mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: providing an interface between a user plane function, UPF, instance ) of a mobile network and a tunnel router endpoint of a software-defined wide area network, SD-WAN, fabric , the UPF instance being part of a network slice instance associated with an enterprise of the SD-WAN which comprises an enterprise SD-WAN; maintaining a plurality of mappings between policies associated with different QoS flows via the UPF instance and SD-WAN policies associated with different virtual private networks, VPNs, of the SD-WAN fabric provided at the tunnel router endpoint; for each application of a plurality of applications of a user equipment, UE , that is associated with a selected one of the SD-WAN policies, sending to a session management function, SMF , instance a corresponding matching one of the policy configurations associated with one of the plurality of different QoS flows according to one of the plurality of policy mappings, the SMF being arranged to configure the UPF instance of the network slice instance that is allocated for use by the enterprise network with the corresponding matching policy configuration for communications associated with the application of the LTE, and facilitating communications for user equipment, UE, in the mobile network across the SD-WAN fabric based on the policy mappings and the policy configuration at the UPF instance. providing an interface between a user plane function, UPF, instance ) of a mobile network and a tunnel router endpoint of a software-defined wide area network, SD-WAN, fabric , the UPF instance being part of a network slice instance associated with an enterprise of the SD-WAN which comprises an enterprise SD-WAN; maintaining a plurality of mappings between policies associated with different QoS flows via the UPF instance and SD-WAN policies associated with different virtual private networks, VPNs, of the SD-WAN fabric provided at the tunnel router endpoint; for each application of a plurality of applications of a user equipment, UE , that is associated with a selected one of the SD-WAN policies, sending to a session management function, SMF , instance a corresponding matching one of the policy configurations associated with one of the plurality of different QoS flows according to one of the plurality of policy mappings, the SMF being arranged to configure the UPF instance of the network slice instance that is allocated for use by the enterprise network with the corresponding matching policy configuration for communications associated with the application of the LTE, and facilitating communications for user equipment, UE, in the mobile network across the SD-WAN fabric based on the policy mappings and the policy configuration at the UPF instance.
A speed reducer comprising: a pair of worm shafts having teeth angled in opposite directions to each other, the worm shafts being arranged parallel to each other and being configured to be rotated in a same direction as each other by a driving unit ; a driven shaft mounted between the worm shafts so as to extend in a direction perpendicular to the worm shafts ; a pair of ring gears mounted so as to face each other, with the worm shafts interposed therebetween, the ring gears being fixed to the driven shaft ; a plurality worm wheels configured to mesh with the outer sides of the corresponding worm shafts , the worm wheel having shaft gears formed at both sides thereof so as to mesh with the ring gears ; and a rotary member connected to the driven shaft to output rotational force with a speed reduced, characterized in that the speed reducer further comprises: an auxiliary speed reduction unit provided at the driven shaft , wherein rotational force is transmitted to the rotary member, with a speed reduced, by the auxiliary speed reduction unit, and characterized in that the auxiliary speed reduction unit is configured as a harmonic gear. a pair of worm shafts having teeth angled in opposite directions to each other, the worm shafts being arranged parallel to each other and being configured to be rotated in a same direction as each other by a driving unit ; a driven shaft mounted between the worm shafts so as to extend in a direction perpendicular to the worm shafts ; a pair of ring gears mounted so as to face each other, with the worm shafts interposed therebetween, the ring gears being fixed to the driven shaft ; a plurality worm wheels configured to mesh with the outer sides of the corresponding worm shafts , the worm wheel having shaft gears formed at both sides thereof so as to mesh with the ring gears ; and a rotary member connected to the driven shaft to output rotational force with a speed reduced, characterized in that an auxiliary speed reduction unit provided at the driven shaft , wherein rotational force is transmitted to the rotary member, with a speed reduced, by the auxiliary speed reduction unit,
