mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing control signals for a transmission from a transmitting device to a receiving device using a mobile communication connection between the transmitting device and the receiving device, wherein the mobile communication connection comprises a voice channel, the method comprising: providing user data, at the transmitting device, the user data comprising the control signals; and mapping , at the transmitting device, the user data on a predetermined number of frequencies of a discrete frequency spectrum of the voice channel of the mobile communication connection, wherein the user data comprises a plurality of data elements, characterized in that the control signals are used for controlling an operation of the receiving device, the step of mapping comprises assigning each data element to a unique combination of frequencies, and assigning each data element to a unique combination of frequencies causes each data element to be represented by a unique structure of the discrete frequency spectrum of the voice channel, the discrete frequency spectrum having a plurality of frequency positions, and the discrete frequency spectrum comprising peaks at a subset of the plurality of the frequency positions and zeros at the remaining frequency positions. providing user data, at the transmitting device, the user data comprising the control signals; and mapping , at the transmitting device, the user data on a predetermined number of frequencies of a discrete frequency spectrum of the voice channel of the mobile communication connection, wherein the user data comprises a plurality of data elements, characterized in that the control signals are used for controlling an operation of the receiving device, the step of mapping comprises assigning each data element to a unique combination of frequencies, and assigning each data element to a unique combination of frequencies causes each data element to be represented by a unique structure of the discrete frequency spectrum of the voice channel, the discrete frequency spectrum having a plurality of frequency positions, and the discrete frequency spectrum comprising peaks at a subset of the plurality of the frequency positions and zeros at the remaining frequency positions.
A washing machine, comprising a washing chamber , a water inlet passage , a liquid outlet passage , and a treating agent input device for inputting a liquid or colloidal treating agent into the washing chamber , wherein: the treating agent input device comprises an independent treating agent container , a mounting chamber for receiving the treating agent container , and a mixing chamber for receiving the treating agent and water, the mixing chamber is connected to the water inlet passage and the liquid outlet passage separately, the liquid outlet passage is connected to the washing chamber, to introduce a mixed liquid of the treating agent and water into the washing chamber, a pressing-type suction device is mounted on the treating agent container , the suction device comprises a reciprocating pressure head and a conveying channel connected to the pressure head and in fluid communication with the treating agent container , the pressure head comprises a liquid outlet , the liquid outlet is in space communication with the mixing chamber , so that the treating agent enters the mixing chamber after passing through the liquid outlet , and a pressure applying device controlled by a control device is disposed opposite to the pressure head , and can push the pressure head to move in a direction towards the treating agent container , to pump the treating agent out of the treating agent container , characterized in that a piston is disposed in the treating agent container , wherein the piston moves toward the pressure head under the action of a pressure difference as an amount of the treating agent decreases.
A method comprising: receiving , at a computer device , first vehicle telemetry data (1306a-d) from each vehicle of a plurality of vehicles (1302a-d), wherein the first vehicle telemetry data comprises, for each vehicle of the plurality of vehicles (1302a-d), an indication of a geographical location of the vehicle, and wherein at least one vehicle of the plurality of vehicles (1302a-d) is an autonomous vehicle; presenting , by a display device associated with the computer device , a user interface (2300, 3000a/b) generated based on the first vehicle telemetry data (1306a-d), wherein the user interface (2300, 3000a/b) comprises a graphical map and one or more first display elements, each first display element indicating at least a respective geographical location of a respective vehicle of the plurality of vehicles (1302a-d); receiving , at the computer device , a first user input selecting a particular vehicle of the plurality of vehicles (1302a-d); responsive to receiving the first user input : retrieving , by the computer device , second vehicle telemetry data from the selected vehicle, and presenting , by the display device , a visual representation of at least a portion of the first vehicle telemetry data (1306a-d) or a portion of the second vehicle telemetry data regarding the selected vehicle on the user interface (2300, 3000a/b). receiving , at a computer device , first vehicle telemetry data (1306a-d) from each vehicle of a plurality of vehicles (1302a-d), wherein the first vehicle telemetry data comprises, for each vehicle of the plurality of vehicles (1302a-d), an indication of a geographical location of the vehicle, and wherein at least one vehicle of the plurality of vehicles (1302a-d) is an autonomous vehicle; presenting , by a display device associated with the computer device , a user interface (2300, 3000a/b) generated based on the first vehicle telemetry data (1306a-d), wherein the user interface (2300, 3000a/b) comprises a graphical map and one or more first display elements, each first display element indicating at least a respective geographical location of a respective vehicle of the plurality of vehicles (1302a-d); receiving , at the computer device , a first user input selecting a particular vehicle of the plurality of vehicles (1302a-d); responsive to receiving the first user input : retrieving , by the computer device , second vehicle telemetry data from the selected vehicle, and presenting , by the display device , a visual representation of at least a portion of the first vehicle telemetry data (1306a-d) or a portion of the second vehicle telemetry data regarding the selected vehicle on the user interface (2300, 3000a/b). retrieving , by the computer device , second vehicle telemetry data from the selected vehicle, and presenting , by the display device , a visual representation of at least a portion of the first vehicle telemetry data (1306a-d) or a portion of the second vehicle telemetry data regarding the selected vehicle on the user interface (2300, 3000a/b).
