mhurhangee/patent-ind-claim-en huggingface dataset:
A motor control apparatus, comprising: an inverter configured to apply a motor driving voltage to a motor based on a control signal; a current detection unit configured to detect a motor driving current applied to the motor; and a microcontroller configured to sample the motor driving current, to generate the control signal based on the motor driving current, and to output the control signal to the inverter, characterized in that : the motor control apparatus further comprises: a phase compensation unit configured to compensate a phase error corresponding to a delay time of the microcontroller generating the control signal, the delay time is a time of starting the sampling to the time of applying the motor driving voltage to the motor. an inverter configured to apply a motor driving voltage to a motor based on a control signal; a current detection unit configured to detect a motor driving current applied to the motor; and a microcontroller configured to sample the motor driving current, to generate the control signal based on the motor driving current, and to output the control signal to the inverter, characterized in that : the motor control apparatus further comprises: a phase compensation unit configured to compensate a phase error corresponding to a delay time of the microcontroller generating the control signal, the delay time is a time of starting the sampling to the time of applying the motor driving voltage to the motor. a phase compensation unit configured to compensate a phase error corresponding to a delay time of the microcontroller generating the control signal, the delay time is a time of starting the sampling to the time of applying the motor driving voltage to the motor.
A method of controlling an electrically heated aerosol-generating device configured to receive an aerosol-generating substrate, the device comprising a rechargeable power supply, and at least one electrical heating element , the method comprising: monitoring the ambient temperature adjacent the device; providing power to the heating element from the rechargeable power supply in dependence on the ambient temperature adjacent the device: providing power to the heating element , when the ambient temperature adjacent the device is within a pre-determined temperature range; and preventing power being supplied to the heating element , when the ambient temperature adjacent the device is below the lower end of the predetermined temperature range. providing power to the heating element from the rechargeable power supply in dependence on the ambient temperature adjacent the device: providing power to the heating element , when the ambient temperature adjacent the device is within a pre-determined temperature range; and preventing power being supplied to the heating element , when the ambient temperature adjacent the device is below the lower end of the predetermined temperature range.
A safety alarm system that signals an emergency condition, comprising: a notification server with a network interface; a wireless station server configured to enable communication with communication devices ; a database associated with the wireless station server , wherein the database contains identifiers for the communication devices and a language identifier; and a control panel configured to push a text-based alert message to a cloud gateway that is able to send the alert message to the notification server , where the notification server is arranged for receiving the alert message at the network interface and for converting the alert message into a first audio alert message and a second audio alert message being formatted for transmission to communication devices and where the first audio alert message and the second audio alert message provide notice of the emergency condition, where the first audio alert message having a first language is converted in a cloud gateway from a text message via a text-to-speech translation module in the notification server , where the second audio alert message having a second language is converted by a multilingual speech translation module in the notification server , where the wireless station server identifies the communication devices to receive one of the first audio alert message or the second audio alert message based on the language of the alert message identified by part of the database, and wherein the notification server and the cloud gateway are implemented as a single device or co-located device. a notification server with a network interface; a wireless station server configured to enable communication with communication devices ; a database associated with the wireless station server , wherein the database contains identifiers for the communication devices and a language identifier; and a control panel configured to push a text-based alert message to a cloud gateway that is able to send the alert message to the notification server , where the notification server is arranged for receiving the alert message at the network interface and for converting the alert message into a first audio alert message and a second audio alert message being formatted for transmission to communication devices and where the first audio alert message and the second audio alert message provide notice of the emergency condition, where the first audio alert message having a first language is converted in a cloud gateway from a text message via a text-to-speech translation module in the notification server , where the second audio alert message having a second language is converted by a multilingual speech translation module in the notification server , where the wireless station server identifies the communication devices to receive one of the first audio alert message or the second audio alert message based on the language of the alert message identified by part of the database, and wherein the notification server and the cloud gateway are implemented as a single device or co-located device.