A level shifter circuit having a plurality of outputs (CLK1, CLKB1, CLK2, CLKB2) for providing signals to respective capacitive loads and having circuits for sharing charge stored in the respective capacitive loads between the outputs, the level shifter circuit comprising: a first pair of clock generating circuits (M1a, M2a, M1c, M2c) connected to a first pair of outputs (CLK1, CLK2), respectively ; a second pair of clock generating circuits (M1b, M2b, M1d, M2d) connected to a second pair of outputs (CLKB1, CLKB2), respectively; a single resistor (Rcs) connectable in the circuit with all of the outputs for controlling a slope of charge sharing between the outputs; a first switch (M3a) adapted to selectively connect one output of the first pair of outputs (CLK1) directly with a first end (CS1) of the single resistor (Rcs); a second switch (M3c) adapted to selectively connect the other output of the first pair of outputs (CLK2) directly with the first end (CS1) of the single resistor (Rcs); characterized by further comprising: a third switch (M3b) adapted to selectively connect one output of the second pair of outputs (CLKB1) directly with a second end (CS2) of the single resistor (Rcs); and a fourth switch (M3d) adapted to selectively connect the other output of the second pair of outputs (CLKB2) directly with the second end (CS2) of the single resistor (Rcs). a first pair of clock generating circuits (M1a, M2a, M1c, M2c) connected to a first pair of outputs (CLK1, CLK2), respectively ; a second pair of clock generating circuits (M1b, M2b, M1d, M2d) connected to a second pair of outputs (CLKB1, CLKB2), respectively; a single resistor (Rcs) connectable in the circuit with all of the outputs for controlling a slope of charge sharing between the outputs; a first switch (M3a) adapted to selectively connect one output of the first pair of outputs (CLK1) directly with a first end (CS1) of the single resistor (Rcs); a second switch (M3c) adapted to selectively connect the other output of the first pair of outputs (CLK2) directly with the first end (CS1) of the single resistor (Rcs); characterized by further comprising: a third switch (M3b) adapted to selectively connect one output of the second pair of outputs (CLKB1) directly with a second end (CS2) of the single resistor (Rcs); and a fourth switch (M3d) adapted to selectively connect the other output of the second pair of outputs (CLKB2) directly with the second end (CS2) of the single resistor (Rcs). a third switch (M3b) adapted to selectively connect one output of the second pair of outputs (CLKB1) directly with a second end (CS2) of the single resistor (Rcs); and a fourth switch (M3d) adapted to selectively connect the other output of the second pair of outputs (CLKB2) directly with the second end (CS2) of the single resistor (Rcs).
Method for producing workpieces comprising fiber composite material, in which a) a base unit held by retaining means of a conveyor device is guided through at least one application station (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72), and b) in order to form the workpieces at the application station (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72), or at at least one of the application stations (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72) during a translational movement of the base unit through the application station (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72) in question, at least one strip belonging to the fiber composite material is laid onto the base unit , characterized in that c) by means of at least one orientation unit (11, 15, 18, 21, 24, 27, 42, 43, 91-95) which is arranged in the conveying direction upstream of the application station (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72) or upstream of at least one of the application stations (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72) the spatial orientation of the base unit is changed by at least one rotation relative to the retaining means . a) a base unit held by retaining means of a conveyor device is guided through at least one application station (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72), and b) in order to form the workpieces at the application station (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72), or at at least one of the application stations (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72) during a translational movement of the base unit through the application station (2, 14, 17, 20, 23, 26, 29, 39-41, 67-72) in question, at least one strip belonging to the fiber composite material is laid onto the base unit ,
A method for co-production of two or more isoprenoids, the method comprising: a. culturing, in a culture medium, a host cell genetically modified with one or more heterologous nucleic acids encoding one or more enzymes in a first biosynthetic pathway to produce a first isoprenoid and with one or more heterologous nucleic acids encoding one or more enzymes in a second biosynthetic pathway to produce a second isoprenoid, which has a molecular weight that is different from the first isoprenoid; and b. recovering the first isoprenoid; and c. recovering the second isoprenoid, wherein the first isoprenoid is a sesquiterpene and the second isoprenoid is a carotenoid, wherein a carbon flux towards the production of carotenoid is reduced compared to a carbon flux towards the production of sesquiterpene. a. culturing, in a culture medium, a host cell genetically modified with one or more heterologous nucleic acids encoding one or more enzymes in a first biosynthetic pathway to produce a first isoprenoid and with one or more heterologous nucleic acids encoding one or more enzymes in a second biosynthetic pathway to produce a second isoprenoid, which has a molecular weight that is different from the first isoprenoid; and b. recovering the first isoprenoid; and c. recovering the second isoprenoid, wherein the first isoprenoid is a sesquiterpene and the second isoprenoid is a carotenoid, wherein a carbon flux towards the production of carotenoid is reduced compared to a carbon flux towards the production of sesquiterpene.
