mhurhangee/patent-ind-claim-en huggingface dataset:
Transmitting and receiving device with a module (GSZ) with an N-way Doherty power amplifier (HPA), which has a main power amplifier (DM) with an amplifier core and at least two peak power amplifier (DP1, DP2) with an amplifier core, the amplifier cores each having power transistors with source -, gate- and drain- terminals, with a digital input signal divider (ET) connected to the input of the main power amplifier (DM) and the input of each peak power amplifier (DP1), which is referred to below as the control function (ET) and which is connected to the respective input of the main power amplifier (DM) and peak power amplifier (DM, DP1, DP2) controlling the phase and amplitude of each of its output signals, and a load matched output combiner (C) connected to an output of the amplifier cores for the main power amplifier (DM) and one output of each peak power amplifier (DP1) is provided, the control function being a non-linear function which is defined by measurements during an identification process in such a way that a superordinate transfer function consisting of the control function (ET), the amplifier cores (DM, DP1, DP2) and the load-matched output combiner (C,LMC), is linear with respect to continuous waves, wherein two series-connected multiharmonic transformation lines (LAH) each at the amplifier core output of the main power amplifier (DM) and at the amplifier core output of each peak power amplifier (DP1,DP2) are provided, and wherein an at the output of the load-matched output combiner (C) connected circulator (Z1) is provided, wherein each transformation line (LAH) has a λ/4 length and wherein the characteristic impedance values of each of these transformation lines (LAH) are individually adjusted in the design of their structure, whereby for the absorption of drain parasites in the transistors of the main power amplifier (DM) and the peak power amplifiers (DP1, DP2) absorption networks (ABN) are provided, which are part of the multiharmonic transformation lines (LAH) and these are part of the load-matched output combiner (C), wherein the upstream main power amplifier (DM) and each peak power amplifier (DP1, DP2 ) are protected from output overvoltage and overcurrent by the circulator (Z1) by deriving the energy to a sump resistor (W1) connected to the circulator (Z1) such that the circulator (Z1) provides a 50 ohm terminating impedance for the load matched output combiner ( C), and that a fanless operation of the module (GSZ) is made possible by a printed circuit board of the module (GSZ) being in thermally conductive connection with a heat sink (HSK) and main power amplifier (DM) and peak power amplifier (DP1, DP2) are connected with the source -connection on the heat sink (HSK) in such a way that the module (GSZ) has a high usable bandwidth with a pulse transmission power of approx. 2,000 watts.
A method for driving a haptic transducer with a driving signal, the method comprising: Estimating , based on a current through the haptic transducer and a terminal voltage across the haptic transducer, a back electromotive force, EMF, voltage representative of a velocity of a mass in the haptic transducer; the method characterized by further comprising comparing a phase of a voltage signal derived from the terminal voltage with a phase of the estimated back EMF voltage; and based on the comparison, adjusting a frequency or a phase of an output signal, wherein the driving signal is derived from the output signal, such that a frequency of the driving signal converges to a resonant frequency of the haptic transducer. Estimating , based on a current through the haptic transducer and a terminal voltage across the haptic transducer, a back electromotive force, EMF, voltage representative of a velocity of a mass in the haptic transducer; the method characterized by further comprising comparing a phase of a voltage signal derived from the terminal voltage with a phase of the estimated back EMF voltage; and based on the comparison, adjusting a frequency or a phase of an output signal, wherein the driving signal is derived from the output signal, such that a frequency of the driving signal converges to a resonant frequency of the haptic transducer.
