mhurhangee/patent-ind-claim-en huggingface dataset:
An edge-emitting laser (202; 400) connectable to a waveguide and to a display including a plurality of pixels , the edge-emitting laser comprising: an active gain section configured to amplify an optical power of light across a wavelength range; a reflector section optically coupled to the active gain section and configured to selectively reflect light of a selected wavelength within the wavelength range, wherein the selected wavelength is tunable via high-frequency index modulation of the reflector section , wherein the active gain section and the reflector section collectively form an optical cavity configured to lase coherent light in the selected wavelength into the waveguide and to the display; and a controller configured to modulate a voltage of a waveform applied to the reflector section to tune the selected wavelength of the coherent light lased by the optical cavity between a plurality of different lasing spectra at a frequency to produce a time average lasing spectrum of the plurality of different lasing spectra at each pixel with a bandwidth that is wider than each of the individual different lasing spectra such that fringe interference due to the coherent light propagating through the waveguide is reduced. an active gain section configured to amplify an optical power of light across a wavelength range; a reflector section optically coupled to the active gain section and configured to selectively reflect light of a selected wavelength within the wavelength range, wherein the selected wavelength is tunable via high-frequency index modulation of the reflector section , wherein the active gain section and the reflector section collectively form an optical cavity configured to lase coherent light in the selected wavelength into the waveguide and to the display; and a controller configured to modulate a voltage of a waveform applied to the reflector section to tune the selected wavelength of the coherent light lased by the optical cavity between a plurality of different lasing spectra at a frequency to produce a time average lasing spectrum of the plurality of different lasing spectra at each pixel with a bandwidth that is wider than each of the individual different lasing spectra such that fringe interference due to the coherent light propagating through the waveguide is reduced.
A method of controlling a Proximity-based Service, ProSe service, in an eNB of a communication system, the method comprising the steps of: A. sending in a shared cell a first public land mobile network, PLMN, identifier to a user equipment, UE, of the shared cell, wherein the first PLMN identifier indicates that a UE of the first PLMN can carry out the ProSe service in the shared cell controlled by the eNB and shared by the first PLMN and other PLMN.
Plastisol composition suitable for sealing of metal parts comprising - 20 to 40 wt% PVC based polymer, comprising - a PVC homo-polymer, preferably an emulsion-type PVC homo-polymer, and - a suspension-type PVC co-polymer, wherein the suspension-type PVC co-polymer comprises vinyl chloride co-monomer units and vinyl acetate co-monomer units; - 20 to 50 wt% of one or more plasticizers, preferably esters; - 0.5 to 5 wt% of amino and/or amido-functional compounds and/or a blocked polyurethane; wherein the suspension-type PVC co-polymer comprises at least 10 %, preferably between 11 and 16 %, more preferably between 12 and 14 % vinyl acetate co-monomer units and wherein the suspension-type PVC co-polymer is a resin with a mean particle diameter D 50 of 0.8 to 1.2 μm according to ISO 1624:2001. - 20 to 40 wt% PVC based polymer, comprising - a PVC homo-polymer, preferably an emulsion-type PVC homo-polymer, and - a suspension-type PVC co-polymer, wherein the suspension-type PVC co-polymer comprises vinyl chloride co-monomer units and vinyl acetate co-monomer units; - a PVC homo-polymer, preferably an emulsion-type PVC homo-polymer, and - a suspension-type PVC co-polymer, wherein the suspension-type PVC co-polymer comprises vinyl chloride co-monomer units and vinyl acetate co-monomer units; - 20 to 50 wt% of one or more plasticizers, preferably esters; - 0.5 to 5 wt% of amino and/or amido-functional compounds and/or a blocked polyurethane;
An imaging device comprising a photoelectric conversion unit in which a first electrode , a photoelectric conversion layer , and a second electrode are stacked, wherein an inorganic oxide semiconductor material layer is formed between the first electrode and the photoelectric conversion layer , and the inorganic oxide semiconductor material layer contains indium atoms, gallium atoms, and tin atoms. a photoelectric conversion unit in which a first electrode , a photoelectric conversion layer , and a second electrode are stacked, wherein an inorganic oxide semiconductor material layer is formed between the first electrode and the photoelectric conversion layer , and the inorganic oxide semiconductor material layer contains indium atoms, gallium atoms, and tin atoms.
