mhurhangee/ep-ind-claims huggingface dataset:
A self-moving robot movement boundary determining method, comprising: obtaining positions of sample points obtained along a movement boundary by moving a positioning device coupling with a self-moving robot along the movement boundary, wherein after the movement boundary is delimited using the sample points, the self-moving robot is set to be prohibited from crossing the movement boundary, so that the self-moving robot is able to operate inside or outside the movement boundary; and determining a movement boundary according to the positions of the sample points, wherein the self-moving robot is set to work inside or outside the movement boundary; wherein positioning device coupling with the self-moving robot is moved along the movement boundary by: moving the self-moving robot with the positioning device mounted thereon to move along the movement boundary while the self-moving robot is held by a user; or moving the positioning device detached from the self-moving robot along the movement boundary. obtaining positions of sample points obtained along a movement boundary by moving a positioning device coupling with a self-moving robot along the movement boundary, wherein after the movement boundary is delimited using the sample points, the self-moving robot is set to be prohibited from crossing the movement boundary, so that the self-moving robot is able to operate inside or outside the movement boundary; and determining a movement boundary according to the positions of the sample points, wherein the self-moving robot is set to work inside or outside the movement boundary; wherein positioning device coupling with the self-moving robot is moved along the movement boundary by: moving the self-moving robot with the positioning device mounted thereon to move along the movement boundary while the self-moving robot is held by a user; or moving the positioning device detached from the self-moving robot along the movement boundary. moving the self-moving robot with the positioning device mounted thereon to move along the movement boundary while the self-moving robot is held by a user; or moving the positioning device detached from the self-moving robot along the movement boundary.
A method for controlling a roll-fed printing apparatus for printing print jobs on a recording medium by means of a print mechanism, the method comprising the steps of: receiving a print job with print job settings, adding the print job to a print queue of the roll-fed printing apparatus, specifying a first start position on the recording medium for printing the print job, due to a finishing action planned for the print job automatically adding an additional job to the print queue in order just behind the print job or in order just before the print job, specifying a second start position on the recording medium for processing the additional job in a neighborhood on the recording medium of the print job, specifying a width and a length on the recording medium for processing the additional job, the width and the length determined by the kind of the finishing action, upon arrival of the print job at the head of the print queue or upon arrival of the additional job at the head of the print queue whichever arrives at first, printing the print job and processing the additional job at the first start position and at the second start position respectively, wherein the additional job is a non-printing job during execution of which the recording medium is moved relative to the print mechanism in a transport direction without any printing at the second start position over an area which corresponds to the specified length and width, and wherein the planned finishing action is a lengthwise cut in the transport direction of the recording medium. receiving a print job with print job settings, adding the print job to a print queue of the roll-fed printing apparatus, specifying a first start position on the recording medium for printing the print job, due to a finishing action planned for the print job automatically adding an additional job to the print queue in order just behind the print job or in order just before the print job, specifying a second start position on the recording medium for processing the additional job in a neighborhood on the recording medium of the print job, specifying a width and a length on the recording medium for processing the additional job, the width and the length determined by the kind of the finishing action, upon arrival of the print job at the head of the print queue or upon arrival of the additional job at the head of the print queue whichever arrives at first, printing the print job and processing the additional job at the first start position and at the second start position respectively, wherein the additional job is a non-printing job during execution of which the recording medium is moved relative to the print mechanism in a transport direction without any printing at the second start position over an area which corresponds to the specified length and width, and wherein the planned finishing action is a lengthwise cut in the transport direction of the recording medium.
A method of providing a fine line seal and channel lining, between a first base ply and a secondary substrate, the method comprising the steps of: i) fabricating a microscale recess or recesses in at least the first ply; ii) lidding the first ply with a second ply, wherein the second ply comprises a mould surface for creating structural features in a seal to be formed in the other, base ply and wherein the mould surface includes a recess or recesses in registration with the recess or recesses in the base ply or parts thereof such that the recess or recesses in the base ply or base and second plies form a fluidly continuous channel; iii) urging curable material into this channel so as to fill the channel with curable material; iv) curing the curable material in situ to provide the seal and channel lining so that in the vicinity of the recess or recesses in the mould surface the resultant seal projects above the surface of the base ply; v) separating the two plies so as to leave the seal and channel lining in situ within a recess formed in the base ply; vi) thereafter forming a product by bringing the base ply having the seal and channel lining so in situ into contact with the secondary substrate such that the seal and channel lining effects a seal between the base ply and the said secondary substrate wherein the seal serves to define and seal closed a microfluidic channel. i) fabricating a microscale recess or recesses in at least the first ply; ii) lidding the first ply with a second ply, wherein the second ply comprises a mould surface for creating structural features in a seal to be formed in the other, base ply and wherein the mould surface includes a recess or recesses in registration with the recess or recesses in the base ply or parts thereof such that the recess or recesses in the base ply or base and second plies form a fluidly continuous channel; iii) urging curable material into this channel so as to fill the channel with curable material; iv) curing the curable material in situ to provide the seal and channel lining so that in the vicinity of the recess or recesses in the mould surface the resultant seal projects above the surface of the base ply; v) separating the two plies so as to leave the seal and channel lining in situ within a recess formed in the base ply; vi) thereafter forming a product by bringing the base ply having the seal and channel lining so in situ into contact with the secondary substrate such that the seal and channel lining effects a seal between the base ply and the said secondary substrate wherein the seal serves to define and seal closed a microfluidic channel.
