mhurhangee/patent-ind-claim-en huggingface dataset:
A resonant converter for supplying electrical energy from a supply source (Vs) to a load, the resonant converter comprising first and second series-arranged controllable switches to be connected between supply source terminals, a control device (CL) for generating control signals for opening and closing the first and second switches, a resonant tank in electrical connection with the first and second switches, the resonant tank comprising a resonant capacitor (Cr), wherein one of the first and second switches is turned on and a current flowing in the resonant tank is monitored and a voltage at a predetermined point in the resonant tank is monitored , a first conduction interval occurs while the first switch is turned on and a second conduction interval occurs while the second switch is turned on, characterized in that two control parameters (IpeakH, VcapH) are set for the first conduction interval and two control parameters (IpeakL, VcapL) are set for the second conduction interval, the control parameters for each conduction interval being: a peak current of the interval and a predetermined voltage of the interval, and wherein the first and second switches are turned off in accordance with criteria including the four control parameters, characterized in that the four control parameters are set in order to operate the resonant converter in accordance with a mode wherein an output power of the resonant converter is controlled, wherein the first switch is turned off when a first criterion or a second criterion is fulfilled, the first criterion being that the monitored current is larger than the peak current parameter (IpeakH) of the first interval, the second criterion being that a minimum time has lapsed after the first switch is turned on and that the voltage is below the predetermined voltage (VcapH) of the first interval, wherein the second switch is turned off when a third criterion or a fourth criterion are fulfilled, the third criterion being that the monitored current is smaller than the peak current parameter (IpeakL) of the second interval, the fourth criterion being that a minimum time has lapsed after the second switch is turned on and that the voltage is above the predetermined voltage (VcapL) of the second interval.
A plasma generating electrode for generating plasma by a dielectric barrier discharge, for use in a plasma reactor comprising a dielectric extending in a flow direction of exhaust gas, characterized in that the plasma generating electrode comprises: a first line portion extending in a first direction; a second line portion extending in a second direction which intersects with the first direction; and a third line portion extending in a direction that intersects with both the first direction and the second direction, wherein a portion where the first line portion , the second line portion , and the third line portion intersect is provided with a hole in the thickness direction. a first line portion extending in a first direction; a second line portion extending in a second direction which intersects with the first direction; and a third line portion extending in a direction that intersects with both the first direction and the second direction, wherein a portion where the first line portion , the second line portion , and the third line portion intersect is provided with a hole in the thickness direction.
Computer-implemented method for planning the motion of a vehicle , the method comprising the following steps carried out by computer hardware components: - determining a nominal trajectory (Γ 0 ) for the vehicle based on a desired maneuver to be carried out in a traffic space, on a current state of movement of the vehicle and on a detected state of a surrounding of the vehicle , and - determining an abort trajectory ( Γ a_ti ) branching off from the nominal trajectory (Γ 0 ) and guiding the vehicle to a safe condition regardless of the desired maneuver, characterized in that the nominal trajectory (Γ 0 ) and the abort trajectory are determined simultaneously using a single optimization process. - determining a nominal trajectory (Γ 0 ) for the vehicle based on a desired maneuver to be carried out in a traffic space, on a current state of movement of the vehicle and on a detected state of a surrounding of the vehicle , and - determining an abort trajectory ( Γ a_ti ) branching off from the nominal trajectory (Γ 0 ) and guiding the vehicle to a safe condition regardless of the desired maneuver,
A pharmaceutical composition for use in preventing or treating andropause syndrome comprising: an elderberry ( Sambucus nigrat-distilled water extract as an active ingredient wherein the pharmaceutical composition increases a blood testosterone content. an elderberry ( Sambucus nigrat-distilled water extract as an active ingredient wherein the pharmaceutical composition increases a blood testosterone content.
A method performed by a mobility node for handling network connections for a User Equipment, UE, , wherein the UE is simultaneously connected to a first gateway via a connection to a Third Generation Partnership Project, 3GPP, network and a connection to a non-3GPP network , the method comprising: detecting that the UE has moved to another location; when it is detected that the UE has moved to another location, selecting a second gateway that the UE should be relocated to, wherein the second gateway is closer to the UE at the other location; and transmitting relocation information to the first gateway , wherein the relocation information indicates that a gateway relocation to the second gateway is required for the UE , and wherein the gateway relocation involves deactivation of both the connection to the 3GPP network and the connection to the non-3GPP network . detecting that the UE has moved to another location; when it is detected that the UE has moved to another location, selecting a second gateway that the UE should be relocated to, wherein the second gateway is closer to the UE at the other location; and transmitting relocation information to the first gateway , wherein the relocation information indicates that a gateway relocation to the second gateway is required for the UE , and wherein the gateway relocation involves deactivation of both the connection to the 3GPP network and the connection to the non-3GPP network .