A semiconductor IQ modulator including at least two or more Mach-Zehnder, MZ, modulators configured with differential transmission lines in which two signal lines for transmitting radio frequency, RF, modulation signals comprising differential signals are coupled, wherein each of the differential transmission lines has an SS line configuration that one of the two signal lines for carrying a signal and the other one of the two signal lines for carrying a signal of opposite polarity constitute the differential transmission line, the SS line configuration consists of a straight lead-out line, a phase modulation unit, and a termination resistor , the phase modulation unit includes the differential transmission lines having a differential capacitively loaded traveling-wave electrode, CL-TWE, structure as two phase modulation electrodes , the two phase modulation electrodes of the phase modulation units between adjacent MZ modulators are spaced apart by at least 400 μm or more, a distance between main signal lines of the differential CL-TWE structures is 60 μm or less, a DC phase adjustment electrode for adjusting an operating point of the MZ modulator and a PAD for applying voltage to the DC phase adjustment electrode are provided between the phase modulation unit on an I channel side and the phase modulation unit on a Q channel side, the DC phase adjustment electrode is spaced apart from the phase modulation electrode of the phase modulation unit by at least 80 μm or more, and near-end and far-end crosstalk characteristics of a differential signal between adjacent channels are -30 dB or less in a required frequency bandwidth. each of the differential transmission lines has an SS line configuration that one of the two signal lines for carrying a signal and the other one of the two signal lines for carrying a signal of opposite polarity constitute the differential transmission line, the SS line configuration consists of a straight lead-out line, a phase modulation unit, and a termination resistor , the phase modulation unit includes the differential transmission lines having a differential capacitively loaded traveling-wave electrode, CL-TWE, structure as two phase modulation electrodes , the two phase modulation electrodes of the phase modulation units between adjacent MZ modulators are spaced apart by at least 400 μm or more, a distance between main signal lines of the differential CL-TWE structures is 60 μm or less, a DC phase adjustment electrode for adjusting an operating point of the MZ modulator and a PAD for applying voltage to the DC phase adjustment electrode are provided between the phase modulation unit on an I channel side and the phase modulation unit on a Q channel side, the DC phase adjustment electrode is spaced apart from the phase modulation electrode of the phase modulation unit by at least 80 μm or more, and near-end and far-end crosstalk characteristics of a differential signal between adjacent channels are -30 dB or less in a required frequency bandwidth.
Method for selecting a, so-called network slice, set (TR1, TR2, TR3) of functions of a communications infrastructure , for the conveying of data relating to at least one application (Appl, App2, App3, App4, App5) installed on a user terminal attached to said infrastructure , implemented by the terminal and comprising: - a step of sending, to a rules management entity , a request message comprising at least one application identifier, - a step of receiving, from the rules management entity , a response message comprising at least one rule relating to the network slice (TR1, TR2, TR3) associated with the at least one identifier, the at least one rule corresponding to the parameter Single - Network Slice Selection Assistance Information identifying said network slice, - a step of selecting the network slice (TR1, TR2, TR3) as a function of the at least one rule received. - a step of sending, to a rules management entity , a request message comprising at least one application identifier, - a step of receiving, from the rules management entity , a response message comprising at least one rule relating to the network slice (TR1, TR2, TR3) associated with the at least one identifier, the at least one rule corresponding to the parameter Single - Network Slice Selection Assistance Information identifying said network slice, - a step of selecting the network slice (TR1, TR2, TR3) as a function of the at least one rule received.
A communication method, implemented by a first access network node , comprising: obtaining from a second access network node , endpoint information of a second transmission path on the second access network node side, wherein the second transmission path is a transmission path that is between the second access network node and a third access network node; obtaining from the third access network node, endpoint information of the second transmission path on the third access network node side; sending to the second access network node , the endpoint information of the second transmission path on the third access network node side; and sending to the third access network node, the endpoint information of the second transmission path on the second access network node side, wherein the first access network node comprises function of a central unit-control plane, CU-CP, the second access network node comprises function of a control unit-user plane, CU-UP, and the third access network node comprises a distributed unit, DU, and wherein the CU-CP, the CU-UP and the DU are included in an access network device. obtaining from a second access network node , endpoint information of a second transmission path on the second access network node side, wherein the second transmission path is a transmission path that is between the second access network node and a third access network node; obtaining from the third access network node, endpoint information of the second transmission path on the third access network node side; sending to the second access network node , the endpoint information of the second transmission path on the third access network node side; and sending to the third access network node, the endpoint information of the second transmission path on the second access network node side, wherein the first access network node comprises function of a central unit-control plane, CU-CP, the second access network node comprises function of a control unit-user plane, CU-UP, and the third access network node comprises a distributed unit, DU, and wherein the CU-CP, the CU-UP and the DU are included in an access network device.