A method performed by a network entity associated with a wireless communication system, the method comprising: determining at least one deep neural network, DNN, configuration for processing information exchanged with a user equipment, UE , over the wireless communication system using a simultaneous connection to multiple component carriers that include at least a first component carrier and a second component carrier, the at least one DNN configuration including a first portion of the at least one DNN configuration for forming a first DNN at the network entity, and a second portion of the at least one DNN configuration for forming a second DNN at the UE , the determining the at least one DNN configuration being based, at least in part, on a count of component carriers included in the multiple component carriers; forming the first DNN based on the first portion; communicating an indication of the second portion to the UE and directing the UE to form the second DNN based on the second portion; and using the first DNN to perform transmitter and/or receiver processing chain operations to exchange, over the wireless communication system, the information with the UE using the simultaneous connection to the multiple component carriers. determining at least one deep neural network, DNN, configuration for processing information exchanged with a user equipment, UE , over the wireless communication system using a simultaneous connection to multiple component carriers that include at least a first component carrier and a second component carrier, the at least one DNN configuration including a first portion of the at least one DNN configuration for forming a first DNN at the network entity, and a second portion of the at least one DNN configuration for forming a second DNN at the UE , the determining the at least one DNN configuration being based, at least in part, on a count of component carriers included in the multiple component carriers; forming the first DNN based on the first portion; communicating an indication of the second portion to the UE and directing the UE to form the second DNN based on the second portion; and using the first DNN to perform transmitter and/or receiver processing chain operations to exchange, over the wireless communication system, the information with the UE using the simultaneous connection to the multiple component carriers.
A charging device for charging energy-storage devices, the charging device comprising: a) an Electro-Magnetic Interference/Radio-Frequency Interference, EMI/RFI, filter configured to passively suppress conducted interference present on an alternating-current, AC, power source; b) a rectifier configured to convert an AC input to a direct-current, DC, output; and c) a voltage-controlled charger configured to provide a high-power output having an output voltage and an output current from said AC power source, wherein said output voltage and said output current from said voltage-controlled charger are pulsating DC signals having a waveform which ranges only from zero to positive volts, with the negative half of the signal rectified to the positive half; wherein the EMI/RFI filter is directly connected to the rectifier, without an electronic switching circuitry in between; the rectifier is directly connected to the voltage-controlled charger, without a capacitor connected across the output of the rectifier; and said high-power output is a wattage selected from the group consisting of: greater than about 40W, greater than about 50W, greater than about 60W, and greater than about 70W. a) an Electro-Magnetic Interference/Radio-Frequency Interference, EMI/RFI, filter configured to passively suppress conducted interference present on an alternating-current, AC, power source; b) a rectifier configured to convert an AC input to a direct-current, DC, output; and c) a voltage-controlled charger configured to provide a high-power output having an output voltage and an output current from said AC power source, wherein said output voltage and said output current from said voltage-controlled charger are pulsating DC signals having a waveform which ranges only from zero to positive volts, with the negative half of the signal rectified to the positive half; wherein the EMI/RFI filter is directly connected to the rectifier, without an electronic switching circuitry in between; the rectifier is directly connected to the voltage-controlled charger, without a capacitor connected across the output of the rectifier; and said high-power output is a wattage selected from the group consisting of: greater than about 40W, greater than about 50W, greater than about 60W, and greater than about 70W.
Water treatment system, in particular prefiltration unit of the water treatment system, comprising a chlorine sensor device and an evaluation electronics, characterized in that the water treatment system contains a brine tank which is connected to the chlorine sensor device (29, 30; 29b, 30b) via a chlorine test line , wherein in the chlorine test line an electrolysis cell , a pump as well as a release valve are disposed and the chlorine sensor device comprises an online measuring overall chlorine sensor, wherein the water treatment system is configured to supply electrolytically generated chlorine of known concentration to the online measuring chlorine sensor at regular intervals, to register this concentration via the overall chlorine sensor and evaluate it with the evaluation electronics, in order to check the function of the online measuring overall chlorine sensor at regular intervals, in order to prevent the chlorine sensor device from becoming passive and in order to allow a user to assess the functioning of the water treatment system via online access and to obtain a remote diagnosis on the current operating state on this basis.
A tire sensor module comprising: a sheet-like piezoelectric sensor configured to measure deformation of a tire; and a control unit configured to perform computational processing of a measurement result of the piezoelectric sensor, wherein a buffer portion is provided between the piezoelectric sensor and the control unit , wherein the buffer portion includes a soft portion with a Young's modulus smaller than a Young's modulus of the control unit , wherein the soft portion is in contact with the piezoelectric sensor and the control unit . a sheet-like piezoelectric sensor configured to measure deformation of a tire; and a control unit configured to perform computational processing of a measurement result of the piezoelectric sensor, wherein a buffer portion is provided between the piezoelectric sensor and the control unit , wherein the buffer portion includes a soft portion with a Young's modulus smaller than a Young's modulus of the control unit , wherein the soft portion is in contact with the piezoelectric sensor and the control unit .
