mhurhangee/ep-ind-claims huggingface dataset:
A method for quality of service, QoS, parameters mapping during a handover from a first radio access network, RAN, to a second RAN, the first RAN and the second RAN having communication with one or more access point names, APNs, comprising: deriving, for the second RAN, an APN aggregated maximum bit rate, APN-AMBR for each of the one or more APNs based on a maximum bit rate, MBR, of one or more packet data protocol, PDP, contexts of the first RAN, the first RAN including one of a universal terrestrial radio access network, UTRAN, or a global system for mobiles, GSM, enhanced data for GSM evolution radio access network, GERAN, and the second RAN including an evolved universal terrestrial radio access network, E- UTRAN; providing a local user equipment, UE, aggregated maximum bit rate, UE-AMBR, until a subscribed UE-AMBR is available for the UE; acquiring the subscribed UE-AMBR; calculating a derived UE-AMBR; and wherein calculating a derived UE-AMBR comprises taking the minimum of the subscribed UE-AMBR and the sum of the derived APN-AMBRs of the one or more APNs associated with the UE. deriving, for the second RAN, an APN aggregated maximum bit rate, APN-AMBR for each of the one or more APNs based on a maximum bit rate, MBR, of one or more packet data protocol, PDP, contexts of the first RAN, the first RAN including one of a universal terrestrial radio access network, UTRAN, or a global system for mobiles, GSM, enhanced data for GSM evolution radio access network, GERAN, and the second RAN including an evolved universal terrestrial radio access network, E- UTRAN; providing a local user equipment, UE, aggregated maximum bit rate, UE-AMBR, until a subscribed UE-AMBR is available for the UE; acquiring the subscribed UE-AMBR; calculating a derived UE-AMBR; and
A handle arrangement for a machine component which vibrates in the operating state thereof, in particular for an impact drilling machine or the like, with a connecting part for connecting to the machine component and with a handle which is coupled to the connecting part, wherein the handle is assigned an elongate handle section with a hand engagement point, wherein the handle section in the inoperative state is oriented coaxially with respect to a geometrical handle axis, and wherein the handle serves primarily to introduce actuating forces acting perpendicularly to the handle axis, wherein the handle is mounted on the connecting part so as to be slightly deflectable about a geometrical pivot point substantially transversely with respect to the handle axis characterized in that the handle has a damping mass element, the mass center of gravity of which with respect to the pivot point, as seen along the handle axis, lies on that side of the handle which faces away from the hand engagement point, wherein the handle is of substantially rigid configuration over the entire length thereof with regard to a bending stress about a bending axis running perpendicularly to the handle axis.
A method of measuring turbidity of a fluid in a household appliance for washing and rinsing goods, the method comprising the steps of: measuring, by means of a turbidity sensor, turbidity of the fluid by emitting light through the fluid and detecting the amount of light passing through the fluid; measuring temperature of the turbidity sensor; determining the measured turbidity by analysing the amount of emitted light and the amount of detected light; the method further being characterized in comprising the steps of: calculating, as a function of the measured temperature, a value of a drive signal to be supplied to the turbidity sensor for controlling the emitted light, the function being an equation of at least the second degree; and setting the drive signal to the calculated value, thereby controlling the amount of emitted light. measuring, by means of a turbidity sensor, turbidity of the fluid by emitting light through the fluid and detecting the amount of light passing through the fluid; measuring temperature of the turbidity sensor; determining the measured turbidity by analysing the amount of emitted light and the amount of detected light; the method further being characterized in comprising the steps of: calculating, as a function of the measured temperature, a value of a drive signal to be supplied to the turbidity sensor for controlling the emitted light, the function being an equation of at least the second degree; and setting the drive signal to the calculated value, thereby controlling the amount of emitted light. calculating, as a function of the measured temperature, a value of a drive signal to be supplied to the turbidity sensor for controlling the emitted light, the function being an equation of at least the second degree; and setting the drive signal to the calculated value, thereby controlling the amount of emitted light.