Clamping means system with several clamping vices for workpieces , wherein each clamping vice has: ▪ a base surface on which a machine coupling system is arranged, ▪ at least two workpiece-clamping jaws which are arranged on the side of the clamping vice opposite the base surface and at least one of which is mounted so as to be movable towards and away from the other, ▪ a bearing-receiving contour which is arranged outside the base surface on a first side of the clamping vice , ▪ a gripper-receiving contour which is arranged on a second side of the clamping vice opposite the first side, and with a carriage having several bearing contours of the same orientation which are arranged at a uniform height and are configured to receive the clamping vices with the gripper-receiving contour pointing upwards and the bearing-receiving contour oriented downwards. ▪ a base surface on which a machine coupling system is arranged, ▪ at least two workpiece-clamping jaws which are arranged on the side of the clamping vice opposite the base surface and at least one of which is mounted so as to be movable towards and away from the other, ▪ a bearing-receiving contour which is arranged outside the base surface on a first side of the clamping vice , ▪ a gripper-receiving contour which is arranged on a second side of the clamping vice opposite the first side, and
Micro Organic Opto-Electronic device emitting a light impulse having a time response below 10 ns, in response to an electrical impulse having a pulse duration time below 100 ns, comprising a dielectric substrate which supports: - a first planar electrode with a transversal dimension T ; - an organic layer stack partially covering said first planar electrode (A, 62); - a second planar electrode with at least a part covering said organic layer stack and said first planar electrode , defining an active area of the Organic Opto-Electronic device; - some electrical wires for the voltage supply being connected to the first planar electrode and to the second planar electrode ; characterized in that the dielectric substrate also supports at least one ground plane ; the first planar electrode , the second planar electrode and the ground plane are separated by gaps (132, G, h) without conductive material, the gaps (132, G, h) having a size (G, h) so as to adapt the speed of propagation of the electrical pulse in the device for limiting the reflections due to the passage of the electrical impulse between the electrical wires and the planar electrodes , the gaps (132, G, h) having a size (G, h) so that an effective dielectric permittivity of the Organic Opto-Electronic device is equal to the dielectric permittivity of the electrical wires delivering the electrical impulse. - a first planar electrode with a transversal dimension T ; - an organic layer stack partially covering said first planar electrode (A, 62); - a second planar electrode with at least a part covering said organic layer stack and said first planar electrode , defining an active area of the Organic Opto-Electronic device; - some electrical wires for the voltage supply being connected to the first planar electrode and to the second planar electrode ; the dielectric substrate also supports at least one ground plane ; the first planar electrode , the second planar electrode and the ground plane are separated by gaps (132, G, h) without conductive material, the gaps (132, G, h) having a size (G, h) so as to adapt the speed of propagation of the electrical pulse in the device for limiting the reflections due to the passage of the electrical impulse between the electrical wires and the planar electrodes , the gaps (132, G, h) having a size (G, h) so that an effective dielectric permittivity of the Organic Opto-Electronic device is equal to the dielectric permittivity of the electrical wires delivering the electrical impulse.
Circuit breaker having a plurality of interrupter units (5 to 8) which each have at least one movable switching element for opening and closing a current path of the interrupter unit (5 to 8), wherein - the current paths of all the interrupter units (5 to 8) are connected electrically in series, - and the circuit breaker has a drive to which each movable switching element is coupled by means of a kinematic chain for moving the switching element , wherein the kinematic chains are of equal length, characterized in that each kinematic chain has a switching rod which runs in a respectively associated insulator column on which at least one interrupter unit (5 to 8) is arranged, wherein the switching rods are at least approximately of equal length. - the current paths of all the interrupter units (5 to 8) are connected electrically in series, - and the circuit breaker has a drive to which each movable switching element is coupled by means of a kinematic chain for moving the switching element , the kinematic chains are of equal length, characterized in that each kinematic chain has a switching rod which runs in a respectively associated insulator column on which at least one interrupter unit (5 to 8) is arranged, wherein the switching rods are at least approximately of equal length.
A method for preparing homofarnesol the method comprising the steps of: a) providing farnesyl chloride b) reacting farnesyl chloride to homofarnesate by alkoxycarbonylation and c) reacting homofarnesate to homofarnesol , wherein R is a C 1 -C 10 alkyl group, for example Me, Et, n-propyl, i-propyl, n-butyl, i-butyl etc, including ring systems, optionally substituted; and wherein the configuration of the double bonds in the compounds 1 , 2 and 3 is preserved. a) providing farnesyl chloride b) reacting farnesyl chloride to homofarnesate by alkoxycarbonylation and c) reacting homofarnesate to homofarnesol , wherein R is a C 1 -C 10 alkyl group, for example Me, Et, n-propyl, i-propyl, n-butyl, i-butyl etc, including ring systems, optionally substituted; and wherein the configuration of the double bonds in the compounds 1 , 2 and 3 is preserved.
