mhurhangee/ep-ind-claims huggingface dataset:
A method for routing telecommunication connections, TC connections, to a mobile communications terminal located in the reception area of a current mobile network that differs from a home network of the mobile communications terminal, wherein the mobile communications terminal firstly has a first SIM card, which is assigned to the home network and to which is assigned a first telephone number, and wherein the method comprises the following steps: - replacing the first SIM card in the mobile communications terminal by a second SIM card, which is assigned to the current mobile network and to which is assigned a second telephone number, - actuated by replacing the SIM card (2, 3), automatically generating in the mobile communications terminal a message comprising at least: - the second telephone number, which is assigned to the second SIM card, and - at least one piece of information identifying the replaced SIM card, - sending the message from the mobile communications terminal to a mobile communications gateway, - routing each TC connection addressed to the first telephone number to the mobile communications gateway, - assigning such a TC connection to the second SIM card based on the information contained in the message and/or to the second telephone number, which is assigned to the second SIM card, and - forwarding such a TC connection from the mobile communications gateway via at least one communications network to the mobile communications terminal equipped with the second SIM card using the second telephone number contained in the message. - replacing the first SIM card in the mobile communications terminal by a second SIM card, which is assigned to the current mobile network and to which is assigned a second telephone number, - actuated by replacing the SIM card (2, 3), automatically generating in the mobile communications terminal a message comprising at least: - the second telephone number, which is assigned to the second SIM card, and - at least one piece of information identifying the replaced SIM card, - sending the message from the mobile communications terminal to a mobile communications gateway, - routing each TC connection addressed to the first telephone number to the mobile communications gateway, - assigning such a TC connection to the second SIM card based on the information contained in the message and/or to the second telephone number, which is assigned to the second SIM card, and - forwarding such a TC connection from the mobile communications gateway via at least one communications network to the mobile communications terminal equipped with the second SIM card using the second telephone number contained in the message.
A method for preparing a multi-core cluster fiber connector, comprising the following steps: Step 1, arranging a plurality of metalized fibers to form a fiber bundle; Step 2, cleaning the surface of the fiber bundle, and aligning the front end faces of all fibers in the fiber bundle; Step 3, immersing the front end of the fiber bundle into a metal slurry to make the metal slurry coat over the front end of the fiber bundle; Step 4, putting a first clamp on the fiber bundle; Step 5, inserting the fiber bundle processed by step 3 into a ferrule; Step 6, providing a high-frequency coil around the fiber bundle so that the ferrule is located between the fiber bundle and the high-frequency coil; Step 7, putting a second clamp on the fiber bundle; and locating the ferrule and the high-frequency coil between the first clamp and the second clamp; Step 8, energizing the high-frequency coil to heat the metal slurry filled between the fiber bundle and the ferrule, and to volatilize organic solvent in the metal slurry, so that the hot-melted metal can serve as a seal between the fiber bundle and the ferrule. Step 1, arranging a plurality of metalized fibers to form a fiber bundle; Step 2, cleaning the surface of the fiber bundle, and aligning the front end faces of all fibers in the fiber bundle; Step 3, immersing the front end of the fiber bundle into a metal slurry to make the metal slurry coat over the front end of the fiber bundle; Step 4, putting a first clamp on the fiber bundle; Step 5, inserting the fiber bundle processed by step 3 into a ferrule; Step 6, providing a high-frequency coil around the fiber bundle so that the ferrule is located between the fiber bundle and the high-frequency coil; Step 7, putting a second clamp on the fiber bundle; and locating the ferrule and the high-frequency coil between the first clamp and the second clamp; Step 8, energizing the high-frequency coil to heat the metal slurry filled between the fiber bundle and the ferrule, and to volatilize organic solvent in the metal slurry, so that the hot-melted metal can serve as a seal between the fiber bundle and the ferrule.
A method of controlling a power inverter, comprising: generating a set of pulse width modulation signals for each of a set of six pulse width modulation segments, the set of pulse width modulation signals comprising a set of three phase signals (U, V, W) controlling a set of three phase switches; wherein each pulse width modulation segment is configured to consist of five clock periods or cycles; configuring the set of pulse width modulation signals to maintain at least one of the set of three phase signals (U, V, W) to remain at a zero state for at least two consecutive modulation segments in the set of six pulse width modulation segments; and generating a set of three phase alternating current outputs based on the set of six pulse width modulation segments; wherein generating the set of three-phase alternating current outputs comprises charging a set of bootstrap capacitors coupled to the set of three phase switches respectively driven by the set of three phase signals (U, V, W). generating a set of pulse width modulation signals for each of a set of six pulse width modulation segments, the set of pulse width modulation signals comprising a set of three phase signals (U, V, W) controlling a set of three phase switches; wherein each pulse width modulation segment is configured to consist of five clock periods or cycles; configuring the set of pulse width modulation signals to maintain at least one of the set of three phase signals (U, V, W) to remain at a zero state for at least two consecutive modulation segments in the set of six pulse width modulation segments; and generating a set of three phase alternating current outputs based on the set of six pulse width modulation segments; wherein generating the set of three-phase alternating current outputs comprises charging a set of bootstrap capacitors coupled to the set of three phase switches respectively driven by the set of three phase signals (U, V, W).
