mhurhangee/patent-ind-claim-en huggingface dataset:
A communication system comprising: a plurality of slave devices ; a master device communicating with the plurality of slave devices ; a writing device for writing an ID into each of the slave devices and the master device , wherein the writing device is configured to transmit an ID for the master device , and then to sequentially transmit IDs for the plurality of slave devices , the master device includes a plurality of output switches, each for supplying power to a corresponding one of the plurality of slave devices , a first setting unit for receiving an ID from the writing device and setting the received ID as the own master ID, and a switch control unit for sequentially switching on, after setting of the own master ID, the output switches and receiving an ID for the corresponding one of the plurality of slave devices from the writing device , and wherein each of the plurality of slave devices includes a second setting unit for receiving, after being supplied with power, the ID for the slave device from the writing device and setting the received ID as the own slave ID. a plurality of slave devices ; a master device communicating with the plurality of slave devices ; a writing device for writing an ID into each of the slave devices and the master device , wherein the writing device is configured to transmit an ID for the master device , and then to sequentially transmit IDs for the plurality of slave devices , the master device includes a plurality of output switches, each for supplying power to a corresponding one of the plurality of slave devices , a first setting unit for receiving an ID from the writing device and setting the received ID as the own master ID, and a switch control unit for sequentially switching on, after setting of the own master ID, the output switches and receiving an ID for the corresponding one of the plurality of slave devices from the writing device , and wherein each of the plurality of slave devices includes a second setting unit for receiving, after being supplied with power, the ID for the slave device from the writing device and setting the received ID as the own slave ID.
A method of levelling a rail vehicle , the rail vehicle comprising a vehicle body supported by two running gears placed on a railway track comprising two parallel rails , the method comprising measuring height positions of at least four vehicle body reference points (V) relative to a frame of reference stationary relative to the railway track for adjusting a secondary suspension between the vehicle body and the two running gears based on the measured height positions, the vehicle body reference points (V) being fixed relative to the vehicle body , the method being characterised in that it includes the following operations: - by means of at least one laser plane generator mounted at a stationary position relative to the railway track , projecting a rotating laser beam that rotates about a vertical rotation axis and extends below the vehicle body in a reference plane of the frame of reference perpendicular to the vertical rotation axis , - by means of a set of one of more laser receivers , each measuring a height relative to the reference plane , determining vertical distances between the at least four vehicle body reference points (V) and the reference plane and further vertical distances between a set of at least four rail height reference points (R) and the reference plane , the rail height reference points (R) being each located below one of the two running gears on one of the rails , - computing adjusted height positions of the least four vehicle body reference points (V) based on the determined vertical distances and further vertical distances and, - comparing said adjusted height positions with expected height positions of said vehicle body reference points (V). - by means of at least one laser plane generator mounted at a stationary position relative to the railway track , projecting a rotating laser beam that rotates about a vertical rotation axis and extends below the vehicle body in a reference plane of the frame of reference perpendicular to the vertical rotation axis , - by means of a set of one of more laser receivers , each measuring a height relative to the reference plane , determining vertical distances between the at least four vehicle body reference points (V) and the reference plane and further vertical distances between a set of at least four rail height reference points (R) and the reference plane , the rail height reference points (R) being each located below one of the two running gears on one of the rails , - computing adjusted height positions of the least four vehicle body reference points (V) based on the determined vertical distances and further vertical distances and, - comparing said adjusted height positions with expected height positions of said vehicle body reference points (V).
Clamping device for clamping a workpiece (W), having a base plate , a bowl , a ball element mounted rotatably in the bowl , a holding plate connected to the ball element and intended for holding the workpiece (W), and at least one fastening element for locking the ball element in the bowl , characterized in that an arrangement with a plurality of depressions is formed on the ball element , and the fastening element can be selectively brought into engagement with one of the depressions in a form-fitting manner, and at least some of the depressions are assigned an information on the surface of the ball element .