A shower enclosure sliding door mechanism including: a first member arranged to be provided on a door of a shower enclosure; and a second member arranged to be provided on a frame of the shower enclosure, the first and second members slidably engaged with each other such that a first bearing surface of the first member slidably engages a second bearing surface of the second member , wherein the first bearing surface is formed from a first low friction material and includes a pair of surfaces sloped towards a base region and a flat base , the sloped surfaces extending from either end of the flat base such that the first bearing surface is truncated V-shaped in cross section, and the second bearing surface is formed from a second low friction material and arranged to provide a channel within which the first bearing surface sits, such that a low friction interface is formed between the first member and the second member . a first member arranged to be provided on a door of a shower enclosure; and a second member arranged to be provided on a frame of the shower enclosure, the first and second members slidably engaged with each other such that a first bearing surface of the first member slidably engages a second bearing surface of the second member , wherein the first bearing surface is formed from a first low friction material and includes a pair of surfaces sloped towards a base region and a flat base , the sloped surfaces extending from either end of the flat base such that the first bearing surface is truncated V-shaped in cross section, and the second bearing surface is formed from a second low friction material and arranged to provide a channel within which the first bearing surface sits, such that a low friction interface is formed between the first member and the second member .
An unmanned aerial vehicle, "UAV", comprising: a transceiver connected with a remote controller; a driving unit including an electronic speed controller, "ESC", , a motor , and a propeller, the driving unit configured to fly the UAV ; a positioning information receiver ; a camera ; and at least one processor configured to control the transceiver, the driving unit, positioning information receiver, and the camera , wherein the at least one processor is further configured to: receive, from the remote controller, a user command through the transceiver, based on receiving the user command, obtain positioning information of the UAV using the positioning information receiver , calculate a distance between the UAV and a user by recognizing, using the camera , the user, and control the driving unit to perform a motion feedback that represents a response, the response corresponding to the user command and a state of the UAV , the motion feedback comprising motion of the UAV , wherein the state of the UAV represents at least one of a flight state of the UAV or a system state of the UAV . a transceiver connected with a remote controller; a driving unit including an electronic speed controller, "ESC", , a motor , and a propeller, the driving unit configured to fly the UAV ; a positioning information receiver ; a camera ; and at least one processor configured to control the transceiver, the driving unit, positioning information receiver, and the camera , wherein the at least one processor is further configured to: receive, from the remote controller, a user command through the transceiver, based on receiving the user command, obtain positioning information of the UAV using the positioning information receiver , calculate a distance between the UAV and a user by recognizing, using the camera , the user, and control the driving unit to perform a motion feedback that represents a response, the response corresponding to the user command and a state of the UAV , the motion feedback comprising motion of the UAV , receive, from the remote controller, a user command through the transceiver, based on receiving the user command, obtain positioning information of the UAV using the positioning information receiver , calculate a distance between the UAV and a user by recognizing, using the camera , the user, and control the driving unit to perform a motion feedback that represents a response, the response corresponding to the user command and a state of the UAV , the motion feedback comprising motion of the UAV , wherein the state of the UAV represents at least one of a flight state of the UAV or a system state of the UAV .
An unmanned aerial vehicle, including a body , and a first foot stand and a second foot stand disposed below the body , the first foot stand and the second foot stand being disposed oppositely to each other; the first foot stand including a first connection rack , a second connection rack , and a third connection rack , the first connection rack , the second connection rack , and the third connection rack being sequentially connected;; the second foot stand including a fourth connection rack, a fifth connection rack, and a sixth connection rack, and the fourth connection rack, the fifth connection rack and the sixth connection rack being sequentially connected; characterized in that the unmanned aerial vehicle comprises at least a first coaxial antenna and a second coaxial antenna , the first coaxial antenna being horizontally provided in the second connection rack and the second coaxial antenna being vertically provided in the fourth connection rack.
Natural material pad in the form of a layer system with a flat natural material matrix , which is arranged on a carrier and is covered by a coating , wherein the natural material matrix comprises a plant material, a binder and active substances and/or fragrances held on the plant material or otherwise distributed in the natural material matrix , characterised in that the plant material is present as a whole or in cut form in the natural material matrix and the coating is not smooth on the surface but follows the contours of the plant material in the natural material matrix .
