mhurhangee/patent-ind-claim-en huggingface dataset:
Control device for controlling a power semiconductor component , wherein the power semiconductor component has at least two voltage-controlled power semiconductor component parts (V1, V2), which are electrically connected in parallel and which each have a control connection , wherein the control device comprises at least one driver element (GU, GU1, GU2), by means of which respective electrical voltages (U G1 , U G2 ) can be set at the control connections of the power semiconductor component parts (V1, V2), wherein the control device has a measuring unit , which is designed to detect respective electric currents (I V1 , I V2 ) flowing through the respective power semiconductor component parts (V1, V2) and that the at least one driver element is designed to set an amount and/or a time curve of the respective electrical voltages (U G1 , U G2 ) as a function of the respective electric currents (I V1 , I V2 ), characterised in that the at least one driver element (GU, GU1, GU2) is designed to set a periodic change in the respective electrical voltages (U G1 , U G2 ) applied at the control connections by adjusting a gradient of the edges of the respective electrical voltages (U G1 , U G2 ) when the power semiconductor component parts (V1, V2) are switched on and/or switched off as a function of the respective electric currents (I V1 , I V2 ), wherein the electrical voltages (U G1 , U G2 ) have straight edges when switched on and/or switched off, wherein the at least one driver element (GU, GU1, GU2) is designed to set the respective electrical voltages (U G1 , U G2 ) on the basis of voltages set during a preceding operation of the power module , wherein the electrical currents (I V1 , I V2 ), which flow through the power semiconductor component parts (V1, V2) with specific settings with respect to the electrical voltages (U G1 , U G2 ), are stored and the at least one driver element (GU, GU1, GU2) is designed to determine the change in the respective electrical voltages (U G1 , U G2 ) on the basis of the preceding settings.
A rod-shaped aerosol-generating article for use with an electrically heated aerosol-generating device, the article comprising a substrate core and a filler sleeve surrounding the substrate core , the substrate core comprising an aerosol-forming substrate and having a non-circular outer cross-section , and the filler sleeve having a circular outer cross-section and comprising a heat resistant filler material that is heat resistant up to at least 150 degree Celsius.
A method for forming an ophthalmic lens through direct injection molding comprising: forming a first mold insert comprising a body section (14;91); said first mold insert comprising a lens forming surface including a raised non-uniform region in a peripheral zone of the lens forming surface , the raised non-uniform region having an opening (56;102) formed through the lens forming surface in the location of the raised non-uniform region , and a fluid channel (50;100) passing through the body section (14;91) and in fluid communication with the opening (56;102); placing the first mold insert (88;94) into a mold block (10;82) so that the lens forming surface of the first mold insert (88;94) and the raised non-uniform region form part of a lens-shaped cavity (18;95); providing a lens forming composition through the fluid channel (50;100) and the opening (56;102) so that an amount of the lens forming composition is deposited in the lens-shaped cavity (18;95); and allowing the lens forming composition to cure, polymerize or set to form a lens body retaining the shape of the lens-shaped cavity (18;95). forming a first mold insert comprising a body section (14;91); said first mold insert comprising a lens forming surface including a raised non-uniform region in a peripheral zone of the lens forming surface , the raised non-uniform region having an opening (56;102) formed through the lens forming surface in the location of the raised non-uniform region , and a fluid channel (50;100) passing through the body section (14;91) and in fluid communication with the opening (56;102); placing the first mold insert (88;94) into a mold block (10;82) so that the lens forming surface of the first mold insert (88;94) and the raised non-uniform region form part of a lens-shaped cavity (18;95); providing a lens forming composition through the fluid channel (50;100) and the opening (56;102) so that an amount of the lens forming composition is deposited in the lens-shaped cavity (18;95); and allowing the lens forming composition to cure, polymerize or set to form a lens body retaining the shape of the lens-shaped cavity (18;95).