A method for decoding a signal, wherein the method comprises: obtaining spectral coefficients of sub-bands from a received bitstream by means of decoding; obtaining an average quantity of allocated bits per spectral coefficient of each of the sub-bands, wherein an average quantity of allocated bits per spectral coefficient of one sub-band is a ratio of a quantity of bits allocated for the one sub-band to a quantity of spectral coefficients in the one sub-band; classifying sub-bands in which the spectral coefficients are located into a sub-band with saturated bit allocation and a sub-band with unsaturated bit allocation by comparing the average quantities of allocated bits per spectral coefficient of the sub-bands with a first threshold; wherein the sub-band with saturated bit allocation refers to a sub-band whose average quantity of allocated bits per spectral coefficient is greater than or equal to the first threshold, and the sub-band with unsaturated bit allocation refers to a sub-band whose average quantity of allocated bits per spectral coefficient is less than the first threshold; performing noise filling on a spectral coefficient that has not been obtained by means of decoding and is in the sub-band with unsaturated bit allocation, so as to reconstruct the spectral coefficient that has not been obtained by means of decoding; and obtaining a frequency domain signal according to the spectral coefficients obtained by means of decoding and the reconstructed spectral coefficient. obtaining spectral coefficients of sub-bands from a received bitstream by means of decoding; obtaining an average quantity of allocated bits per spectral coefficient of each of the sub-bands, wherein an average quantity of allocated bits per spectral coefficient of one sub-band is a ratio of a quantity of bits allocated for the one sub-band to a quantity of spectral coefficients in the one sub-band; classifying sub-bands in which the spectral coefficients are located into a sub-band with saturated bit allocation and a sub-band with unsaturated bit allocation by comparing the average quantities of allocated bits per spectral coefficient of the sub-bands with a first threshold; wherein the sub-band with saturated bit allocation refers to a sub-band whose average quantity of allocated bits per spectral coefficient is greater than or equal to the first threshold, and the sub-band with unsaturated bit allocation refers to a sub-band whose average quantity of allocated bits per spectral coefficient is less than the first threshold; performing noise filling on a spectral coefficient that has not been obtained by means of decoding and is in the sub-band with unsaturated bit allocation, so as to reconstruct the spectral coefficient that has not been obtained by means of decoding; and obtaining a frequency domain signal according to the spectral coefficients obtained by means of decoding and the reconstructed spectral coefficient.
An antenna with a reconfigurable radiation pattern, having a predetermined operating frequency, corresponding to a predetermined wavelength, this antenna comprising: - an electrically conductive floorplan, - an electrically conductive sectoral horn, having first and second open ends (4, 6) and flaring out from the first to the second open end, the second open end being built into the floorplan and having an elongated shape, - short-circuited radiating slots (10, 12), having an elongated shape, built into the floorplan, disposed on either side of the second open end, parallel thereto, and - electrically conductive louvres (22, 24), disposed above the slots (10, 12) and the second open end, and capable of being mechanically deployed in a continuous manner in order to modify the radiation pattern of the antenna. - an electrically conductive floorplan, - an electrically conductive sectoral horn, having first and second open ends (4, 6) and flaring out from the first to the second open end, the second open end being built into the floorplan and having an elongated shape, - short-circuited radiating slots (10, 12), having an elongated shape, built into the floorplan, disposed on either side of the second open end, parallel thereto, and - electrically conductive louvres (22, 24), disposed above the slots (10, 12) and the second open end, and capable of being mechanically deployed in a continuous manner in order to modify the radiation pattern of the antenna.