A method for determining a clearance (L) of an electromechanical brake , in particular of a commercial vehicle, comprising the steps: - activating a clearance determination cycle for the brake , - moving an electromechanical brake actuator by means of a drive motor (A) to a first end position (E1), in which the brake is in a non-applied state, - moving the electromechanical brake actuator by means of the drive motor (A) toward a second end position (E2), wherein the movement of the brake actuator applies at least one brake pad of the brake toward a brake disk, wherein the method is characterized by the following steps: - continuously determining a rotor position (φ) and/or a motor current (i) of the drive motor (A) during the movement of the brake actuator toward the second end position (E2), - determining a contact position (K), in which the brake pad comes into contact with the brake disk, on the basis of the rotor position (φ) and/or of the motor current (i), - determining a clearance (L) and/or a degree of brake pad wear (V B ) on the basis of the determined contact position (K). - activating a clearance determination cycle for the brake , - moving an electromechanical brake actuator by means of a drive motor (A) to a first end position (E1), in which the brake is in a non-applied state, - moving the electromechanical brake actuator by means of the drive motor (A) toward a second end position (E2), wherein the movement of the brake actuator applies at least one brake pad of the brake toward a brake disk, wherein the method is characterized by the following steps: - continuously determining a rotor position (φ) and/or a motor current (i) of the drive motor (A) during the movement of the brake actuator toward the second end position (E2), - determining a contact position (K), in which the brake pad comes into contact with the brake disk, on the basis of the rotor position (φ) and/or of the motor current (i), - determining a clearance (L) and/or a degree of brake pad wear (V B ) on the basis of the determined contact position (K).
A vehicle seat assembly , comprising: a support structure including a first support part coupled to a second support part at an articulating joint (116; 158); and a pneumatic actuator positioned within the support structure having at least one pneumatic chamber adjustable by inflating and deflating to articulate the articulating joint (116; 158) to cause relative movement between the first support part and the second support part to change a position of the support structure; characterized in that the vehicle seat assembly further comprises a range limiter coupled to the first and second support parts for limiting travel of the first support part in opposite directions. a support structure including a first support part coupled to a second support part at an articulating joint (116; 158); and a pneumatic actuator positioned within the support structure having at least one pneumatic chamber adjustable by inflating and deflating to articulate the articulating joint (116; 158) to cause relative movement between the first support part and the second support part to change a position of the support structure; characterized in that the vehicle seat assembly further comprises a range limiter coupled to the first and second support parts for limiting travel of the first support part in opposite directions.
An interior part for a vehicle , comprising: a foamed plastic body , the foamed plastic body comprising: an outboard side configured to face away from an interior cabin of the vehicle; an inboard side configured to face toward the interior cabin of the vehicle; and an edge portion located between the outboard side and the inboard side, characterized by the edge portion comprising: an outboard side extension ; a projecting freeze section ; and a core-back expansion radius located adjacent to the projecting freeze section, and by the foamed plastic body having a plurality of microcellular pores . an outboard side configured to face away from an interior cabin of the vehicle; an inboard side configured to face toward the interior cabin of the vehicle; and an edge portion located between the outboard side and the inboard side, characterized by the edge portion comprising: an outboard side extension ; a projecting freeze section ; and a core-back expansion radius located adjacent to the projecting freeze section, and by an outboard side extension ; a projecting freeze section ; and a core-back expansion radius located adjacent to the projecting freeze section, and by the foamed plastic body having a plurality of microcellular pores .
A vehicular control unit , comprising: a touch sensor on which a predetermined area and a central area (N) of the touch sensor are set; a tactile sensation presentation unit for presenting a tactile sensation to a user via the touch sensor ; a pressing detector for detecting pressing against the touch sensor ; and a controller that enables operation of a vehicle mounted apparatus in response to an input to the touch sensor when the pressing is equal to or higher than a first pressure; wherein the controller is configured to when the operation of the vehicle mounted apparatus is enabled, within a first time period, cause the tactile sensation presentation unit to present a tactile sensation corresponding to enablement of the operation of the vehicle mounted apparatus ; characterised in that : in the case of a first slide from any position included in the predetermined area and in a direction towards the central area (N) of the touch sensor, cause the tactile sensation presentation unit to present a tactile sensation corresponding to the first slide; and in the case of a second slide from any position included in the predetermined area and in a direction opposite to the central area (N) of the touch sensor, cause the tactile sensation presentation unit to present a tactile sensation corresponding to the second slide. a touch sensor on which a predetermined area and a central area (N) of the touch sensor are set; a tactile sensation presentation unit for presenting a tactile sensation to a user via the touch sensor ; a pressing detector for detecting pressing against the touch sensor ; and a controller that enables operation of a vehicle mounted apparatus in response to an input to the touch sensor when the pressing is equal to or higher than a first pressure; wherein the controller is configured to when the operation of the vehicle mounted apparatus is enabled, within a first time period, cause the tactile sensation presentation unit to present a tactile sensation corresponding to enablement of the operation of the vehicle mounted apparatus ; characterised in that : in the case of a first slide from any position included in the predetermined area and in a direction towards the central area (N) of the touch sensor, cause the tactile sensation presentation unit to present a tactile sensation corresponding to the first slide; and in the case of a second slide from any position included in the predetermined area and in a direction opposite to the central area (N) of the touch sensor, cause the tactile sensation presentation unit to present a tactile sensation corresponding to the second slide. in the case of a first slide from any position included in the predetermined area and in a direction towards the central area (N) of the touch sensor, cause the tactile sensation presentation unit to present a tactile sensation corresponding to the first slide; and in the case of a second slide from any position included in the predetermined area and in a direction opposite to the central area (N) of the touch sensor, cause the tactile sensation presentation unit to present a tactile sensation corresponding to the second slide.