A multi-layer flexible packaging material comprising the following layers from the outer surface to the inner surface: - an aluminium layer having a thickness in the range of 20-500 nm, - a paper layer having a grammage of 40 to 120 g/m2, - a nanoclay barrier coating layer having a grammage in the range of 0.4-4 g/m2, and - a sealing layer applied to the surface of the nanoclay barrier coating layer representing the inner surface of the multi-layer flexible packaging material, wherein said sealing layer is selected from the group consisting of acrylic acid copolymers, vinyl acetate, ethyl vinyl acetate, modified xylanes, chemically modified starch, or combinations thereof, said multilayer flexible barrier material being deprived of a polyolefin layer, such as polyethylene (PE), or a polypropylene (PP) layer, and of a polyethylene terephthalate (PET) layer. - an aluminium layer having a thickness in the range of 20-500 nm, - a paper layer having a grammage of 40 to 120 g/m2, - a nanoclay barrier coating layer having a grammage in the range of 0.4-4 g/m2, and - a sealing layer applied to the surface of the nanoclay barrier coating layer representing the inner surface of the multi-layer flexible packaging material, wherein said sealing layer is selected from the group consisting of acrylic acid copolymers, vinyl acetate, ethyl vinyl acetate, modified xylanes, chemically modified starch, or combinations thereof,
A method for controlling a multi sensor solar collection system , the method comprising: providing a plurality of different sets of solar cells (130a-i, 430a-i), wherein the different sets of the solar cells (130a-i, 430a-i) have different spectral response properties; tracking, with a solar tracker , a light source for a light beam , wherein the solar tracker is able to control the movement of a housing that houses at least one focusing element and the plurality of different sets of solar cells (130a-i, 430a-i); characterized in that the method further comprises: moving the housing, by means of the solar tracker, according to a current light condition so the at least one focusing element focuses the light beam on a first set of the solar cells according to the current light condition; and moving the housing, by means of the solar tracker, according to a change in the current light condition so the at least one focusing element focuses the light beam onto a second set of the solar cells. providing a plurality of different sets of solar cells (130a-i, 430a-i), wherein the different sets of the solar cells (130a-i, 430a-i) have different spectral response properties; tracking, with a solar tracker , a light source for a light beam , wherein the solar tracker is able to control the movement of a housing that houses at least one focusing element and the plurality of different sets of solar cells (130a-i, 430a-i); characterized in that the method further comprises: moving the housing, by means of the solar tracker, according to a current light condition so the at least one focusing element focuses the light beam on a first set of the solar cells according to the current light condition; and moving the housing, by means of the solar tracker, according to a change in the current light condition so the at least one focusing element focuses the light beam onto a second set of the solar cells. moving the housing, by means of the solar tracker, according to a current light condition so the at least one focusing element focuses the light beam on a first set of the solar cells according to the current light condition; and moving the housing, by means of the solar tracker, according to a change in the current light condition so the at least one focusing element focuses the light beam onto a second set of the solar cells.
A backup management method, comprising: receiving a backup protocol entered by a user, the backup protocol comprising information of a backup target machine and information of a backup medium , the backup target machine corresponding to a machine where source data of data to be backed up is located, and the backup medium corresponding to a dynamically expandable storage system; generating a backup task based on the backup protocol; and sending the backup task to a backup client provided on the backup target machine so as to cause the backup client to execute the backup task, wherein the backup protocol further comprises a backup data path , a backup matching rule and a backup cycle , and wherein the backup data path corresponds to a location of the source data on the backup target machine, the backup matching rule corresponds to a regular expression for screening the source data to generate the data to be backed up, and the backup cycle corresponds to a frequency at which the backup task is executed, wherein said regular expression describes a pattern for string matching. receiving a backup protocol entered by a user, the backup protocol comprising information of a backup target machine and information of a backup medium , the backup target machine corresponding to a machine where source data of data to be backed up is located, and the backup medium corresponding to a dynamically expandable storage system; generating a backup task based on the backup protocol; and sending the backup task to a backup client provided on the backup target machine so as to cause the backup client to execute the backup task, wherein the backup protocol further comprises a backup data path , a backup matching rule and a backup cycle , and wherein the backup data path corresponds to a location of the source data on the backup target machine, the backup matching rule corresponds to a regular expression for screening the source data to generate the data to be backed up, and the backup cycle corresponds to a frequency at which the backup task is executed, wherein said regular expression describes a pattern for string matching.
