) and at least one offset indicator sequence (130a, 130b, 130c, 130d), the at least one offset indicator sequence being different from each of the short sequences and located at a respective pre-determined location in the preamble sequence, the method comprising: - determining a first arrival time component as an arrival time of the preamble sequence, said arrival time is limited to a time duration of the short sequence (s[n]), and is determined by means of Fast Fourier Transform, FFT, processing of a received radio signal, wherein a size of the FFT equals a size of an FFT used for detecting an orthogonal frequency-division multiplexing, OFDM, symbol carrying data traffic in a radio access network of the preamble receiver, - determining a second arrival time component as an arrival time of the preamble sequence equal to an integer multiple of the time duration of the short sequence (s[n]), wherein determining a second arrival time component comprises processing of the at least one offset indicator sequence by means of a preamble sequence offset detector, and - estimating an arrival time of the preamble sequence (110a, 110b, 110c, 110d) based on a sum of the first and the second arrival time component. - determining a first arrival time component as an arrival time of the preamble sequence, said arrival time is limited to a time duration of the short sequence (s[n]), and is determined by means of Fast Fourier Transform, FFT, processing of a received radio signal, wherein a size of the FFT equals a size of an FFT used for detecting an orthogonal frequency-division multiplexing, OFDM, symbol carrying data traffic in a radio access network of the preamble receiver, - determining a second arrival time component as an arrival time of the preamble sequence equal to an integer multiple of the time duration of the short sequence (s[n]), wherein determining a second arrival time component comprises processing of the at least one offset indicator sequence by means of a preamble sequence offset detector, and - estimating an arrival time of the preamble sequence (110a, 110b, 110c, 110d) based on a sum of the first and the second arrival time component.
A method for decoding an image, the method comprising: receiving a bitstream including image information; decoding a base block size information on a size of a base block having a same quantization parameter and a residual quantization parameter of a decoding object unit from the bitstream; obtaining a predicted quantization parameter of the decoding object unit based on the base block size information; and determining a quantization parameter of the decoding object unit by adding the predicted quantization parameter and the residual quantization parameter; wherein the base block size information is defined in a Picture Parameter Set and the residual quantization parameter is indicated in a transform unit TU, wherein the base block size information is decoded in a variable length decoding, wherein the predicted quantization parameter is obtained by averaging quantization parameters of blocks adjacent to the decoding object unit, and wherein, when the size of the decoding object unit is smaller than the size of the base block, the decoding object unit is included in an inner part of the base block and the predicted quantization parameter of the decoding object unit is derived a same value as a predicted quantization parameter of other units inside the base block. receiving a bitstream including image information; decoding a base block size information on a size of a base block having a same quantization parameter and a residual quantization parameter of a decoding object unit from the bitstream; obtaining a predicted quantization parameter of the decoding object unit based on the base block size information; and determining a quantization parameter of the decoding object unit by adding the predicted quantization parameter and the residual quantization parameter; wherein the base block size information is defined in a Picture Parameter Set and the residual quantization parameter is indicated in a transform unit TU, wherein the base block size information is decoded in a variable length decoding, wherein the predicted quantization parameter is obtained by averaging quantization parameters of blocks adjacent to the decoding object unit, and wherein, when the size of the decoding object unit is smaller than the size of the base block, the decoding object unit is included in an inner part of the base block and the predicted quantization parameter of the decoding object unit is derived a same value as a predicted quantization parameter of other units inside the base block.
A shift-and-add multiplier able to perform multiplication operations by multiplicative values, the multiplier being configured to receive at an input a value expressed in binary form and to deliver in an output the product of the received input value and a respective multiplicative value, the multiplier comprising: - a set of a plurality of shift units, each shift unit being connected to the input and configured to perform a shift of P bit(s) of the value received at the input, where P is between 0 and N-1, with N number of bits of the binary form at the input and P varies from one shift unit to another; - a set of summation unit(s), configured to sum the outputs of the shift units; - a set of multiplexing unit(s) connected between the set of shift units and the set of summation unit(s) and a control unit configured to control the set of multiplexing unit(s) to select respective outputs of the shift units according to the respective multiplicative value and to deliver them to the set of summation unit(s), the number of shift units depending on the maximum number K of non-zero bit(s) of the list of different multiplicative values associated with the multiplier, and characterized in that the number of multiplexing unit(s) contained in the set of multiplexing unit(s) the second set is greater than or equal to the maximum number K of non-zero bit(s). - a set of a plurality of shift units, each shift unit being connected to the input and configured to perform a shift of P bit(s) of the value received at the input, where P is between 0 and N-1, with N number of bits of the binary form at the input and P varies from one shift unit to another; - a set of summation unit(s), configured to sum the outputs of the shift units; - a set of multiplexing unit(s) connected between the set of shift units and the set of summation unit(s) and a control unit configured to control the set of multiplexing unit(s) to select respective outputs of the shift units according to the respective multiplicative value and to deliver them to the set of summation unit(s), the number of shift units depending on the maximum number K of non-zero bit(s) of the list of different multiplicative values associated with the multiplier, and characterized in that the number of multiplexing unit(s) contained in the set of multiplexing unit(s) the second set is greater than or equal to the maximum number K of non-zero bit(s).