A processing system comprising: a machine tool that includes a measuring unit outputting measurement information for calculating a shape of a processing object; a control unit that is configured to generate positional information related to a position of the measuring unit at a time of measuring the processing object and to output the generated positional information and a generation period signal indicating a period during which the positional information is generated; an acquisition unit (210, 220) that is configured to acquire the positional information and the generation period signal which have been output; an acquisition interval calculation unit that is configured to calculate a statistical value indicating an interval between acquisition periods regarding a plurality of the generation period signals acquired by the acquisition unit; an estimation unit that is configured to estimate the period during which the positional information is generated on the basis of the statistical value calculated by the acquisition interval calculation unit; and a shape calculation unit (250, 260) that is configured to calculate the shape of the processing object on the basis of the measurement information, the positional information, and the period estimated by the estimation unit. a machine tool that includes a measuring unit outputting measurement information for calculating a shape of a processing object; a control unit that is configured to generate positional information related to a position of the measuring unit at a time of measuring the processing object and to output the generated positional information and a generation period signal indicating a period during which the positional information is generated; an acquisition unit (210, 220) that is configured to acquire the positional information and the generation period signal which have been output; an acquisition interval calculation unit that is configured to calculate a statistical value indicating an interval between acquisition periods regarding a plurality of the generation period signals acquired by the acquisition unit; an estimation unit that is configured to estimate the period during which the positional information is generated on the basis of the statistical value calculated by the acquisition interval calculation unit; and a shape calculation unit (250, 260) that is configured to calculate the shape of the processing object on the basis of the measurement information, the positional information, and the period estimated by the estimation unit.
A method for producing a cabinet for a household appliance comprising the steps of: providing a steel sheet of HSLA class having one of the grades selected from the group of S315MC, S355MC, S420MC, S460MC, S500MC, S550MC and S600MC, cold rolling of the steel sheet to have a final thickness of 0.2 mm to 0.4 mm, whereby the thickness reduction in the first pass mill is not more than 0.5 mm, annealing the steel sheet and treating of the same with skin pass milling, reshaping of the steel sheet, and bending the same to form a panel, and using said panel to produce a cabinet for a household appliance. providing a steel sheet of HSLA class having one of the grades selected from the group of S315MC, S355MC, S420MC, S460MC, S500MC, S550MC and S600MC, cold rolling of the steel sheet to have a final thickness of 0.2 mm to 0.4 mm, whereby the thickness reduction in the first pass mill is not more than 0.5 mm, annealing the steel sheet and treating of the same with skin pass milling, reshaping of the steel sheet, and bending the same to form a panel, and using said panel to produce a cabinet for a household appliance.
A curable silicone pressure sensitive adhesive composition comprising a mixture of: (a) about 10-to about 98% of a reaction product of: (i) a reactive polydimethylsiloxane polymer; (ii) a reactive silicone resin; and (iii) an acid or a base catalyst that has a pKa value equal to or less than -6 or equal to or greater than 15; (b) about 1 to about 45% of a (meth)acrylate functionalized polydimethylsiloxane polymer or oligomer; (c) about 1 to about 45% of a silicone resin or a polydimethylsiloxane polymer or oligomer; and (d) about 0.001 to about 5% of a radical initiator; and wherein the cured adhesive has a transmittance, measured in accordance with ASTM E903 at 500nm, of greater than 90%. (a) about 10-to about 98% of a reaction product of: (i) a reactive polydimethylsiloxane polymer; (ii) a reactive silicone resin; and (iii) an acid or a base catalyst that has a pKa value equal to or less than -6 or equal to or greater than 15; (i) a reactive polydimethylsiloxane polymer; (ii) a reactive silicone resin; and (iii) an acid or a base catalyst that has a pKa value equal to or less than -6 or equal to or greater than 15; (b) about 1 to about 45% of a (meth)acrylate functionalized polydimethylsiloxane polymer or oligomer; (c) about 1 to about 45% of a silicone resin or a polydimethylsiloxane polymer or oligomer; and (d) about 0.001 to about 5% of a radical initiator; and wherein the cured adhesive has a transmittance, measured in accordance with ASTM E903 at 500nm, of greater than 90%.
Measuring system comprising at least two electrodes on the inner wall of a pipe for conducting a multiphase fluid flow, the pipe having a deposit layer covering said inner wall, the flow having an essentially constant water liquid ratio over a time span, the electrodes being positioned on the inner surface of the pipe and being connected to a measuring instrument for measuring the electrical characteristics between the electrodes, the system also comprising a flow density sensor measuring in essentially the same volume as the electrodes, the system including an analyzing unit in said measuring instrument configured to sample said density and electrical characteristic at a predetermined rate, the measuring system being characterised in that the analysis unit is configured to calculate a best fit curve representing the sampled data as a function between the corresponding density and electrical characteristic data and based on the curve determining the effect of said deposit layer. a pipe for conducting a multiphase fluid flow, the pipe having a deposit layer covering said inner wall, the flow having an essentially constant water liquid ratio over a time span, the electrodes being positioned on the inner surface of the pipe and being connected to a measuring instrument for measuring the electrical characteristics between the electrodes, the system also comprising a flow density sensor measuring in essentially the same volume as the electrodes, the system including an analyzing unit in said measuring instrument configured to sample said density and electrical characteristic at a predetermined rate, the measuring system being characterised in that the analysis unit is configured to calculate a best fit curve representing the sampled data as a function between the corresponding density and electrical characteristic data and based on the curve determining the effect of said deposit layer.