A synergistic fungicide mixture comprising: a compound of Formula I: and one or two additional fungicides selected from the group consisting of: a succinate dehydrogenase inhibitors (SDHI), a MET III Qo inhibitor, a multi-site inhibitor (MSI), a sterol biosynthesis inhibitors (SBI) and any combinations thereof, wherein each additional fungicide is selected from the group consisting of: benzovindiflupyr, fluxapyroxad, bixafen, pydiflumetofen, picoxystrobin, azoxystrobin, pyraclostrobin, trifloxystrobin, metominostrobin, prothioconazole, epoxiconazole, tebuconazole, cyproconazole, difenoconazole, mefentrifluconazole, propiconazole, tetraconazole, fenpropimorph, chlorothalonil, mancozeb, Cu oxychloride and any combinations thereof. and one or two additional fungicides selected from the group consisting of: a succinate dehydrogenase inhibitors (SDHI), a MET III Qo inhibitor, a multi-site inhibitor (MSI), a sterol biosynthesis inhibitors (SBI) and any combinations thereof, wherein each additional fungicide is selected from the group consisting of: benzovindiflupyr, fluxapyroxad, bixafen, pydiflumetofen, picoxystrobin, azoxystrobin, pyraclostrobin, trifloxystrobin, metominostrobin, prothioconazole, epoxiconazole, tebuconazole, cyproconazole, difenoconazole, mefentrifluconazole, propiconazole, tetraconazole, fenpropimorph, chlorothalonil, mancozeb, Cu oxychloride and any combinations thereof.
A method of connecting a crockery item to a contactlessly readable electronic information carrier comprising the steps providing the crockery item , the crockery item comprising a material selected from a group consisting of glass, ceramic and plastic or a combination thereof, applying a carrier layer to a surface of the crockery item , applying the information carrier to a surface of the carrier layer , that is remote from the surface of the crockery item , wherein a base surface of the information carrier is smaller than a surface of the carrier layer , and applying a cover layer of printing ink in such a way that the cover layer at least portion-wise covers a surface of the information carrier , that is remote from the carrier layer and the surface of the carrier layer characterised in that the carrier layer includes a plastically deformable material, wherein applying of the information carrier to the carrier layer includes impressing the information carrier into the carrier layer , and wherein a surface of the cover layer is larger than the surface of the carrier layer so that the cover layer over the entire periphery of the carrier layer extends beyond the carrier layer onto the surface of the crockery item . providing the crockery item , the crockery item comprising a material selected from a group consisting of glass, ceramic and plastic or a combination thereof, applying a carrier layer to a surface of the crockery item , applying the information carrier to a surface of the carrier layer , that is remote from the surface of the crockery item , wherein a base surface of the information carrier is smaller than a surface of the carrier layer , and applying a cover layer of printing ink in such a way that the cover layer at least portion-wise covers a surface of the information carrier , that is remote from the carrier layer and the surface of the carrier layer characterised in that the carrier layer includes a plastically deformable material, wherein applying of the information carrier to the carrier layer includes impressing the information carrier into the carrier layer , and wherein a surface of the cover layer is larger than the surface of the carrier layer so that the cover layer over the entire periphery of the carrier layer extends beyond the carrier layer onto the surface of the crockery item .