Electric propulsion unit for an aircraft, the electric propulsion unit comprising at least one first propulsion member rotating about an axis, a second propulsion member rotating about the axis and a single electric motor with magnets configured to drive the first propulsion member in a first direction of rotation and the second propulsion member counter-rotating in a second direction of rotation, the electric motor comprising: - a peripheral stator element comprising a first peripheral stage and a second peripheral stage that are offset along the axis, - a first rotor element, rigidly attached to the first propulsion member, configured to be magnetically driven by the first peripheral stage, - a second rotor element, rigidly attached to the second propulsion member, configured to be magnetically driven by the second peripheral stage, - characterized in that the first peripheral stage comprises at least a first phase, a second phase and a third phase that are alternated according to a first sequence so as to allow the first rotor element to rotate in the first direction of rotation, - the second peripheral stage comprises at least the first phase, the second phase and the third phase that are alternated according to a second sequence so as to allow the second rotor element to rotate in the second direction of rotation opposite to the first direction of rotation, and in that - the first phase, the second phase and the third phase of the first peripheral stage are electrically connected to the first phase, the second phase and the third phase of the second peripheral stage, respectively. - a peripheral stator element comprising a first peripheral stage and a second peripheral stage that are offset along the axis, - a first rotor element, rigidly attached to the first propulsion member, configured to be magnetically driven by the first peripheral stage, - a second rotor element, rigidly attached to the second propulsion member, configured to be magnetically driven by the second peripheral stage, - characterized in that the first peripheral stage comprises at least a first phase, a second phase and a third phase that are alternated according to a first sequence so as to allow the first rotor element to rotate in the first direction of rotation, - the second peripheral stage comprises at least the first phase, the second phase and the third phase that are alternated according to a second sequence so as to allow the second rotor element to rotate in the second direction of rotation opposite to the first direction of rotation, and in that - the first phase, the second phase and the third phase of the first peripheral stage are electrically connected to the first phase, the second phase and the third phase of the second peripheral stage, respectively.
A system for stacking folded boxes, the system comprises a stacker unit for forming a stack of folded boxes and a conveyor unit for conveying folded boxes into the stacker unit, wherein seen in a vertical direction the conveyor unit and a receiving part of the stacker unit are arranged in such a manner that in use the folded boxes are falling from the conveyor unit into the stacker unit under influence of gravity, wherein the receiving part of the stacker unit is configured to change the inclination angle of the folded boxes with respect to a horizontal plane during stack-formation in the stacker unit, characterized in that the stacker unit comprises a pressure element, wherein the pressure element is configured to hold the stack of folded boxes between the pressure element and the receiving part.
A method for annotating a recording with a location represented by human-intelligible data, the method comprising: monitoring, while travelling, for different types of signal sources, including one or more secondary signal sources, that may be used to facilitate determining a current location; logging characteristics of said different types of signal sources; making a recording; determining whether to determine a current location, or to defer current location determination for a later time; if current location determination is to be deferred, associating the current time with the recording and determining the current location where the recording occurred, at a later time using said logged characteristics; if current location determination is not to be deferred, determining if a primary signal source is available; if the primary signal source is available, determining a current location based on position data from the primary signal source and associating the current location with the recording; if the primary signal source is not available, estimating position data based at least in part on the logged characteristics of the secondary signal sources, determining an estimated current location using the estimated position data, and associating the estimated current location with the recording. monitoring, while travelling, for different types of signal sources, including one or more secondary signal sources, that may be used to facilitate determining a current location; logging characteristics of said different types of signal sources; making a recording; determining whether to determine a current location, or to defer current location determination for a later time; if current location determination is to be deferred, associating the current time with the recording and determining the current location where the recording occurred, at a later time using said logged characteristics; if current location determination is not to be deferred, determining if a primary signal source is available; if the primary signal source is available, determining a current location based on position data from the primary signal source and associating the current location with the recording; if the primary signal source is not available, estimating position data based at least in part on the logged characteristics of the secondary signal sources, determining an estimated current location using the estimated position data, and associating the estimated current location with the recording.
A voice detector for a hearing device, the voice detector being configured to: obtain one or more microphone signals; obtain a voice accelerometer, VAC, signal; identify the presence of a pitch in the VAC signal with a different sensitivity depending on a signal power of the one or more microphone signals; and, if the presence of a pitch is identified in the VAC signal, determine whether the pitch is associated with a user own voice signal. obtain one or more microphone signals; obtain a voice accelerometer, VAC, signal; identify the presence of a pitch in the VAC signal with a different sensitivity depending on a signal power of the one or more microphone signals; and, if the presence of a pitch is identified in the VAC signal, determine whether the pitch is associated with a user own voice signal.
A vehicle headlamp (1L, 1R) comprising: a semiconductor-type light source; a lens configured to illuminate light from the semiconductor-type light source forward of a vehicle, as a predetermined light distribution pattern; a mount member to which the semiconductor-type light source is fixed; a light control member that is disposed so as to be movable between a first location and a second location, and is configured to switch the light distribution pattern; and a driving member configured to position the light control member so as to be changeably movable between the first location and the second location, wherein the mount member is provided with a housing groove portion (41, 42) arranged to house at least a part (60, 61) of the light control member when the light control member is positioned in the second location, characterized in that the light control member includes at least a light shading portion that is positioned between the semiconductor-type light source and the lens when the light control member is positioned in the first location and that is housed in the housing groove portion when the light control member is positioned in the second location. a semiconductor-type light source; a lens configured to illuminate light from the semiconductor-type light source forward of a vehicle, as a predetermined light distribution pattern; a mount member to which the semiconductor-type light source is fixed; a light control member that is disposed so as to be movable between a first location and a second location, and is configured to switch the light distribution pattern; and a driving member configured to position the light control member so as to be changeably movable between the first location and the second location, wherein the mount member is provided with a housing groove portion (41, 42) arranged to house at least a part (60, 61) of the light control member when the light control member is positioned in the second location, characterized in that the light control member includes at least a light shading portion that is positioned between the semiconductor-type light source and the lens when the light control member is positioned in the first location and that is housed in the housing groove portion when the light control member is positioned in the second location.