A toothbrush comprising: a handle having a base and a head ; a plurality of bristles attached to the head of the handle ; a first light coupled to the handle and configured to be turned on to produce light that is emitted from the toothbrush with a green color during a first period of time; a second light coupled to the handle and configured to be turned on to produce light that is emitted from the toothbrush with a yellow color during a second period of time; a third light coupled to the handle and configured to be turned on to produce light that is emitted from the toothbrush with a red color during a third period of time; a switch configured to activate the first light ; and a circuit configured to control the first light , the second light , and the third light and automatically activate the second light after expiration of the first period of time and automatically activate the third light after expiration of the second period of time; wherein the circuit is configured to turn on the first light after the switch is activated and turn off the first light after the first period of time elapses, then to turn on the second light and turn off the second light after the second period of time elapses, then to turn on the third light and turn off the third light after the third period of time elapses, with the first light , the second light , and the third light not being on at the same time. a handle having a base and a head ; a plurality of bristles attached to the head of the handle ; a first light coupled to the handle and configured to be turned on to produce light that is emitted from the toothbrush with a green color during a first period of time; a second light coupled to the handle and configured to be turned on to produce light that is emitted from the toothbrush with a yellow color during a second period of time; a third light coupled to the handle and configured to be turned on to produce light that is emitted from the toothbrush with a red color during a third period of time; a switch configured to activate the first light ; and a circuit configured to control the first light , the second light , and the third light and automatically activate the second light after expiration of the first period of time and automatically activate the third light after expiration of the second period of time; wherein the circuit is configured to turn on the first light after the switch is activated and turn off the first light after the first period of time elapses, then to turn on the second light and turn off the second light after the second period of time elapses, then to turn on the third light and turn off the third light after the third period of time elapses, with the first light , the second light , and the third light not being on at the same time.
A method for making a pre-coated steel strip, comprising pre-coating a strip of base steel having a length, a width, a first side, and a second side, said length of said strip of base steel being at least 100m and said width being at least 600mm, with an aluminum or an aluminum alloy pre-coating on at least part of one of said first and second sides of said strip of base steel wherein the strip is pre-coated by dipping, after pickling, in an aluminum bath containing only aluminium, or in an aluminum bath containing aluminum and from 8% to 11% silicon and 2% to 4% iron, or aluminum and from 2% to 4% iron, wherein the base steel comprises the following components by weight based on total weight: 0.15%<carbon<0.5% 0.5%<manganese<3% 0.1%<silicon<0.5% 0.01%<chromium<1% titanium<0.2% aluminum<0.1% phosphorus<0.1% 20 ppm or less of sulfur 0.0005%<boron<0.08%, and further comprises iron and impurities inherent in processing wherein the method comprises controlling the minimum and maximum thickness of the pre-coating of at least one of the first side (tpmin1, tpmax1) and the second side (tpmin2, tpmax2) to be respectively equal to 20 and 33 micrometers, so that the thickness t p of the said pre-coating is from 20 - 33 micrometers at every location on at least one of said first and second sides, wherein the pre-coating thickness on at least one of said first and second sides is measured and monitored continuously on a coating line directly after the pre-coating operation, with thickness gauges relying on X-Ray absorption, and wherein a plurality of said thickness gauges are positioned at different distances in the transverse direction of the strip in order to obtain a profile of the thickness of the pre-coating along the strip width. 0.15%<carbon<0.5% 0.5%<manganese<3% 0.1%<silicon<0.5% 0.01%<chromium<1% titanium<0.2% aluminum<0.1% phosphorus<0.1% 20 ppm or less of sulfur 0.0005%<boron<0.08%,
Connecting device of an adjustable vane of a gas turbine , in particular an aircraft gas turbine, comprising: a pin element connected to a relevant vane ; a lever element connected to the pin element , the lever element and the pin element being movable together about a pin rotation axis (ZD); a clamping element being provided, which is arranged between the lever element and the pin element such that a frictional connection can be or is produced between the pin element , the clamping element and the lever element , characterized in that the lever element , the clamping element and the pin element are aligned with one another by means of a positioning element , the positioning element being accommodated in a pin receptacle and a lever receptacle . a pin element connected to a relevant vane ; a lever element connected to the pin element , the lever element and the pin element being movable together about a pin rotation axis (ZD); a clamping element being provided, which is arranged between the lever element and the pin element such that a frictional connection can be or is produced between the pin element , the clamping element and the lever element , characterized in that the lever element , the clamping element and the pin element are aligned with one another by means of a positioning element , the positioning element being accommodated in a pin receptacle and a lever receptacle .