An anti-HIV compound having the following formula (III-11-111): Wherein: R 5 is a straight or branched C 1-8 alkoxy group; X is S, O or SO 2; R 16 is H; or an anti-HIV compound as represented by a structure selected from the following group: or R 5 is a straight or branched C 1-8 alkoxy group; X is S, O or SO 2; R 16 is H; or an anti-HIV compound as represented by a structure selected from the following group: or
A positive electrode for an air battery, the positive electrode comprising: a current collector; and a porous layer including an electroconductive material, wherein the current collector includes a base and a plurality of projections disposed on at least a first major surface of the base, the first major surface of the base is a planar surface, the porous layer is disposed on the first major surface of the base and is in contact with the first major surface, and the projections are in contact with the porous layer in an interior of the porous layer. a current collector; and a porous layer including an electroconductive material, wherein the current collector includes a base and a plurality of projections disposed on at least a first major surface of the base, the first major surface of the base is a planar surface, the porous layer is disposed on the first major surface of the base and is in contact with the first major surface, and the projections are in contact with the porous layer in an interior of the porous layer.
A retardation film comprising a composition or a cured product thereof, the composition comprising: an acrylate-based resin wherein the acrylate-based resin is poly(methyl methacrylate) (PMMA); a retardation adjusting agent; and a triazine-based birefringence adjusting agent, characterized in that the triazine-based birefringence adjusting agent is comprised in an amount of 6 parts by weight to 15 parts by weight based on 100 parts by weight of the acrylate-based resin, and the retardation adjusting agent has a glass transition temperature of 130°C or more, is a styrene-maleic anhydride (SMA) copolymer and is comprised in an amount of 30 parts by weight to 85 parts by weight based on 100 parts by weight of the acrylate-based resin, and the retardation film satisfies the following Equations 2 and 3: 0.7 ≤ R in 450 / R in 550 ≤ 1.0 1.0 ≤ R in 650 / R in 550 ≤ 1.2 in Equations 2 and 3, R in (λ) is a retardation in the in-plane direction at a wavelength of λ nm and a value of (n x -n y ) × d, n x is the refractive index of the retardation film surface in the slow axis direction, n y is the refractive index of the retardation film surface in the fast axis direction, and d is the thickness of the retardation film. an acrylate-based resin wherein the acrylate-based resin is poly(methyl methacrylate) (PMMA); a retardation adjusting agent; and a triazine-based birefringence adjusting agent, characterized in that the triazine-based birefringence adjusting agent is comprised in an amount of 6 parts by weight to 15 parts by weight based on 100 parts by weight of the acrylate-based resin, and the retardation adjusting agent has a glass transition temperature of 130°C or more, is a styrene-maleic anhydride (SMA) copolymer and is comprised in an amount of 30 parts by weight to 85 parts by weight based on 100 parts by weight of the acrylate-based resin, and the retardation film satisfies the following Equations 2 and 3: 0.7 ≤ R in 450 / R in 550 ≤ 1.0 1.0 ≤ R in 650 / R in 550 ≤ 1.2 in Equations 2 and 3, R in (λ) is a retardation in the in-plane direction at a wavelength of λ nm and a value of (n x -n y ) × d, n x is the refractive index of the retardation film surface in the slow axis direction, n y is the refractive index of the retardation film surface in the fast axis direction, and d is the thickness of the retardation film. in Equations 2 and 3, R in (λ) is a retardation in the in-plane direction at a wavelength of λ nm and a value of (n x -n y ) × d, n x is the refractive index of the retardation film surface in the slow axis direction, n y is the refractive index of the retardation film surface in the fast axis direction, and d is the thickness of the retardation film.
A plasma non-stick pan comprising: a pan body and a non-stick layer applied to the pan body, a plasma layer is provided between the non-stick layer and the pan body; the plasma layer comprises a MCrALY layer sprayed to the surface of the pan body and a mixture layer sprayed outside of the MCrALY layer , and the mixture layer is composed of MCrALY particles and metal oxide particles, characterized in that a cushion layer is provided between the MCrALY layer and the mixture layer , the cushion layer is composed of a mixture of 70-80% MCrALY and 20-30% metal oxide particles and the mixture layer is composed of a mixture of 40-50% MCrALY particles and 50-60% of metal oxide particles.