A liquid crystal optical modulation device configured to perform light control drive of a liquid crystal panel that is in an opaque and diffused state when no voltage is applied thereto, the device comprising: an optical modulation control section configured to switch and set a frequency of a drive voltage in the form of a rectangular wave which is to be applied to the liquid crystal panel, in accordance with a first range and a second range, higher than the first range, of the drive voltage, wherein the optical modulation control section is configured to switch and set the frequency of the drive voltage so as to be decreased in conjunction with an increase of the drive voltage from the first range to the second range; wherein the device is configured to compare the drive voltage and a preset threshold separating the first range and the second range of the drive voltage, wherein the optical modulation control section is configured to switch and set the frequency of the drive voltage to a first fixed value of the frequency associated with the first range or to a second fixed value associated with the second range in accordance with a comparison result between the drive voltage and the preset threshold, wherein the first fixed value is higher than the second fixed value. an optical modulation control section configured to switch and set a frequency of a drive voltage in the form of a rectangular wave which is to be applied to the liquid crystal panel, in accordance with a first range and a second range, higher than the first range, of the drive voltage, wherein the optical modulation control section is configured to switch and set the frequency of the drive voltage so as to be decreased in conjunction with an increase of the drive voltage from the first range to the second range; wherein the device is configured to compare the drive voltage and a preset threshold separating the first range and the second range of the drive voltage, wherein the optical modulation control section is configured to switch and set the frequency of the drive voltage to a first fixed value of the frequency associated with the first range or to a second fixed value associated with the second range in accordance with a comparison result between the drive voltage and the preset threshold, wherein the first fixed value is higher than the second fixed value.
Method for operating a luminaire comprising a plurality of individually controllable units for light emission, the luminaire further comprising a control unit, a plurality of external brightness setpoint values being transmitted to the control unit of the luminaire and received by the control unit, and a relevant internal brightness setpoint value being established by the control device for each of the individually controllable units for light emission, in each case on the basis of all received external brightness setpoint values, taking into account associated weighting factors of the relevant individually controllable unit, each received external brightness setpoint value being multiplied by a relevant associated weighting factor (m ij) of the associated weighting factors to establish the relevant internal brightness setpoint value for each of the individually controllable units for light emission, and the relevant internal brightness setpoint value being the sum of the weighted external brightness setpoint values, each of the plurality of individually controllable units for light emission being controlled by the control unit in accordance with the relevant established internal brightness setpoint value, characterized in that the weighting factors are summarized in the form of a weighting matrix and stored in the control unit of the luminaire. the luminaire further comprising a control unit, a plurality of external brightness setpoint values being transmitted to the control unit of the luminaire and received by the control unit, and a relevant internal brightness setpoint value being established by the control device for each of the individually controllable units for light emission, in each case on the basis of all received external brightness setpoint values, taking into account associated weighting factors of the relevant individually controllable unit, each received external brightness setpoint value being multiplied by a relevant associated weighting factor (m ij) of the associated weighting factors to establish the relevant internal brightness setpoint value for each of the individually controllable units for light emission, and the relevant internal brightness setpoint value being the sum of the weighted external brightness setpoint values, each of the plurality of individually controllable units for light emission being controlled by the control unit in accordance with the relevant established internal brightness setpoint value, characterized in that the weighting factors are summarized in the form of a weighting matrix and stored in the control unit of the luminaire.
An ophthalmic implant comprising an antimicrobial polymer, wherein the antimicrobial polymer comprises at least one antimicrobial monomer; and at least one other monomer selected from an acrylic, silicone, vinyl and collagen monomer.