A combination comprising: a) a cyclic depsipeptide which is emodepside; b) a macrocyclic lactone which is ivermectin; and a pharmaceutically acceptable carrier; for use in the treatment or prophylaxis of a parasitic infection in a mammal, wherein the parasitic infection comprises Dirofilaria immitis that is resistant to treatment or prophylaxis with ivermectin alone. a) a cyclic depsipeptide which is emodepside; b) a macrocyclic lactone which is ivermectin; and
A method of monitoring an abnormal host, being applied to a data processing device for examining Address Resolution Protocol, APR, packets in an Ethernet Virtual Private Network, EVPN, the method comprising: obtaining host information of a plurality of deployed hosts in the EVPN from a controller, wherein the host information for each of the plurality of deployed hosts comprises address information of the respective deployed host, wherein the deployed host is a host that is actually deployed on a network and is a legitimate host; obtaining routing information of a to-be-detected host , wherein the routing information comprises address information of the to-be-detected host, wherein the to-be-detected host is a host that is required to be detected; determining whether the address information of the plurality of deployed hosts comprises the address information of the to-be-detected host; and determining that the to-be-detected host is an abnormal host when the address information of the plurality of deployed hosts does not comprise the address information of the to-be-detected host, characterised in that before obtaining the routing information of the to-be-detected host, further comprising: negotiating with a routing management device to establish a Border Gateway Protocol, BGP, peer with the routing management device; and obtaining the routing information of the to-be-detected host comprises: receiving the routing information of the to-be-detected host which is sent by the routing management device. obtaining host information of a plurality of deployed hosts in the EVPN from a controller, wherein the host information for each of the plurality of deployed hosts comprises address information of the respective deployed host, wherein the deployed host is a host that is actually deployed on a network and is a legitimate host; obtaining routing information of a to-be-detected host , wherein the routing information comprises address information of the to-be-detected host, wherein the to-be-detected host is a host that is required to be detected; determining whether the address information of the plurality of deployed hosts comprises the address information of the to-be-detected host; and determining that the to-be-detected host is an abnormal host when the address information of the plurality of deployed hosts does not comprise the address information of the to-be-detected host, characterised in that before obtaining the routing information of the to-be-detected host, further comprising: negotiating with a routing management device to establish a Border Gateway Protocol, BGP, peer with the routing management device; and obtaining the routing information of the to-be-detected host comprises: receiving the routing information of the to-be-detected host which is sent by the routing management device. negotiating with a routing management device to establish a Border Gateway Protocol, BGP, peer with the routing management device; and obtaining the routing information of the to-be-detected host comprises: receiving the routing information of the to-be-detected host which is sent by the routing management device.
A process for the production of a stable water-in-oil emulsion comprising a fat phase and an aqueous phase, wherein the process comprises: a) a pre-mixing step, wherein the aqueous phase and the fat phase are blended under low shear using a stirrer tip speed of less than 1.5 m/s; b) a single high shear emulsification step wherein the aqueous phase and the fat phase are mixed using a stirrer tip speed of at least 2 m/s in a scraped surface heat exchanger for up to 90 seconds, wherein the outlet temperature of the emulsion is 26-30°C; and c) a cooling step to cool the emulsion to a temperature of 10-20°C, wherein the fat phase consists essentially of cocoa butter and one or more emulsifiers and wherein the emulsion obtained in step b) is not subsequently subjected to any further high shear mixing using a stirrer tip speed of at least 2 m/s. a) a pre-mixing step, wherein the aqueous phase and the fat phase are blended under low shear using a stirrer tip speed of less than 1.5 m/s; b) a single high shear emulsification step wherein the aqueous phase and the fat phase are mixed using a stirrer tip speed of at least 2 m/s in a scraped surface heat exchanger for up to 90 seconds, wherein the outlet temperature of the emulsion is 26-30°C; and c) a cooling step to cool the emulsion to a temperature of 10-20°C,
Method for producing a lithium-ion cell for an energy storage unit of a motor vehicle, comprising the following steps: - Providing an anode , a cathode , an electrolyte and a separator arranged/to be arranged between anode and cathode , - Providing a reference electrode produced from lithium titanate, characterized in that the reference electrode is produced by pressing lithium titanate powder, wherein the reference electrode is pressed directly onto the separator . - Providing an anode , a cathode , an electrolyte and a separator arranged/to be arranged between anode and cathode , - Providing a reference electrode produced from lithium titanate,
A moving part control system for a vehicle and a mechanical part which can be plugged in or unplugged from the vehicle, the moving part control system being configured to cause a movement of the mechanical part for loosening the mechanical part from a stuck state to a loose state with regards to the vehicle, the moving part control system comprises: an electrically controlled actuator device configured to cause an oscillating movement of the mechanical part ; a processing circuitry configured to be operatively connected to the electrically controlled actuator device and configured to: - determine an amplitude and/or a frequency of the oscillating movement of the electrically controlled actuator device to determine if the mechanical part is in a stuck state or a loose state. an electrically controlled actuator device configured to cause an oscillating movement of the mechanical part ; a processing circuitry configured to be operatively connected to the electrically controlled actuator device and configured to: - determine an amplitude and/or a frequency of the oscillating movement of the electrically controlled actuator device to determine if the mechanical part is in a stuck state or a loose state. - determine an amplitude and/or a frequency of the oscillating movement of the electrically controlled actuator device to determine if the mechanical part is in a stuck state or a loose state.