Pneumatic vehicle tyre, in particular for use under winter driving conditions, having a tread, which is subdivided into profile blocks by grooves, for example circumferentially oriented grooves, transverse grooves, diagonal grooves and the like, wherein profile blocks having at least three sipes , two outer sipes and at least one inner sipe extending therebetween, are provided, wherein all the sipes extend at least substantially parallel to one another and at least substantially in an axial direction and have central portions that extend in an undulating manner in plan view, wherein the wave shape of the portions of the at least one inner sipe that extend in an undulating manner has a greater amplitude (a 1 ) than the wave shape of the portions of the outer sipes that extend in an undulating manner, characterized in that the wave shape of the portions of the at least one inner sipe that extend in an undulating manner has a greater wavelength (λ 1 ) than the wave shape of the portions of the outer sipes that extend in an undulating manner.
A system for generating a laser beam by nonlinear effect, comprising: - a single-frequency continuous-wave laser source for generating a fundamental wave, - a resonant external cavity receiving this fundamental wave, called the microchip cavity, characterized in that said microchip cavity is composite in so far as this microchip cavity is a unitary assembly of a plurality of materials comprising: - at least one nonlinear crystal , - an entrance mirror , - a concave mirror deposited on a material that is fastened to the nonlinear crystal; the material on which the concave mirror is deposited is different from the constituent material of the nonlinear crystal, - a first thermoelectric module (P2) for controlling the temperature of the nonlinear crystal and at least one second thermoelectric module (P1) for controlling at least the temperature of the material on which the concave mirror is deposited. - a single-frequency continuous-wave laser source for generating a fundamental wave, - a resonant external cavity receiving this fundamental wave, called the microchip cavity, characterized in that said microchip cavity is composite in so far as this microchip cavity is a unitary assembly of a plurality of materials comprising: - at least one nonlinear crystal , - an entrance mirror , - a concave mirror deposited on a material that is fastened to the nonlinear crystal; the material on which the concave mirror is deposited is different from the constituent material of the nonlinear crystal, - a first thermoelectric module (P2) for controlling the temperature of the nonlinear crystal and at least one second thermoelectric module (P1) for controlling at least the temperature of the material on which the concave mirror is deposited. - at least one nonlinear crystal , - an entrance mirror , - a concave mirror deposited on a material that is fastened to the nonlinear crystal; the material on which the concave mirror is deposited is different from the constituent material of the nonlinear crystal, - a first thermoelectric module (P2) for controlling the temperature of the nonlinear crystal and at least one second thermoelectric module (P1) for controlling at least the temperature of the material on which the concave mirror is deposited.
A polar code interleaving processing method, comprising: determining (S210) N to-be-encoded bits, wherein N is a positive integer; obtaining (S220) a first sequence that comprises sequence numbers of N polarized channels, wherein the first sequence is used to indicate a reliability order of the N polarized channels; performing (S230) polar encoding on the N to-be-encoded bits to obtain encoded bits; performing (S240) interleaving processing on the encoded bits based on the first sequence, characterised in that the performing interleaving processing on the encoded bits based on the first sequence comprises: sorting (S2403) the encoded bits based on the first sequence to obtain sorted encoded bits; and inputting (S2404) the sorted encoded bits into an interleaver to obtain interleaved bits. determining (S210) N to-be-encoded bits, wherein N is a positive integer; obtaining (S220) a first sequence that comprises sequence numbers of N polarized channels, wherein the first sequence is used to indicate a reliability order of the N polarized channels; performing (S230) polar encoding on the N to-be-encoded bits to obtain encoded bits; performing (S240) interleaving processing on the encoded bits based on the first sequence, characterised in that the performing interleaving processing on the encoded bits based on the first sequence comprises: sorting (S2403) the encoded bits based on the first sequence to obtain sorted encoded bits; and inputting (S2404) the sorted encoded bits into an interleaver to obtain interleaved bits.