A method for transmitting broadcast-multicast single-frequency network measurement data, performed by a terminal device, comprising: acquiring (S201) measurement data according to a preset time window, wherein the measurement data is a block error rate of data received within the preset time window; and sending (S202) the measurement data to a base station for network optimization, or coding and modulation for broadcast multicast service, MBMS, according to the measurement data; characterized in that the preset time window has duration that is set by using signaling. acquiring (S201) measurement data according to a preset time window, wherein the measurement data is a block error rate of data received within the preset time window; and sending (S202) the measurement data to a base station for network optimization, or coding and modulation for broadcast multicast service, MBMS, according to the measurement data; characterized in that the preset time window has duration that is set by using signaling.
Valve actuating drive , in particular for valves or flaps with self-closing function, wherein the valve actuating drive comprises: a permanently excited stepper motor which has at least two windings with an inductance (L) and an Ohmic resistance (R), a gear mechanism via which the stepper motor can be connected for drive purposes to a valve closing member in order to move this in an opening direction away from a valve seat and in a closing direction onto a valve seat , a spring means which is connected to the valve closing member in order to preload this in the closing direction, a feed circuitry which is connected to one of the windings in order to energize this for driving the stepper motor , at least one damping circuitry with capacitive damping circuit , and at least one switching device which is connected to one of the windings and via which the winding can be connected optionally to the feed circuitry or the damping circuitry , wherein the damping circuitry is a capacitive damping circuit which contains a condenser with a capacitance (C), wherein the capacitive damping circuit is connected in parallel with the winding , so that a resonance arrangement having a resonant frequency is formed (LCR) from the inductance (L) of the winding , the capacitance (C) of the condenser and the internal resistance (R) of the winding , and that the resonance arrangement is configured to work in sub-resonant mode during damping. a permanently excited stepper motor which has at least two windings with an inductance (L) and an Ohmic resistance (R), a gear mechanism via which the stepper motor can be connected for drive purposes to a valve closing member in order to move this in an opening direction away from a valve seat and in a closing direction onto a valve seat , a spring means which is connected to the valve closing member in order to preload this in the closing direction, a feed circuitry which is connected to one of the windings in order to energize this for driving the stepper motor , at least one damping circuitry with capacitive damping circuit , and at least one switching device which is connected to one of the windings and via which the winding can be connected optionally to the feed circuitry or the damping circuitry , wherein the damping circuitry is a capacitive damping circuit which contains a condenser with a capacitance (C), wherein the capacitive damping circuit is connected in parallel with the winding , so that a resonance arrangement having a resonant frequency is formed (LCR) from the inductance (L) of the winding , the capacitance (C) of the condenser and the internal resistance (R) of the winding , and that the resonance arrangement is configured to work in sub-resonant mode during damping.
A method for producing levulinic acid, comprising: combining a sludge from a pulp and paper mill and a lignocellulosic biomass to produce a mixture comprising the sludge and the lignocellulosic biomass, wherein the sludge comprises one or more six carbon chain sugars, and wherein the lignocellulosic biomass comprises one or more six carbon chain compound precursors; and converting the mixture comprising the sludge and the lignocellulosic biomass to a mixture comprising levulinic acid, furfural, and tar in one or more reactors, wherein converting the mixture comprising the sludge and the lignocellulosic biomass comprises: partially hydrolyzing the lignocellulosic biomass to form one or more additional six carbon chain sugars from the one or more six carbon chain sugar precursors, wherein the lignocellulosic biomass is partially hydrolyzed in a first reactor at a temperature of 170°C to 185°C for 35 minutes to 60 minutes; and converting the one or more six carbon chain sugars and the one or more additional six carbon chain sugars to the levulinic acid. combining a sludge from a pulp and paper mill and a lignocellulosic biomass to produce a mixture comprising the sludge and the lignocellulosic biomass, wherein the sludge comprises one or more six carbon chain sugars, and wherein the lignocellulosic biomass comprises one or more six carbon chain compound precursors; and converting the mixture comprising the sludge and the lignocellulosic biomass to a mixture comprising levulinic acid, furfural, and tar in one or more reactors, wherein converting the mixture comprising the sludge and the lignocellulosic biomass comprises: partially hydrolyzing the lignocellulosic biomass to form one or more additional six carbon chain sugars from the one or more six carbon chain sugar precursors, wherein the lignocellulosic biomass is partially hydrolyzed in a first reactor at a temperature of 170°C to 185°C for 35 minutes to 60 minutes; and converting the one or more six carbon chain sugars and the one or more additional six carbon chain sugars to the levulinic acid. partially hydrolyzing the lignocellulosic biomass to form one or more additional six carbon chain sugars from the one or more six carbon chain sugar precursors, wherein the lignocellulosic biomass is partially hydrolyzed in a first reactor at a temperature of 170°C to 185°C for 35 minutes to 60 minutes; and converting the one or more six carbon chain sugars and the one or more additional six carbon chain sugars to the levulinic acid.