A collecting container for storing rejected objects in a sorting system, said collecting container having an inlet opening designed for feeding rejected objects into the interior of the collecting container , and a withdrawal device designed for withdrawing one or more rejected objects from the interior of the collecting container , said withdrawal device having a flap supported rotatably about a rotational axis and having two side walls mounted on the side of the flap , characterized in that the collecting container has a guiding device with at least one guiding track and at least one bolt engaging with the guiding track during the operation of the collecting container , wherein the guiding track is arranged either on a side wall of the flap or on the side of the collecting container and the bolt is correspondingly arranged opposite either on the side of the collecting container or on the side wall of the flap , and in that the guiding track has two end positions and at least one intermediate position located between the end positions , which are each designed as a recess at the bottom of the guiding track or as a through-hole, wherein the respective diameter of a through-hole is greater than the width of the guiding track , or in that the collecting container has a guiding device with at least one guiding track and at least one bolt engaging with the guiding track during the operation of the collecting container , wherein the guiding track is arranged on a side wall of the flap and the bolt is arranged opposite on the side of the collecting container , in that the rotational axis can be displaced linearly at a right angle to itself, and in that the guiding track has a first circular segment and a second circular segment (309") which are connected to each other, therein forming an intermediate position and having different radii, wherein the rotational axis forms the center of the first circular segment and the second circular segment (309"), and the bolt is designed as a guiding bolt .
A device adapted to control a switching power supply circuit, the switching power supply circuit includes a pair of input terminals (P1, P2), a pair of output terminals (P3, P4), a first chopper circuit and a second chopper circuit which are parallel connected to each other between said pair of input terminals (P1, P2) and said pair of output terminals (P3, P4) and each of which performs a chopping operation, the control device comprising: a mode controller operable to shift an operation mode of said first chopper circuit and said second chopper circuit from a first mode to a second mode via a third mode as an electric power in said first chopper and said second chopper increases; and an operation controller characterized in that said operation controller is configured to cause in a first mode (M1) said first chopper to constantly perform chopping operation and said second chopper to constantly suspend chopping operation; wherein the operation controller is operable to cause in a second mode (M3) said first chopper and said second chopper to constantly perform said chopping operation; the operation controller is configured to cause in a third mode said first chopper and said second chopper to alternately perform said chopping operation; and said mode controller is configured to shift said operation mode of said first chopper circuit and said second chopper circuit from said first mode (M1) to said second mode (M3) via said third mode (M2) as the electric power of the first chopper circuit and the second chopper circuit increases; a mode controller operable to shift an operation mode of said first chopper circuit and said second chopper circuit from a first mode to a second mode via a third mode as an electric power in said first chopper and said second chopper increases; and an operation controller characterized in that said operation controller is configured to cause in a first mode (M1) said first chopper to constantly perform chopping operation and said second chopper to constantly suspend chopping operation; wherein the operation controller is operable to cause in a second mode (M3) said first chopper and said second chopper to constantly perform said chopping operation; the operation controller is configured to cause in a third mode said first chopper and said second chopper to alternately perform said chopping operation; and said mode controller is configured to shift said operation mode of said first chopper circuit and said second chopper circuit from said first mode (M1) to said second mode (M3) via said third mode (M2) as the electric power of the first chopper circuit and the second chopper circuit increases;
A photonic crystal fiber having a plurality of holes arranged in quartz of the optical fiber in a hexagonal close-packed manner with a hole interval A along a longitudinal direction, wherein, in a cross section, a hole ratio which is an area of the holes per unit area is larger in a central side than in an outer side in a portion corresponding to a cladding, a diameter d1 of the holes in the central side is larger than a diameter d of the holes in the outer side, and, when A is represented in a horizontal axis and d1/d is represented in a vertical axis, the hole interval A, the diameter d1 of the holes in the central side, and the diameter d of the holes in the outer side are in a region where respective regions represented by mathematical formulas C1 overlap, by setting d1 > d, an effective refractive index of a first hole layer adjacent to the core region formed by not arranging holes in a region corresponding to seven holes in the center of the optical fiber becomes lower than that of a hole layer on the outer side thereof, an effective cross-sectional area is 500 μm2 or more, loss with respect to the LP02 mode is 0.1dB/m or more such that the LP02 mode is not propagated for light of a wavelength range of 1.05 μm to 1.07 μm, and a bending loss of the basic mode is 1 dB/km with a bending radius of 500 mm or less in the wavelength range. [Mathematical Formulas C1] When Λ ≤ 11.8 μ m , The range enclosed by d 1 / d ≤ 0.633 Λ − 5.467 , and d 1 / d ≥ 1 , When 11.8 μ m < Λ ≤ 15.4 μ m , The range enclosed by d 1 / d ≤ − 0.0429 Λ + 2.486 , and d 1 / d ≥ 1 , When 15.4 μ m < Λ ≤ 16.8 μ m , The range enclosed by d 1 / d ≤ 0.0454 Λ + 1.13 , and d 1 / d ≥ 1 , When 16.8 μ m < Λ , The range enclosed by d 1 / d ≤ 0.0454 Λ + 1.13 , and d 1 / d ≥ 0.117 Λ − 0.96