A process for producing an eyelet for a biomedical electrode, comprising: hot pressing an electrically conductive thermoplastic or elastomeric resin to produce a film comprising a web of eyelets, each eyelet comprising a post (170, 405) protruding from a first face of the film and a flange at a second face of the film; applying a coating of a non-polarizable conductive material on to a contact face of the flange; and, cutting the film to produce the eyelets separated from the web. hot pressing an electrically conductive thermoplastic or elastomeric resin to produce a film comprising a web of eyelets, each eyelet comprising a post (170, 405) protruding from a first face of the film and a flange at a second face of the film; applying a coating of a non-polarizable conductive material on to a contact face of the flange; and, cutting the film to produce the eyelets separated from the web.
Method for producing a foamed meat or fish product, comprising: - feeding a pumpable raw material, containing comminuted meat or fish and strand-like components of connective tissue to a dispersing apparatus having a chamber and a cylindrical rotor positioned therein, which has a number of cavities arranged on its circumference for creating cavitation, - feeding a gas to the dispersing apparatus, - operating the dispersing apparatus while creating cavitations and dispersing the gas fed in, the strand-like components of connective tissue being fed through the chamber, and creating a foamed meet or fish product containing strand like components of connective tissue, and - sterilizing the foamed product at a temperature of at least 110° C for at least 10 minutes. - feeding a pumpable raw material, containing comminuted meat or fish and strand-like components of connective tissue to a dispersing apparatus having a chamber and a cylindrical rotor positioned therein, which has a number of cavities arranged on its circumference for creating cavitation, - feeding a gas to the dispersing apparatus, - operating the dispersing apparatus while creating cavitations and dispersing the gas fed in, the strand-like components of connective tissue being fed through the chamber, and creating a foamed meet or fish product containing strand like components of connective tissue, and - sterilizing the foamed product at a temperature of at least 110° C for at least 10 minutes.
A secure element coupled to a system-on-chip, hereinafter referred to as SoC, the secure element comprising: an internal memory; virtual secure direct memory access, hereinafter referred to as DMA, circuitry configured to perform a secure operation using an external memory connected to the SoC in association with the internal memory; secure element interface circuitry configured to output first secure data and a write request generated by the virtual secure DMA circuitry to the SoC; and a memory management unit, MMU, configured to manage available pages of the internal memory using a translation lookaside buffer, TLB; wherein the virtual secure DMA circuitry is configured to perform the secure operation based on the absence of available pages determined using the MMU and the TLB, the first secure data being stored in the external memory. an internal memory; virtual secure direct memory access, hereinafter referred to as DMA, circuitry configured to perform a secure operation using an external memory connected to the SoC in association with the internal memory; secure element interface circuitry configured to output first secure data and a write request generated by the virtual secure DMA circuitry to the SoC; and a memory management unit, MMU, configured to manage available pages of the internal memory using a translation lookaside buffer, TLB; wherein the virtual secure DMA circuitry is configured to perform the secure operation based on the absence of available pages determined using the MMU and the TLB, the first secure data being stored in the external memory.
A composition for the transdermal delivery of amphetamine in the form of a flexible finite system for topical application, comprising a polymer matrix comprising amphetamine or lisdexamfetamine, or a pharmaceutically acceptable salt thereof, wherein the polymer matrix comprises a polymer and an antioxidant selected from butylated hydroxytoluene, butylated hydroxyanisole, and combinations thereof, and wherein the polymer is free of vinyl acetate moieties and is selected from the group consisting of acrylic polymers that are free of vinyl acetate moieties and made from one or more monomers selected from the group consisting of butyl acrylate, methyl acrylate, methyl methacrylate, acrylic acid, ethyl hexyl acrylate, hydroxy ethyl acrylate, and octyl acrylamide, and rubber-based polymers selected from the group consisting of polyisobutylene polymers and styrene-isoprene-styrene block copolymers, and mixtures thereof.
A voltage converter comprising: a transformer comprising a primary winding, a first secondary winding, and a second secondary winding; a first transistor connected between a first terminal of the first secondary winding and electrical ground; a second transistor connected between a second terminal of the second secondary winding and electrical ground; an inductor connected to a center tap of the transformer between the first secondary winding and the second secondary winding; a capacitor that is connectable along a current path to the transformer that includes the inductor via at least one of the first transistor or the second transistor; and a control system configured to generate, based on characteristics of current through the inductor, pulse-width modulated control signals to control operation of the first transistor and the second transistor to produce a voltage at the primary winding based on a voltage across the capacitor; the voltage converter is characterised in that: the voltage converter comprises a buck converter; and the control system is configured to control the operation of the first transistor and the second transistor to produce the voltage at the primary winding based on the voltage across the capacitor by controlling the buck converter to operate as a boost converter. a transformer comprising a primary winding, a first secondary winding, and a second secondary winding; a first transistor connected between a first terminal of the first secondary winding and electrical ground; a second transistor connected between a second terminal of the second secondary winding and electrical ground; an inductor connected to a center tap of the transformer between the first secondary winding and the second secondary winding; a capacitor that is connectable along a current path to the transformer that includes the inductor via at least one of the first transistor or the second transistor; and a control system configured to generate, based on characteristics of current through the inductor, pulse-width modulated control signals to control operation of the first transistor and the second transistor to produce a voltage at the primary winding based on a voltage across the capacitor; the voltage converter is characterised in that: the voltage converter comprises a buck converter; and the control system is configured to control the operation of the first transistor and the second transistor to produce the voltage at the primary winding based on the voltage across the capacitor by controlling the buck converter to operate as a boost converter. the voltage converter comprises a buck converter; and the control system is configured to control the operation of the first transistor and the second transistor to produce the voltage at the primary winding based on the voltage across the capacitor by controlling the buck converter to operate as a boost converter.