A computer-implemented method for determining the ageing behaviour of a material, wherein the ageing behaviour is described by parameters, wherein the parameters include a physical test property of the material, a storage temperature, and a storage period of the material, wherein the physical test property is specified at the storage temperature and during the storage period, wherein the method comprises the steps of - processing a first part of the parameters by a neural network (400; 402) in order to obtain a result, - supplying the result to an Arrhenius model in order to obtain a prediction value, wherein the prediction value corresponds to one of the parameters not input into the neural network, wherein the first part of the parameters is supplied exclusively to the neural network (400; 402) and a second part of the parameters is supplied together with the result to the Arrhenius model. - processing a first part of the parameters by a neural network (400; 402) in order to obtain a result, - supplying the result to an Arrhenius model in order to obtain a prediction value, wherein the prediction value corresponds to one of the parameters not input into the neural network, wherein the first part of the parameters is supplied exclusively to the neural network (400; 402) and a second part of the parameters is supplied together with the result to the Arrhenius model.
An aqueous ink composition comprising: water; an optional co-solvent; and a sulfonated polyester; characterised in that the ink composition further comprises an isoprene rubber; and wherein the sulfonated polyester has a degree of sulfonation of at least 7.5 mol percent; wherein the sulfonated polyester is of the formula: wherein R is an alkylene of from 2 to 25 carbon atoms; Ri is an alkylene of from 2 to 25 carbon atoms; and wherein x, y and z are from 10 to 100,000; wherein the ink composition has a first viscosity of from about 3,000 to about 90,000 millipascal seconds at an ink take up temperature of from 45 °C to 80 °C; and a second viscosity of from 100,000 to 2,000,000 millipascal seconds at an ink transfer temperature of from 18 °C to 30 °C; and wherein the ink composition is substantially colourless or is a tinted clear ink upon printing. water; an optional co-solvent; and a sulfonated polyester; characterised in that the ink composition further comprises an isoprene rubber; and wherein the sulfonated polyester has a degree of sulfonation of at least 7.5 mol percent; wherein the sulfonated polyester is of the formula: wherein R is an alkylene of from 2 to 25 carbon atoms; Ri is an alkylene of from 2 to 25 carbon atoms; and wherein x, y and z are from 10 to 100,000; wherein the ink composition has a first viscosity of from about 3,000 to about 90,000 millipascal seconds at an ink take up temperature of from 45 °C to 80 °C; and a second viscosity of from 100,000 to 2,000,000 millipascal seconds at an ink transfer temperature of from 18 °C to 30 °C; and wherein the ink composition is substantially colourless or is a tinted clear ink upon printing. wherein R is an alkylene of from 2 to 25 carbon atoms; Ri is an alkylene of from 2 to 25 carbon atoms; and wherein x, y and z are from 10 to 100,000; wherein the ink composition has a first viscosity of from about 3,000 to about 90,000 millipascal seconds at an ink take up temperature of from 45 °C to 80 °C; and a second viscosity of from 100,000 to 2,000,000 millipascal seconds at an ink transfer temperature of from 18 °C to 30 °C; and wherein the ink composition is substantially colourless or is a tinted clear ink upon printing.
An optical connector including a plurality of light incidence/emission portions (10, 10A) and a ferrule (20, 20A, 20B) to house the plurality of light incidence/emission portions (10, 10A), and configured to perform optical connection to an optical connector on the other side, each of the plurality of light incidence/emission portions (10, 10A) comprising: a waveguide member having a first optical axis; and a GRIN lens (12, 12A) including a second optical axis, and having one end abutted against an end portion of the waveguide member and the other end provided with an incidence/emission plane, wherein the second optical axis is offset in parallel relative to the first optical axis at the end portion of the waveguide member, the incidence/emission plane is not orthogonal to an optical axis of an optical beam emitted from the incidence/emission plane, and also not orthogonal to an optical axis of an optical beam entering the incidence/emission plane, and the ferrule (20, 20A, 20B) includes a guide portion (25, 26) to perform optical connection to the optical connector on the other side. a waveguide member having a first optical axis; and a GRIN lens (12, 12A) including a second optical axis, and having one end abutted against an end portion of the waveguide member and the other end provided with an incidence/emission plane, wherein the second optical axis is offset in parallel relative to the first optical axis at the end portion of the waveguide member, the incidence/emission plane is not orthogonal to an optical axis of an optical beam emitted from the incidence/emission plane, and also not orthogonal to an optical axis of an optical beam entering the incidence/emission plane, and the ferrule (20, 20A, 20B) includes a guide portion (25, 26) to perform optical connection to the optical connector on the other side.