A communication apparatus comprising: a sensor configured to generate a moisture event based on detection of moisture; a sensor response control component configured to receive the moisture event and, in response, generate a user notification ; a user interface configured to output the user notification and to receive a user input in response to the user notification , wherein the sensor response control component is further configured to shut down at least one of the communication apparatus or a subsystem of the communication apparatus based on the user input in response to the user notification; a first power source configured to provide power to the communication apparatus; and a second power source configured to provide power to the subsystem of the communication apparatus, and wherein the sensor response control component is further configured to disconnect the second power source based on the user input in response to the user notification. a sensor configured to generate a moisture event based on detection of moisture; a sensor response control component configured to receive the moisture event and, in response, generate a user notification ; a user interface configured to output the user notification and to receive a user input in response to the user notification , wherein the sensor response control component is further configured to shut down at least one of the communication apparatus or a subsystem of the communication apparatus based on the user input in response to the user notification; a first power source configured to provide power to the communication apparatus; and a second power source configured to provide power to the subsystem of the communication apparatus, and wherein the sensor response control component is further configured to disconnect the second power source based on the user input in response to the user notification.
A combine harvester for harvesting a crop, the harvester comprising: a housing ; a separating system contained within the housing for separating a seed material from a straw material of the crop; a cleaning system including a cleaning fan configured to produce a motive flow of air; a straw chopper operable to chop the straw material from the separating system into a chopped straw material; a spreading system positioned downstream of the straw chopper and configured to disperse the chopped straw material from the housing ; and an air discharge channel located downstream of the straw chopper and above the spreading system and configured to discharge a portion of the motive flow of air produced by the cleaning fan , characterized in that the combine harvester includes a straw slide for use when windrowing straw, wherein the discharge channel includes an inlet and an outlet , and wherein the outlet is positioned upstream of the straw slide to discharge air over the straw slide . a housing ; a separating system contained within the housing for separating a seed material from a straw material of the crop; a cleaning system including a cleaning fan configured to produce a motive flow of air; a straw chopper operable to chop the straw material from the separating system into a chopped straw material; a spreading system positioned downstream of the straw chopper and configured to disperse the chopped straw material from the housing ; and an air discharge channel located downstream of the straw chopper and above the spreading system and configured to discharge a portion of the motive flow of air produced by the cleaning fan , characterized in that the combine harvester includes a straw slide for use when windrowing straw, wherein the discharge channel includes an inlet and an outlet , and wherein the outlet is positioned upstream of the straw slide to discharge air over the straw slide .
A computer implemented method for generating itineraries comprising: receiving a departure location and a destination location; identifying a first weather forecast for a first intermediary location between the departure location and the destination location at a first intermediary time, the first weather forecast comprising a first probability of a specific type of precipitation at a specific rate; identifying a second weather forecast for a second intermediary location between the departure location and the destination location at a second intermediary time, the second weather forecast comprising a second probability of the specific type of precipitation at the specific rate; determining a first weather risk score for a first itinerary including the first intermediary location based on the first weather forecast; determining a second weather risk score for a second itinerary including the second intermediary location based on the second weather forecast; selecting either the first itinerary or the second itinerary based at least in part on a comparison of the first weather risk score and the second weather risk score; and outputting the selected itinerary. receiving a departure location and a destination location; identifying a first weather forecast for a first intermediary location between the departure location and the destination location at a first intermediary time, the first weather forecast comprising a first probability of a specific type of precipitation at a specific rate; identifying a second weather forecast for a second intermediary location between the departure location and the destination location at a second intermediary time, the second weather forecast comprising a second probability of the specific type of precipitation at the specific rate; determining a first weather risk score for a first itinerary including the first intermediary location based on the first weather forecast; determining a second weather risk score for a second itinerary including the second intermediary location based on the second weather forecast; selecting either the first itinerary or the second itinerary based at least in part on a comparison of the first weather risk score and the second weather risk score; and outputting the selected itinerary.