A microcontroller comprising: a plurality of port logic each configured to couple an external pin (211; 930) through a controllable switch (304; B) of the port logic with an analog bus (205; 932), wherein the controllable switches (304; B) of the plurality of port logics form a multiplexer configured to select which external pin is coupled with the analog bus ; at least one pull up/down logic (601; D, F) connected with at least one of the external pin ; a sample and hold pull up/down circuit (204; C, E; C, D) coupled with the analog bus (205; 932) configured to charge or discharge the analog bus (205; 932); an analog to digital converter, ADC, (202; 918) coupled with the analog bus (205; 932) wherein the ADC (202; 918) comprises a main sample and hold capacitor (203; 916); and at least one additional sample and hold capacitance (208; 906) which is programmably coupled or decoupled with the analog bus , wherein when selected, the at least one additional sample and hold capacitance enlarges the capacitance of the sample and hold capacitor during a sample phase of the analog to digital conversion, wherein the microcontroller further comprises an additional external pin (213; 928) coupled with the analog bus (205; 932), wherein the additional external pin is coupled through a controllable switch (214; 306; G) with the analog bus (205; 932) and is configured to be coupled with an additional external sample and hold capacitor . a plurality of port logic each configured to couple an external pin (211; 930) through a controllable switch (304; B) of the port logic with an analog bus (205; 932), wherein the controllable switches (304; B) of the plurality of port logics form a multiplexer configured to select which external pin is coupled with the analog bus ; at least one pull up/down logic (601; D, F) connected with at least one of the external pin ; a sample and hold pull up/down circuit (204; C, E; C, D) coupled with the analog bus (205; 932) configured to charge or discharge the analog bus (205; 932); an analog to digital converter, ADC, (202; 918) coupled with the analog bus (205; 932) wherein the ADC (202; 918) comprises a main sample and hold capacitor (203; 916); and at least one additional sample and hold capacitance (208; 906) which is programmably coupled or decoupled with the analog bus , wherein when selected, the at least one additional sample and hold capacitance enlarges the capacitance of the sample and hold capacitor during a sample phase of the analog to digital conversion, wherein the microcontroller further comprises an additional external pin (213; 928) coupled with the analog bus (205; 932), wherein the additional external pin is coupled through a controllable switch (214; 306; G) with the analog bus (205; 932) and is configured to be coupled with an additional external sample and hold capacitor .
Brushless electric machine with permanent magnets comprising a drive shaft having fixed thereto a rotor yoke of the magnetic system, on which yoke are set firmly permanent magnets , and the rotor yoke through the shaft is supported on bearings in front and rear end bells , between them a housing is closed, wherein is fixed a stator with a plurality of slots on its inner surface and a three-phase winding is laid therein, and the said rotor yoke is divided in equal parts , wherein on any two adjacent edges of said parts of the rotor yoke is formed a common mounting pad , which is disposed in a plane perpendicular to the radius passing through the middle between the adjacent edges , forming said common mounting pads , and through the middle of the permanent magnets , which are mounted immovably on the common pads , wherein the adjacent edges of the parts are tapered and between them are formed void spaces , characterized in that the said equal parts are fixed on one or more non- magnetic discs which are attached immovably on the said shaft , and the said void spaces are formed with trapezoidal cross-section with the small base A1 near the permanent magnets and the large base A2 bounded by said non-magnetic discs and the ratio of the larger base A2 towards the small base A1 is greater than 10.