A vegetable oil derivative comprising the structure: where R 1 , R 2 , and R 3 are independently selected from a C15 alkenyl to a C20 alkenyl or from a C15 alkyl to a C20 alkyl, and optionally containing aromatic groups; R 4 is - S - S - R 7 - or R 4 is - S - X - S - S - R 7 - where X is a substituted or an unsubstituted C1 to C10 alkane diyl, a substituted or unsubstituted phenylene, or a combination thereof; R 5 , R 6 are independently selected from a C1 to a C10 alkyl; R 7 is selected from a C1 to a C10 alkane diyl; j = 0 to 2; k = 1 to 3; and j+k = 3; wherein each R 4 is attached via a carbon-sulfur linkage to one of R 1 , R 2 or R 3 ; and m is the number of the carbon-sulfur linkages.
A cooling system for a power conversion device, comprising: a radiator ; a radiator fan configured to supply air to the radiator ; and a power conversion device including a plurality of electric components and a casing housing the plurality of electric components inside, wherein the casing includes a base portion which is formed of a non-metallic material and on which the plurality of electric components is placed and a cover portion formed of a metallic material, fixed to the base portion , and covering a periphery of the plurality of electric components , a refrigerant channel through which a refrigerant cooling the plurality of electric components flows is formed in the base portion of the casing , the refrigerant flowing through the refrigerant channel is circulated through a refrigerant passage , the radiator is provided on the refrigerant passage and configured to cool the refrigerant flowing through the refrigerant channel , and the casing is disposed at a position where an airflow of the radiator fan is applied to the cover portion . a radiator ; a radiator fan configured to supply air to the radiator ; and a power conversion device including a plurality of electric components and a casing housing the plurality of electric components inside, wherein the casing includes a base portion which is formed of a non-metallic material and on which the plurality of electric components is placed and a cover portion formed of a metallic material, fixed to the base portion , and covering a periphery of the plurality of electric components , a refrigerant channel through which a refrigerant cooling the plurality of electric components flows is formed in the base portion of the casing , the refrigerant flowing through the refrigerant channel is circulated through a refrigerant passage , the radiator is provided on the refrigerant passage and configured to cool the refrigerant flowing through the refrigerant channel , and the casing is disposed at a position where an airflow of the radiator fan is applied to the cover portion .
A composition obtainable by dissolving ciclosporin with a water content of less than about 1.0 wt %, based on the total weight of the ciclosporin, in 1-perfluorobutyl-pentane, wherein the ciclosporin is dissolved in the absence of ethanol.
A method comprising: storing a plurality of whitelisted locations, and associating one or more search types with each whitelisted location, wherein the one or more search types comprise a visual search type corresponding to one or more of a barcode scanning capability, a quick response code scanning capability, an image recognizer capability, and an optical character recognition capability; determining , by a mobile computing device , a geographic location of the mobile computing device; determining that the geographic location of the mobile computing device matches one of the whitelisted locations; obtaining the one or more search types associated with the matched whitelisted location; responsive to obtaining the one or more search types, outputting , by the mobile computing device and for display, a graphical user interface comprising an indication for each of the one or more search types associated with the matched whitelisted location; responsive to receiving user input selecting an indication of one of the one or more search types, obtaining , by the mobile computing device, a search input for the one of the one or more search types associated with the matched whitelisted location, and transmitting the search input to a networked device via a network, the one of the one or more search types comprising the visual search type; and receiving one or more search results from the networked device and outputting the search results for display. storing a plurality of whitelisted locations, and associating one or more search types with each whitelisted location, wherein the one or more search types comprise a visual search type corresponding to one or more of a barcode scanning capability, a quick response code scanning capability, an image recognizer capability, and an optical character recognition capability; determining , by a mobile computing device , a geographic location of the mobile computing device; determining that the geographic location of the mobile computing device matches one of the whitelisted locations; obtaining the one or more search types associated with the matched whitelisted location; responsive to obtaining the one or more search types, outputting , by the mobile computing device and for display, a graphical user interface comprising an indication for each of the one or more search types associated with the matched whitelisted location; responsive to receiving user input selecting an indication of one of the one or more search types, obtaining , by the mobile computing device, a search input for the one of the one or more search types associated with the matched whitelisted location, and transmitting the search input to a networked device via a network, the one of the one or more search types comprising the visual search type; and receiving one or more search results from the networked device and outputting the search results for display.