Alkoxysilane-functionalized and allophanate-functionalized urethanes comprising the reaction product of I. A) alkoxysilane group-containing monourethanes A) of the formula 1 R n (OR 1 ) 3-n Si-R 2 -NH-(C=O)-OR 3 formula 1 where R n , R 1 , R 2 and R 3 are each independently hydrocarbyl radicals having 1-8 carbon atoms, which may be linear, branched or cyclic, or else may be integrated together to form a cyclic system, and n is 0-2, and B) at least one diisocyanate B), in a molar ratio of A) to B) of from 1.0:1.5 to 1.0:0.6, preferably 1.15:1 to 0.85:1, particularly preferably 1:1, optionally in the presence of at least one catalyst K), II. and the subsequent reaction C) with at least one diol and/or polyol C), optionally in the presence of at least one catalyst K), in the ratio of the NCO groups of reaction product I. to the OH groups of the diol and/or polyol II. C) of from 1.0:1.5 to 1.0:0.6, preferably 1.15:1 to 0.85:1, particularly preferably 1:1. I. A) alkoxysilane group-containing monourethanes A) of the formula 1 R n (OR 1 ) 3-n Si-R 2 -NH-(C=O)-OR 3 formula 1 where R n , R 1 , R 2 and R 3 are each independently hydrocarbyl radicals having 1-8 carbon atoms, which may be linear, branched or cyclic, or else may be integrated together to form a cyclic system, and n is 0-2, and B) at least one diisocyanate B), in a molar ratio of A) to B) of from 1.0:1.5 to 1.0:0.6, preferably 1.15:1 to 0.85:1, particularly preferably 1:1, optionally in the presence of at least one catalyst K), A) alkoxysilane group-containing monourethanes A) of the formula 1 R n (OR 1 ) 3-n Si-R 2 -NH-(C=O)-OR 3 formula 1 where R n , R 1 , R 2 and R 3 are each independently hydrocarbyl radicals having 1-8 carbon atoms, which may be linear, branched or cyclic, or else may be integrated together to form a cyclic system, and n is 0-2, and B) at least one diisocyanate B), in a molar ratio of A) to B) of from 1.0:1.5 to 1.0:0.6, preferably 1.15:1 to 0.85:1, particularly preferably 1:1, optionally in the presence of at least one catalyst K), II. and the subsequent reaction C) with at least one diol and/or polyol C), optionally in the presence of at least one catalyst K), in the ratio of the NCO groups of reaction product I. to the OH groups of the diol and/or polyol II. C) of from 1.0:1.5 to 1.0:0.6, preferably 1.15:1 to 0.85:1, particularly preferably 1:1.
A method for testing a brake system (B) of a vehicle (F), wherein simulation results are used for adapting a test on a test stand (P), characterised in that a flow simulation model (S1) of the vehicle (F) is created from geometric data (G) of the vehicle (F), and a flow simulation model (S2) of the test stand (P) is created, and based on the flow simulation model (S1) of the vehicle (F) a simulation result for the vehicle (F) is calculated with at least one input variable of the vehicle (F) with respect to thermal behavior of the brake system of the vehicle, and a change (Δ) of at least one input variable for the test stand (P) in the flow simulation model (S2) of the test stand (P) is performed until a simulation result for the test stand (P) of the flow simulation model (S2) of the test stand (P) is achieved, which simulation result corresponds essentially to the simulation result for the vehicle (F), and in that the at least one input variable for the test stand (P) is set as at least one input variable for a test in the test stand (P) and the test is thus carried out.
A method of focusing a spectral optical coherence tomography (OCT) system, comprising: eliminating an OCT signal that is caused by interference between a beam in a reference arm of the OCT system and a beam in an object arm of the OCT system; setting a focus of the OCT system at a variety of values; for each focus value, measuring the autocorrelation signal strength in a beam reflected from a patient's eye, and storing the measured signal strength and the focus value in association with each other; determining a maximum of the stored signal strengths ; determining as an optimal focus value the focus value stored in association with the maximum of the stored signal strengths; and setting the focus of the OCT system to the optimal focus value. eliminating an OCT signal that is caused by interference between a beam in a reference arm of the OCT system and a beam in an object arm of the OCT system; setting a focus of the OCT system at a variety of values; for each focus value, measuring the autocorrelation signal strength in a beam reflected from a patient's eye, and storing the measured signal strength and the focus value in association with each other; determining a maximum of the stored signal strengths ; determining as an optimal focus value the focus value stored in association with the maximum of the stored signal strengths; and setting the focus of the OCT system to the optimal focus value.
A mobile radio communication terminal device comprising: a receiver configured to receive one or more wireless signals from one or more mobile radio cells; and a first circuit configured to determine a signal quality of a synchronization sequence for the one or more mobile radio cells contained in the one or more wireless signals and a second circuit configured to further evaluate a mobile radio cell when its synchronization sequence signal quality is determined by the first circuit to be above a threshold. a receiver configured to receive one or more wireless signals from one or more mobile radio cells; and a first circuit configured to determine a signal quality of a synchronization sequence for the one or more mobile radio cells contained in the one or more wireless signals and a second circuit configured to further evaluate a mobile radio cell when its synchronization sequence signal quality is determined by the first circuit to be above a threshold.