A sliding multiple plug, comprising a housing , and a plurality of pin holes arranged on the bottom surface of the housing , wherein a first pin , a second pin and a third pin are arranged in the housing , wherein the first pin comprises a ground line leg , a live line leg and a null line leg ; when the ground line leg of the first pin is taken as a central point, the second pin is arranged on one side of the central point, and the third pin is arranged on the other side of the central point; and the second pin and the third pin are respectively composed of three legs including the ground line leg; characterized in that a fuse is arranged in the housing among the three legs of the third pin .
A shaped ceramic abrasive particle comprising: a first surface having a perimeter comprising at least first and second edges, wherein a first region of the perimeter comprises the second edge and extends inwardly and terminates at two sharp corners defining first and second acute interior angles, and wherein the perimeter has at most four corners that define acute interior angles, wherein the first acute interior angle is from 35 to 55 degrees, and wherein the second acute interior angle is from 35 to 55 degrees; a second surface opposite, and not contacting, the first surface; and a peripheral surface disposed between and connecting the first and second surfaces, wherein the peripheral surface comprises a first wall that contacts the perimeter at the first edge, wherein the peripheral surface comprises a second wall that contacts the perimeter at the second edge, and wherein the peripheral surface has a first predetermined shape, wherein the shaped ceramic abrasive particle comprises alpha-alumina, fused alumina-zirconia and fused oxynitrides or wherein the shaped ceramic abrasive particle is obtainable from a ceramic precursor material which is selected from a zirconium oxide sol, a vanadium oxide sol, a cerium oxide sol, an aluminum oxide sol, and combinations thereof, and wherein the peripheral surface slopes inwardly from the first surface toward the second surface. a first surface having a perimeter comprising at least first and second edges, wherein a first region of the perimeter comprises the second edge and extends inwardly and terminates at two sharp corners defining first and second acute interior angles, and wherein the perimeter has at most four corners that define acute interior angles, wherein the first acute interior angle is from 35 to 55 degrees, and wherein the second acute interior angle is from 35 to 55 degrees; a second surface opposite, and not contacting, the first surface; and a peripheral surface disposed between and connecting the first and second surfaces, wherein the peripheral surface comprises a first wall that contacts the perimeter at the first edge, wherein the peripheral surface comprises a second wall that contacts the perimeter at the second edge, and wherein the peripheral surface has a first predetermined shape, wherein the shaped ceramic abrasive particle comprises alpha-alumina, fused alumina-zirconia and fused oxynitrides or wherein the shaped ceramic abrasive particle is obtainable from a ceramic precursor material which is selected from a zirconium oxide sol, a vanadium oxide sol, a cerium oxide sol, an aluminum oxide sol, and combinations thereof, and wherein the peripheral surface slopes inwardly from the first surface toward the second surface.
Method for obtaining a photocatalytic polymer, the method comprising: a) mixing aluminium trihydroxide and at least a photocatalytic particle in water at a pH between 5 and 7 under stirring; b) adding a silane or a siloxane and stirring for a minimum of time of 100 min at a temperature between 30 and 50 °C to obtain a solid phase, c) extracting the solid phase formed in the previous step and drying for obtaining a photocatalytic additive, d) adding said photocatalytic additive to an acrylic or polyester resin and polymerizing for obtaining the photocatalytic polymer. a) mixing aluminium trihydroxide and at least a photocatalytic particle in water at a pH between 5 and 7 under stirring; b) adding a silane or a siloxane and stirring for a minimum of time of 100 min at a temperature between 30 and 50 °C to obtain a solid phase, c) extracting the solid phase formed in the previous step and drying for obtaining a photocatalytic additive, d) adding said photocatalytic additive to an acrylic or polyester resin and polymerizing for obtaining the photocatalytic polymer.