A field-flow fractionation device for the continuous separation of sample components comprising: a. A channel comprising a sample inlet and a plurality of sample outlets , the channel being suitable for being coupled to a flow generator for translocating the sample components along the channel in a first direction from the sample inlet to the plurality of sample outlets , b. An actuator , distinct from the flow generator, coupled to the channel , for translocating the sample components in a second direction , at a first angle with the first direction , c. An array of electrodes , distinct from the flow generator, and which is distinct from the actuator , being - arranged in a plurality of rows , and - comprising electrical connections for electrically connecting the array to an AC power source in such a way that adjacent rows can be set at different AC potentials and every other row can be set at the same AC potential; characterized in that - the array of electrodes is in a path taken by the sample components in the channel , and - the electrodes have a height of from 80 to 100% of the channel height. a. A channel comprising a sample inlet and a plurality of sample outlets , the channel being suitable for being coupled to a flow generator for translocating the sample components along the channel in a first direction from the sample inlet to the plurality of sample outlets , b. An actuator , distinct from the flow generator, coupled to the channel , for translocating the sample components in a second direction , at a first angle with the first direction , c. An array of electrodes , distinct from the flow generator, and which is distinct from the actuator , being - arranged in a plurality of rows , and - comprising electrical connections for electrically connecting the array to an AC power source in such a way that adjacent rows can be set at different AC potentials and every other row can be set at the same AC potential; characterized in that - the array of electrodes is in a path taken by the sample components in the channel , and - the electrodes have a height of from 80 to 100% of the channel height. - arranged in a plurality of rows , and - comprising electrical connections for electrically connecting the array to an AC power source in such a way that adjacent rows can be set at different AC potentials and every other row can be set at the same AC potential; - the array of electrodes is in a path taken by the sample components in the channel , and - the electrodes have a height of from 80 to 100% of the channel height.
An endoscopic instrument with a flexible shank which at least in sections is surrounded by a flexible tube and which comprises at least two segments which are connected to one another via two diametrically opposed joints and between whose axial face edges which face one another a gap is present, wherein the gap runs in an angled manner at least once, characterised in that the axial face edges of the two segments which face one another, between the two joints run in an S-shaped curved manner parallel to the axis such that each face edge comprises a first section which projects axially further compared to an adjacent second section , and wherein the gap between the two axial face edges has a constant width along its extension in the non-angled position.
Method for transmitting at least one procedural instruction, in which process data which are not in readable text form and which correspond in coded form to the procedural instruction are transmitted via a contactless interface from the process unit to a portable conversion apparatus, wherein the procedural instruction relates to a process unit which is a production line, a throughput machine, a packaging machine or a processing centre, for packaging or handling workpieces which preferably consist at least partially of wood, wood materials, plastic or the like, wherein the contactless interface displays the process data corresponding to the coded procedural instruction on a screen display in the form of a binary symbol having a black and white pattern; the process data are acquired by an acquisition apparatus of the conversion apparatus and decoded into the procedural instruction, and the procedural instruction is issued in readable text form by an output apparatus of the conversion apparatus, wherein the acquisition apparatus has a camera and an operator photographs the binary symbol displayed on the screen display of the process unit for acquisition with the camera, and after the procedural instruction is output, the operator goes to the point of the process unit where the procedure is to be performed, and then performs the procedure in accordance with the procedural instruction. wherein the procedural instruction relates to a process unit which is a production line, a throughput machine, a packaging machine or a processing centre, for packaging or handling workpieces which preferably consist at least partially of wood, wood materials, plastic or the like, wherein the contactless interface displays the process data corresponding to the coded procedural instruction on a screen display in the form of a binary symbol having a black and white pattern; the process data are acquired by an acquisition apparatus of the conversion apparatus and decoded into the procedural instruction, and the procedural instruction is issued in readable text form by an output apparatus of the conversion apparatus, wherein the acquisition apparatus has a camera and an operator photographs the binary symbol displayed on the screen display of the process unit for acquisition with the camera, and after the procedural instruction is output, the operator goes to the point of the process unit where the procedure is to be performed, and then performs the procedure in accordance with the procedural instruction.
A method of increasing communication security, said method comprising: receiving, from a first computer system at a second computer system, a message including a data portion, wherein said data portion is associated with a security token, and wherein said data portion includes a session key; performing, at said second computer system, processing associated with said message, wherein said processing includes accessing, from said data portion, a first unique identifier associated with said first computer system, and wherein said processing further includes accessing, from a portion of said message other than said data portion, a second unique identifier associated with said first computer system; and accessing, responsive to said processing, said session key from said data portion, wherein said accessing further comprises accessing said session key if said first unique identifier correlates to said second unique identifier. receiving, from a first computer system at a second computer system, a message including a data portion, wherein said data portion is associated with a security token, and wherein said data portion includes a session key; performing, at said second computer system, processing associated with said message, wherein said processing includes accessing, from said data portion, a first unique identifier associated with said first computer system, and wherein said processing further includes accessing, from a portion of said message other than said data portion, a second unique identifier associated with said first computer system; and accessing, responsive to said processing, said session key from said data portion, wherein said accessing further comprises accessing said session key if said first unique identifier correlates to said second unique identifier.