A method to be performed by a radio manager of a playback device comprising first and second wireless radios and configured for: concurrently communicating with the first wireless radio in a first wireless spectrum and the second wireless radio in a second wireless spectrum, the method further comprising: determining , while the playback device is in a bonded zone with at least one second playback device, that the playback device is not playing audio based on audio information received via an audio interface ; in response to the determination that the playback device is not playing audio: disabling communicating via the second wireless radio ; and continuing to communicate via the first wireless spectrum using the first wireless radio ; and sending a message to the at least one second playback device in the bonded zone that the second wireless radio has been disabled and to switch to communicating via wireless channels in the first wireless spectrum; after disabling communicating using the second wireless radio , determining that the playback device is playing audio content included in the audio information, and responsively: enabling the second wireless radio ; and communicating with the second playback device via the second wireless spectrum using the second wireless radio . determining , while the playback device is in a bonded zone with at least one second playback device, that the playback device is not playing audio based on audio information received via an audio interface ; in response to the determination that the playback device is not playing audio: disabling communicating via the second wireless radio ; and continuing to communicate via the first wireless spectrum using the first wireless radio ; and sending a message to the at least one second playback device in the bonded zone that the second wireless radio has been disabled and to switch to communicating via wireless channels in the first wireless spectrum; disabling communicating via the second wireless radio ; and continuing to communicate via the first wireless spectrum using the first wireless radio ; and sending a message to the at least one second playback device in the bonded zone that the second wireless radio has been disabled and to switch to communicating via wireless channels in the first wireless spectrum; after disabling communicating using the second wireless radio , determining that the playback device is playing audio content included in the audio information, and responsively: enabling the second wireless radio ; and communicating with the second playback device via the second wireless spectrum using the second wireless radio . enabling the second wireless radio ; and communicating with the second playback device via the second wireless spectrum using the second wireless radio .
A method of generating a graphical representation of cardiac information on a display screen, comprising: electronically acquiring an anatomical model of the heart including multiple cardiac locations; electronically determining multiple sequential data sets of source information corresponding to cardiac activity at the multiple cardiac locations; electronically rendering the anatomical model of the heart including multiple cardiac locations on the display screen; and electronically rendering the data sets of source information in relation to the multiple cardiac locations on the display screen; wherein the source information comprises: one or both of dipole density information and surface charge information; and one or both of temperature information and pH information; and wherein the method does not comprise any step of methods for treatment of the human or animal body by surgery or therapy and diagnostic methods practiced on the human or animal body. electronically acquiring an anatomical model of the heart including multiple cardiac locations; electronically determining multiple sequential data sets of source information corresponding to cardiac activity at the multiple cardiac locations; electronically rendering the anatomical model of the heart including multiple cardiac locations on the display screen; and electronically rendering the data sets of source information in relation to the multiple cardiac locations on the display screen; wherein the source information comprises: one or both of dipole density information and surface charge information; and one or both of temperature information and pH information; and one or both of dipole density information and surface charge information; and one or both of temperature information and pH information; and wherein the method does not comprise any step of methods for treatment of the human or animal body by surgery or therapy and diagnostic methods practiced on the human or animal body.
A method of evaluating the respiratory health of a patient comprising: receiving at least one biological signal, having respiratory and cardiac components and a waveform curve in the time domain, from a sensor in operative communication with a patient; using at least one processor , processing the biological signal and computing a waveform curve that is reflective of the respiration rate of the patient; characterized in that the method comprises determining the correlation between the biological signal waveform curve and respiration rate waveform curve and determining a respective correlation coefficient; performing a frequency analysis on the biological signal and determining a respiration metric reflective of the ratio of spectral components associated with the respiratory component of the biological signal in relation to the total spectral components for the biological signal; and combining the correlation coefficient and the respiration metric and forming a respiratory stress metric for displaying to a user. receiving at least one biological signal, having respiratory and cardiac components and a waveform curve in the time domain, from a sensor in operative communication with a patient; using at least one processor , processing the biological signal and computing a waveform curve that is reflective of the respiration rate of the patient; characterized in that the method comprises determining the correlation between the biological signal waveform curve and respiration rate waveform curve and determining a respective correlation coefficient; performing a frequency analysis on the biological signal and determining a respiration metric reflective of the ratio of spectral components associated with the respiratory component of the biological signal in relation to the total spectral components for the biological signal; and combining the correlation coefficient and the respiration metric and forming a respiratory stress metric for displaying to a user.