A boot retaining unit for a ski binding or snowboard binding, comprising: a) at least one boot retaining element (2, 3) which can be moved from a securing position, in which it connects a ski boot to a ski, to a release position in which the ski boot detaches from the ski; b) a restoring spring for the at least one boot retaining element (2, 3); c) a damping device for absorbing short, hard impacts; and d) a translation mechanism (9; 22; 24), wherein e) the at least one boot retaining element (2, 3) is connected to the damping device via the translation mechanism (9; 22; 24), and f) if an impact acts on the at least one boot retaining element (2, 3) transversely or obliquely with respect to a direction of travel and deflects the at least one boot retaining element (2, 3), the translation mechanism (9; 22; 24) transmits a force onto a damper (11; 17; 21; 23) of the damping device via a transmitting element (9a, 9b; 22), amplifying it in the process. a) at least one boot retaining element (2, 3) which can be moved from a securing position, in which it connects a ski boot to a ski, to a release position in which the ski boot detaches from the ski; b) a restoring spring for the at least one boot retaining element (2, 3); c) a damping device for absorbing short, hard impacts; and d) a translation mechanism (9; 22; 24), wherein e) the at least one boot retaining element (2, 3) is connected to the damping device via the translation mechanism (9; 22; 24), and f) if an impact acts on the at least one boot retaining element (2, 3) transversely or obliquely with respect to a direction of travel and deflects the at least one boot retaining element (2, 3), the translation mechanism (9; 22; 24) transmits a force onto a damper (11; 17; 21; 23) of the damping device via a transmitting element (9a, 9b; 22), amplifying it in the process.
A device for irrigating a body cavity, including (i) a reservoir for the irrigation fluid, (ii) a feed line (iii) a controlled roller pump (iv) a controlled vacuum pump (v) a first medical instrument with a first suction line (vi) a second medical instrument with a second suction line (vii) optionally a third suction line with a restrictor (viii) a first pinch valve at the first suction line (ix) a second pinch valve provided at the second suction line (x) a waste container connected to the first suction line, the second suction line and optionally the third suction line as well as to the controlled vacuum pump, characterized in that the first pinch valve and the second pinch valve are coupled with each other in an anti-parallel manner. (i) a reservoir for the irrigation fluid, (ii) a feed line (iii) a controlled roller pump (iv) a controlled vacuum pump (v) a first medical instrument with a first suction line (vi) a second medical instrument with a second suction line (vii) optionally a third suction line with a restrictor (viii) a first pinch valve at the first suction line (ix) a second pinch valve provided at the second suction line (x) a waste container connected to the first suction line, the second suction line and optionally the third suction line as well as to the controlled vacuum pump,
A method for playing ring back tone comprising: transmitting, by a calling side mobile switching center a route request message to a called side home location register after the calling side mobile switching center receives a calling request transmitted from a calling terminal to a called terminal; receiving, by the calling side mobile switching center, a response to the route request message returned from the called side home location register, wherein a roaming number field in the response to the route request message is filled with an identifier of a ring back tone service, wherein the identifier of the ring back tone service is an identifier returned to the calling side mobile switching center when the called side home location register acquires an absence response message of the called terminal and determines that the called terminal has customized the ring back tone service; identifying, by the calling side mobile switching center, whether the roaming number field in the response to the route request message includes the identifier of the ring back tone service to determine whether to instruct the playing device to play the ring back tone to the calling terminal; and instructing, by the calling side mobile switching center, a playing device to play the ring back tone to the calling terminal when the roaming number field in the response to the route request message includes the identifier of the ring back tone service. transmitting, by a calling side mobile switching center a route request message to a called side home location register after the calling side mobile switching center receives a calling request transmitted from a calling terminal to a called terminal; receiving, by the calling side mobile switching center, a response to the route request message returned from the called side home location register, wherein a roaming number field in the response to the route request message is filled with an identifier of a ring back tone service, wherein the identifier of the ring back tone service is an identifier returned to the calling side mobile switching center when the called side home location register acquires an absence response message of the called terminal and determines that the called terminal has customized the ring back tone service; identifying, by the calling side mobile switching center, whether the roaming number field in the response to the route request message includes the identifier of the ring back tone service to determine whether to instruct the playing device to play the ring back tone to the calling terminal; and instructing, by the calling side mobile switching center, a playing device to play the ring back tone to the calling terminal when the roaming number field in the response to the route request message includes the identifier of the ring back tone service.