A method for determining a wind turbine component design, the method comprising the steps of: modelling a radiating component of the wind turbine as a plurality of elements, wherein each element represents a physical portion of the radiating component of the wind turbine and at least a portion of each of the elements are acoustically coupled to one or more of the other elements; applying, at an interface of the modelled radiating component, a simulation of a vibrational source located within the wind turbine; using a transfer function to determine the transmission of vibrations from the interface with the vibrational source to the elements; determining tonal noise radiated from the plurality of elements to an environment external to the wind turbine based upon the transmission of vibrations from the interface through the elements; and modifying the design of the radiating component of the wind turbine, or of a component between the radiating component and the vibrational source, to reduce the tonal noise radiated from the radiating component, further including the step of determining a vibrational transfer path through the elements taken by vibrations having a frequency that corresponds to tonal noise during transfer of the vibrations from the source interface to the plurality of elements. modelling a radiating component of the wind turbine as a plurality of elements, wherein each element represents a physical portion of the radiating component of the wind turbine and at least a portion of each of the elements are acoustically coupled to one or more of the other elements; applying, at an interface of the modelled radiating component, a simulation of a vibrational source located within the wind turbine; using a transfer function to determine the transmission of vibrations from the interface with the vibrational source to the elements; determining tonal noise radiated from the plurality of elements to an environment external to the wind turbine based upon the transmission of vibrations from the interface through the elements; and modifying the design of the radiating component of the wind turbine, or of a component between the radiating component and the vibrational source, to reduce the tonal noise radiated from the radiating component, further including the step of determining a vibrational transfer path through the elements taken by vibrations having a frequency that corresponds to tonal noise during transfer of the vibrations from the source interface to the plurality of elements.
An epoxy resin composition satisfying condition 2 shown below, wherein a cured resin obtained by reacting the epoxy resin composition at 150°C for 60 minutes has a tensile elongation at break of 7% or more, determined as described in the description: Condition 2: the epoxy resin composition includes components [D], [E], and [F] shown below, further comprises 2 to 10 parts by mass of a triblock copolymer component per 100 parts by mass of total epoxy resin, and 40 to 70 parts by mass of component [G]: a dicyclopentadiene type epoxy resin per 100 parts by mass of total epoxy resin, and satisfies conditions [a] and [b] shown below: [D]: a core-shell type rubber particle [E]: a boric acid ester compound [F]: a curing agent [a]: the epoxy resin composition includes 9 to 18 parts by mass of the component [D] per 100 parts by mass of total epoxy resin [b]: 0.003 ≤ (content of the component [E]/content of the component [D]) ≤ 0.05 [D]: a core-shell type rubber particle [E]: a boric acid ester compound [F]: a curing agent [a]: the epoxy resin composition includes 9 to 18 parts by mass of the component [D] per 100 parts by mass of total epoxy resin [b]: 0.003 ≤ (content of the component [E]/content of the component [D]) ≤ 0.05
A valve for regulating a flow cross section in a throttle flap connector, having a throttle flap which is mounted in the throttle flap connector so as to be rotatable about an axis of rotation, wherein the throttle flap is rotatable about the axis of rotation, by means of an actuator which acts on the throttle flap, counter to a force generated by a mechanical spring , wherein the throttle flap, in at least a first position, is fixable in said first position by means of a magnet device , and wherein the magnet device comprises a permanent magnet which is arranged in positionally fixed fashion in a cutout in a housing of the throttle flap connector and a magnetic counterpart which is arranged on the rotatable throttle flap.