A method for establishing a wireless communication channel between a network advertising transmitter and an observer, the method comprising, at the network advertising transmitter: configuring a plurality of global broadcast parameters between the network advertising transmitter and the observer using an out-of-band communication channel (S1); and using at least one of the plurality of preconfigured global broadcast parameters to form a unique broadcast identifier code for a subsequent network advertising broadcast event (S2), wherein the global broadcast parameters include one or more global broadcast parameters based on capabilities of both the network advertising transmitter and the observer and a synchronization value for the subsequent network advertising broadcast event, wherein the one or more configured global broadcast parameters comprise one or more or all of: a minimum network advertising broadcast interval between sequential network advertising broadcast events; a minimum network advertising broadcast synchronization, MinNABS offset comprising a minimum interval between transmission of the synchronization value and a subsequent network advertising broadcast event; and a maximum network advertising broadcast synchronization, MaxNABS, offset comprising a maximum validity time-period for the synchronization value. configuring a plurality of global broadcast parameters between the network advertising transmitter and the observer using an out-of-band communication channel (S1); and using at least one of the plurality of preconfigured global broadcast parameters to form a unique broadcast identifier code for a subsequent network advertising broadcast event (S2), wherein the global broadcast parameters include one or more global broadcast parameters based on capabilities of both the network advertising transmitter and the observer and a synchronization value for the subsequent network advertising broadcast event, wherein the one or more configured global broadcast parameters comprise one or more or all of: a minimum network advertising broadcast interval between sequential network advertising broadcast events; a minimum network advertising broadcast synchronization, MinNABS offset comprising a minimum interval between transmission of the synchronization value and a subsequent network advertising broadcast event; and a maximum network advertising broadcast synchronization, MaxNABS, offset comprising a maximum validity time-period for the synchronization value. a minimum network advertising broadcast interval between sequential network advertising broadcast events; a minimum network advertising broadcast synchronization, MinNABS offset comprising a minimum interval between transmission of the synchronization value and a subsequent network advertising broadcast event; and a maximum network advertising broadcast synchronization, MaxNABS, offset comprising a maximum validity time-period for the synchronization value.
A method for controlling a laser diode system that comprises a plurality of laser optical pumps (202A; 202B; 202C; 202D), each of the pumps comprising a plurality of laser diode elements (206A, 208A; 206B, 208B; 206C, 208C; 208D, 208D), the method comprising: initially calibrating, using a computing device , the laser diode system to obtain a laser source signal and a corresponding calibrated lower threshold , comprising: detecting , at the computing device, a failed laser diode element or a failed laser optical pump in a laser diode system including a plurality of laser diode elements arranged in a plurality of laser optical pumps ; receiving, using the computing device, an encoded key after the detecting; authenticating , using the computing device, the encoded key and disabling , using the computing device, the failed laser diode element or the failed laser optical pump in the laser diode system; and retraining , using the computing device, the laser diode system by reducing the calibrated lower threshold to a reduced lower threshold , wherein the reduction is done in proportion to the number of the disabled laser diode elements or of the laser optical pumps in the laser diode system. initially calibrating, using a computing device , the laser diode system to obtain a laser source signal and a corresponding calibrated lower threshold , comprising: detecting , at the computing device, a failed laser diode element or a failed laser optical pump in a laser diode system including a plurality of laser diode elements arranged in a plurality of laser optical pumps ; receiving, using the computing device, an encoded key after the detecting; authenticating , using the computing device, the encoded key and disabling , using the computing device, the failed laser diode element or the failed laser optical pump in the laser diode system; and retraining , using the computing device, the laser diode system by reducing the calibrated lower threshold to a reduced lower threshold , detecting , at the computing device, a failed laser diode element or a failed laser optical pump in a laser diode system including a plurality of laser diode elements arranged in a plurality of laser optical pumps ; receiving, using the computing device, an encoded key after the detecting; authenticating , using the computing device, the encoded key and disabling , using the computing device, the failed laser diode element or the failed laser optical pump in the laser diode system; and retraining , using the computing device, the laser diode system by reducing the calibrated lower threshold to a reduced lower threshold , wherein the reduction is done in proportion to the number of the disabled laser diode elements or of the laser optical pumps in the laser diode system.