A surgical laser system, comprising: a first laser source configured to emit a first laser beam with a first wavelength; a second laser source configured to emit a second laser beam with a second wavelength; a first diffraction optical element, DOE, tuned to the first wavelength, wherein the first DOE is configured to diffract the first laser beam into one or more first diffracted beams at a diffraction angle; a second DOE tuned to the second wavelength, wherein the second DOE is configured to diffract the second laser beam into one or more second diffracted beams at the diffraction angle; a first beam splitter configured to reflect the one or more first diffracted beams onto a lens and a second beam splitter configured to reflect the one or more second diffracted beams onto the lens; and the lens configured to focus the one or more first diffracted beams and the one or more second diffracted beams onto an interface plane of a proximal end of a cable coupled to the surgical laser system, wherein a distal end of the cable is configured to project the one or more first diffracted beams and the one or more second diffracted beams onto a target surface; and further comprising a light source configured to emit an illumination beam onto the lens, wherein once emitted by the light source the illumination beam passes through the first beam splitter and the second beam splitter; and wherein the lens is configured to focus the illumination beam onto the interface plane. a first laser source configured to emit a first laser beam with a first wavelength; a second laser source configured to emit a second laser beam with a second wavelength; a first diffraction optical element, DOE, tuned to the first wavelength, wherein the first DOE is configured to diffract the first laser beam into one or more first diffracted beams at a diffraction angle; a second DOE tuned to the second wavelength, wherein the second DOE is configured to diffract the second laser beam into one or more second diffracted beams at the diffraction angle; a first beam splitter configured to reflect the one or more first diffracted beams onto a lens and a second beam splitter configured to reflect the one or more second diffracted beams onto the lens; and the lens configured to focus the one or more first diffracted beams and the one or more second diffracted beams onto an interface plane of a proximal end of a cable coupled to the surgical laser system, wherein a distal end of the cable is configured to project the one or more first diffracted beams and the one or more second diffracted beams onto a target surface; and further comprising a light source configured to emit an illumination beam onto the lens, wherein once emitted by the light source the illumination beam passes through the first beam splitter and the second beam splitter; and wherein the lens is configured to focus the illumination beam onto the interface plane.
A fusion peptide in which a peptide comprising at least one motif sequence selected from the group consisting of an amino acid sequence shown in SEQ ID NO: 1, an amino acid sequence shown in SEQ ID NO: 2, and an amino acid sequence shown in SEQ ID NO: 3 is bound to an antigenic protein or an antigenic peptide.
A method of an extensible markup language, XML, document management, XDM, server for communicating a delivery status of an XDM resource in an XDM environment, the method comprising: receiving a request for forwarding the XDM resource to a plurality of intended XDM recipient devices from an XDM client device; forwarding the XDM resource to the plurality of intended XDM recipient devices; and communicating the delivery status associated with delivery of the XDM resource to the plurality of intended XDM recipient devices to the XDM client device, wherein an attribute included in the request includes a delivery report indication that is assigned for each of the plurality of intended XDM recipient devices, and the delivery report indication represents whether the XDM client device wants to receive a delivery report from each of the plurality of intended XDM recipient devices. receiving a request for forwarding the XDM resource to a plurality of intended XDM recipient devices from an XDM client device; forwarding the XDM resource to the plurality of intended XDM recipient devices; and communicating the delivery status associated with delivery of the XDM resource to the plurality of intended XDM recipient devices to the XDM client device, wherein an attribute included in the request includes a delivery report indication that is assigned for each of the plurality of intended XDM recipient devices, and the delivery report indication represents whether the XDM client device wants to receive a delivery report from each of the plurality of intended XDM recipient devices.