A dishwasher comprising: a chassis; at least one electrical or electronic component; a controller; at least one electrical connector electrically coupling the controller to the at least one electrical or electronic component; and an integrated barrier member (170; 270) mechanically connected to the chassis or integrally formed with the chassis, wherein the integrated barrier member (170; 270) comprises a first plate (175; 275) and a second plate (195; 295), wherein the second plate (195; 295) is positioned above the first plate (175; 275), wherein the first plate (175; 275) and the second plate (195; 295) define in combination a receptacle, and wherein the at least one electrical connector is accommodated within the receptacle, characterised by further comprising a radio frequency interference filter mechanically connected to the chassis, wherein the radio frequency interference filter is positioned beneath the first plate (175; 275). a chassis; at least one electrical or electronic component; a controller; at least one electrical connector electrically coupling the controller to the at least one electrical or electronic component; and an integrated barrier member (170; 270) mechanically connected to the chassis or integrally formed with the chassis, wherein the integrated barrier member (170; 270) comprises a first plate (175; 275) and a second plate (195; 295), wherein the second plate (195; 295) is positioned above the first plate (175; 275), wherein the first plate (175; 275) and the second plate (195; 295) define in combination a receptacle, and wherein the at least one electrical connector is accommodated within the receptacle, characterised by further comprising a radio frequency interference filter mechanically connected to the chassis, wherein the radio frequency interference filter is positioned beneath the first plate (175; 275).
A guidewire retrieval system for use in retrieving a guidewire from a body lumen, the guidewire retrieval system comprising: a retrieval catheter configured for insertion into the body lumen and having proximal and distal end portions, a length extending between the proximal and distal end portions (12a,12b), and a guidewire retrieval lumen extending lengthwise of the retrieval catheter for receiving the guidewire therein, the guidewire retrieval lumen having an axis (Al); and a guidewire capture device configured for insertion into the body lumen and having an axis about which the guidewire capture device is rotatable within the body lumen, the guidewire capture device including a hoop member defining a hoop passage for receiving the guidewire therein, and a hook member (28,30) extending inwardly from the hoop member toward the axis of the guidewire capture device, wherein the hook member (28,30) is configured to capture the guidewire received in the hoop passage as the guidewire capture device is rotated about its axis, wherein the hook member (28,30) includes a bent end adjacent the axis of the guidewire capture device, wherein the bent end defines a capture channel configured to capture the guidewire, wherein the capture channel has a channel axis that is generally coaxial with the axis of the guidewire retrieval lumen such that the guidewire is aligned with the guidewire retrieval lumen when the guidewire is captured in the capture channel. a retrieval catheter configured for insertion into the body lumen and having proximal and distal end portions, a length extending between the proximal and distal end portions (12a,12b), and a guidewire retrieval lumen extending lengthwise of the retrieval catheter for receiving the guidewire therein, the guidewire retrieval lumen having an axis (Al); and a guidewire capture device configured for insertion into the body lumen and having an axis about which the guidewire capture device is rotatable within the body lumen, the guidewire capture device including a hoop member defining a hoop passage for receiving the guidewire therein, and a hook member (28,30) extending inwardly from the hoop member toward the axis of the guidewire capture device, wherein the hook member (28,30) is configured to capture the guidewire received in the hoop passage as the guidewire capture device is rotated about its axis, wherein the hook member (28,30) includes a bent end adjacent the axis of the guidewire capture device, wherein the bent end defines a capture channel configured to capture the guidewire, wherein the capture channel has a channel axis that is generally coaxial with the axis of the guidewire retrieval lumen such that the guidewire is aligned with the guidewire retrieval lumen when the guidewire is captured in the capture channel.