A portable electronic device having front and rear surfaces, comprising: a transparent enclosure that forms at least part of the front and rear surfaces; a circuit board ; a display assembly configured to provide visual content, wherein the display assembly is positioned in the transparent enclosure and extends around the circuit board , wherein the display assembly has first and second ends and a border at the second end, wherein the second end is joined to the first end at a joint , and wherein at least part of the first end overlaps the second end and hides a final portion of the border of the display assembly from view such that images are presented in a continuous loop that wraps around the device ; and a camera configured to capture an image of a user, wherein the image is processed using facial recognition software to determine an orientation of a user relative to a portion of the display assembly , and wherein the presentation of visual content is adjusted based on the orientation of the user relative to the portion of the display assembly . a transparent enclosure that forms at least part of the front and rear surfaces; a circuit board ; a display assembly configured to provide visual content, wherein the display assembly is positioned in the transparent enclosure and extends around the circuit board , wherein the display assembly has first and second ends and a border at the second end, wherein the second end is joined to the first end at a joint , and wherein at least part of the first end overlaps the second end and hides a final portion of the border of the display assembly from view such that images are presented in a continuous loop that wraps around the device ; and a camera configured to capture an image of a user, wherein the image is processed using facial recognition software to determine an orientation of a user relative to a portion of the display assembly , and wherein the presentation of visual content is adjusted based on the orientation of the user relative to the portion of the display assembly .
A wire electrical discharge machine which generates electric discharge at an electrode gap between a wire electrode and a workpiece (W) by applying voltage across the electrode gap to perform electrical discharge machining on the workpiece (W), comprising: a worktable on which the workpiece (W) is placed; and a control device comprising: a placement area detector configured to divide a top surface of the worktable into a plurality of areas and detect areas where the workpiece (W) is present; a placement time measuring unit configured to measure placement time for which the workpiece (W) is placed, on each of the areas detected by the placement area detector ; and cumulative time storage configured to add up the placement times measured by the placement time measuring unit for each of the areas and store the added-up placement times as a cumulative time for the area, wherein the control device is configured to output a control signal for displaying the cumulative time for each of the areas or providing a notice based on the cumulative time. a worktable on which the workpiece (W) is placed; and a control device comprising: a placement area detector configured to divide a top surface of the worktable into a plurality of areas and detect areas where the workpiece (W) is present; a placement time measuring unit configured to measure placement time for which the workpiece (W) is placed, on each of the areas detected by the placement area detector ; and cumulative time storage configured to add up the placement times measured by the placement time measuring unit for each of the areas and store the added-up placement times as a cumulative time for the area, a placement area detector configured to divide a top surface of the worktable into a plurality of areas and detect areas where the workpiece (W) is present; a placement time measuring unit configured to measure placement time for which the workpiece (W) is placed, on each of the areas detected by the placement area detector ; and cumulative time storage configured to add up the placement times measured by the placement time measuring unit for each of the areas and store the added-up placement times as a cumulative time for the area, wherein the control device is configured to output a control signal for displaying the cumulative time for each of the areas or providing a notice based on the cumulative time.
A data transmission method, comprising: determining, by a terminal device , a target position according to repetition positions of a Configured Grant, CG, resource configured with a repetition, wherein the CG resource is a periodic resource, and the CG resource of each period includes repetitions of which the count equals to a repetition count; and starting transmitting, by the terminal device , data based on the target position, wherein the target position is a position of a repetition corresponding to a first RV number 0 in the CG resource and characterised in that it is explicitly indicated by a network device to the terminal device , wherein the CG resource comprises multiple repetition positions corresponding to a RV number 0. determining, by a terminal device , a target position according to repetition positions of a Configured Grant, CG, resource configured with a repetition, wherein the CG resource is a periodic resource, and the CG resource of each period includes repetitions of which the count equals to a repetition count; and starting transmitting, by the terminal device , data based on the target position, wherein the target position is a position of a repetition corresponding to a first RV number 0 in the CG resource and characterised in that it is explicitly indicated by a network device to the terminal device , wherein the CG resource comprises multiple repetition positions corresponding to a RV number 0.