Radio frequency ignition device for an internal combustion engine, characterized in that it comprises: - a power supply circuit, comprising a transformer a secondary winding (L N) of which is connected to at least one resonator having a resonance frequency greater than 1 MHz and comprising two electrodes (11, 12) which are able to generate a spark to initiate combustion in a cylinder of the engine upon an ignition command, - a measurement capacitor (C MES), connected in series between the secondary winding of the transformer and the resonator, and - a circuit for measuring the ionization current (I ION) of the combustion gases in the cylinder, connected to said measurement capacitor, said measurement circuit comprising a voltage generator with low input impedance, able to supply a polarization voltage (V POLAR) for the measurement capacitor to generate the ionization current, first means (M 1, R A, R B) of amplifying the ionization current and means (R S) of measuring a voltage (V S) representative of the amplified ionization current, which are connected to the output of the first amplification means. - a power supply circuit, comprising a transformer a secondary winding (L N) of which is connected to at least one resonator having a resonance frequency greater than 1 MHz and comprising two electrodes (11, 12) which are able to generate a spark to initiate combustion in a cylinder of the engine upon an ignition command, - a measurement capacitor (C MES), connected in series between the secondary winding of the transformer and the resonator, and - a circuit for measuring the ionization current (I ION) of the combustion gases in the cylinder, connected to said measurement capacitor, said measurement circuit comprising a voltage generator with low input impedance, able to supply a polarization voltage (V POLAR) for the measurement capacitor to generate the ionization current, first means (M 1, R A, R B) of amplifying the ionization current and means (R S) of measuring a voltage (V S) representative of the amplified ionization current, which are connected to the output of the first amplification means.
A system for synthesis of a nucleic acid molecule, the system comprising: a CMOS microchip comprising a plurality of well structures formed thereon, each well of the plurality of well structures sized to accommodate a bead for synthesis of the nucleic acid molecule, wherein each well has formed therein a first electrode at a bottom of the well that is individually controllable by a controller and a second electrode in operable connection with each well; and a lid member arranged on top of the microchip and comprising a fluidic channel formed therein to provide fluid path for the bead, wherein (i) the second electrode is placed at the bottom or along one or more sidewall of each well, or (ii) the lid member comprises the second electrode, wherein the controller is operable to provide a voltage between the first electrode and the second electrode that is sufficient to cause fluid in the well to undergo electrolysis producing one or more bubbles in the fluid to rise to a top of the well along with the bead, a bead-collection device operable to collect the bead that is removed from the well, and a first multiwell collection plate operable to receive the bead that is collected from the bead-collection device. a CMOS microchip comprising a plurality of well structures formed thereon, each well of the plurality of well structures sized to accommodate a bead for synthesis of the nucleic acid molecule, wherein each well has formed therein a first electrode at a bottom of the well that is individually controllable by a controller and a second electrode in operable connection with each well; and a lid member arranged on top of the microchip and comprising a fluidic channel formed therein to provide fluid path for the bead, wherein (i) the second electrode is placed at the bottom or along one or more sidewall of each well, or (ii) the lid member comprises the second electrode, wherein the controller is operable to provide a voltage between the first electrode and the second electrode that is sufficient to cause fluid in the well to undergo electrolysis producing one or more bubbles in the fluid to rise to a top of the well along with the bead, wherein (i) the second electrode is placed at the bottom or along one or more sidewall of each well, or (ii) the lid member comprises the second electrode, wherein the controller is operable to provide a voltage between the first electrode and the second electrode that is sufficient to cause fluid in the well to undergo electrolysis producing one or more bubbles in the fluid to rise to a top of the well along with the bead, a bead-collection device operable to collect the bead that is removed from the well, and a first multiwell collection plate operable to receive the bead that is collected from the bead-collection device.
A cable assembly adapted to provide a data acquisition system with data messages passing on a fieldbus of rolling stock, said cable assembly comprising: - a data listener adapted to listen in on said data messages passing on said fieldbus; - a data transmitter adapted to transmit said data messages to said data acquisition system; wherein said fieldbus comprises two data message lines (31;32), both data message lines (31;32) being adapted to carry a redundant differential signal; wherein said data listener is coupled to only one of said two data message lines (31;32) and wherein said data listener only listens in on said redundant differential signal only from one of said data message lines (31;32); and - an isolation module being electrically interposed between said data listener and said data transmitter and adapted to electrically isolate said data transmitter from said data listener and from said fieldbus, thereby electrically isolating said data acquisition system from said fieldbus; wherein said data listener is further adapted to convert said redundant differential signal into a TTL signal and to send said TTL signal to said isolation module; wherein said isolation module is further adapted to transmit said TTL signal received from said data listener to said data transmitter; wherein said data transmitter is further adapted to convert said TTL signal into a differential signal and to send said differential signal to said data acquisition system,said isolation module thereby limiting said data acquisition system to only listening in on said data messages passing on said fieldbus. - a data listener adapted to listen in on said data messages passing on said fieldbus; - a data transmitter adapted to transmit said data messages to said data acquisition system; - an isolation module being electrically interposed between said data listener and said data transmitter and adapted to electrically isolate said data transmitter from said data listener and from said fieldbus, thereby electrically isolating said data acquisition system from said fieldbus;