mhurhangee/patent-ind-claim-en huggingface dataset:
A plasma generator comprising: a first case configured to store water to be treated; a second case disposed inside the first case and including a body comprising top and bottom sides that are open and a cover covering the top side of the body to seal the top side and creating a closed state of constant volume of gas inside the second case when the first case is filled with the water to be treated such that a water surface of the water to be treated is located at and closes the bottom side of the body; a first electrode disposed such that at least a portion of the first electrode is immersed in the water to be treated and is disposed in a position that is not overlapped with the second case in a vertical direction; and a second electrode which is a high-voltage electrode and which is disposed inside the second case in a closed space above the water surface of the water to be treated. a first case configured to store water to be treated; a second case disposed inside the first case and including a body comprising top and bottom sides that are open and a cover covering the top side of the body to seal the top side and creating a closed state of constant volume of gas inside the second case when the first case is filled with the water to be treated such that a water surface of the water to be treated is located at and closes the bottom side of the body; a first electrode disposed such that at least a portion of the first electrode is immersed in the water to be treated and is disposed in a position that is not overlapped with the second case in a vertical direction; and a second electrode which is a high-voltage electrode and which is disposed inside the second case in a closed space above the water surface of the water to be treated.
A system for battery pack thermal management, wherein the battery pack comprising at least one cell stack comprising a plurality of battery cells arranged in the cell stack, wherein the system comprising a cooling element arranged at least on a top face of the battery cells and comprising a first heat exchange surface and second heat exchange surface opposite the first heat exchange surface, wherein the cooling element comprising at least one extension arranged on the first exchange surface; the first heat exchange surface is configured to be in thermal contact with at least one battery cell busbar and heat producing hotspot area of the battery cell casing; the second heat exchange surface is configured to be in thermal contact with at least one electrical circuit component of the battery pack; thermal energy is configured to be conducted from the at least one battery cell busbar, heat producing hotspot area of the battery cells, and at least one electrical circuit component to the cooling element; and the extension of the cooling element comprising at least one fin. a cooling element arranged at least on a top face of the battery cells and comprising a first heat exchange surface and second heat exchange surface opposite the first heat exchange surface, wherein the cooling element comprising at least one extension arranged on the first exchange surface; the first heat exchange surface is configured to be in thermal contact with at least one battery cell busbar and heat producing hotspot area of the battery cell casing; the second heat exchange surface is configured to be in thermal contact with at least one electrical circuit component of the battery pack; thermal energy is configured to be conducted from the at least one battery cell busbar, heat producing hotspot area of the battery cells, and at least one electrical circuit component to the cooling element; and the extension of the cooling element comprising at least one fin.
An electronic tag for obtaining information relating to the integrity of a product as assessed from an exposure of said product to physical or environmental conditions during a time span, said tag comprising - a main part comprising an electronics unit ; said electronics unit comprising - a control unit; - a sensor unit comprising at least one sensor for monitoring said physical or environmental conditions; - a display unit comprising a display for displaying data relating to said integrity referred to as status data; - a switch referred to as display switch ; wherein said control unit is structured and configured for effecting that said display unit displays said status data in reaction to an operation of said display switch ; characterized in that said electronics unit comprises a switch referred to as terminating switch, wherein the display switch and the terminating switch are identical or are different from each other; and the tag comprises a rip strip comprising a breakable electrical connection operationally connected to said electronics unit , and in that said control unit is structured and configured for - detecting a breaking of said electrical connection; and - starting said monitoring in reaction to said detecting said breaking of said electrical connection; and - terminating said monitoring in reaction to an operation of said terminating switch. - a main part comprising an electronics unit ; - a control unit; - a sensor unit comprising at least one sensor for monitoring said physical or environmental conditions; - a display unit comprising a display for displaying data relating to said integrity referred to as status data; - a switch referred to as display switch ; - detecting a breaking of said electrical connection; and - starting said monitoring in reaction to said detecting said breaking of said electrical connection; and - terminating said monitoring in reaction to an operation of said terminating switch.
A system comprising: a debug control interface, DCI, unit; a Type-C connector; a Universal Serial Bus, USB, physical, phy, interface coupled to the Type-C connector, the USB phy interface having at least one transceiver, lanes between the at least one transceiver of the USB phy interface and the Type-C connector being configured for receiving or transmitting DCI signals based on configuration channel, CC, pin detection and orientation; and interface logic coupled to the DCI unit and the USB phy interface to exchange debug control interface, DCI, signaling between the connector and the DCI unit, wherein USB D+ and/or USB D- lanes of the Type-C connector are used for exchanging the DCI signaling and the DCI signaling including boundary scan side band, BSSB, control and data signals. a debug control interface, DCI, unit; a Type-C connector; a Universal Serial Bus, USB, physical, phy, interface coupled to the Type-C connector, the USB phy interface having at least one transceiver, lanes between the at least one transceiver of the USB phy interface and the Type-C connector being configured for receiving or transmitting DCI signals based on configuration channel, CC, pin detection and orientation; and interface logic coupled to the DCI unit and the USB phy interface to exchange debug control interface, DCI, signaling between the connector and the DCI unit, wherein USB D+ and/or USB D- lanes of the Type-C connector are used for exchanging the DCI signaling and the DCI signaling including boundary scan side band, BSSB, control and data signals.
A compound sustained-release composition of naltrexone and risperidone, comprising the following components in parts by weight: 5-10 parts of naltrexone sustained-release microspheres; and 1-2 parts of risperidone sustained-release microspheres, the risperidone sustained-release microspheres being prepared by a W 1 /O/W 2 double emulsion-solvent evaporation method, and the naltrexone sustained-release microspheres being prepared by an O/W emulsification-solvent evaporation method. 5-10 parts of naltrexone sustained-release microspheres; and 1-2 parts of risperidone sustained-release microspheres, the risperidone sustained-release microspheres being prepared by a W 1 /O/W 2 double emulsion-solvent evaporation method, and the naltrexone sustained-release microspheres being prepared by an O/W emulsification-solvent evaporation method.
An array speaker, comprising: an axisymmetric device housing; audio driver assemblies distributed radially about and defining a recess within an interior of the axisymmetric device housing, each of the audio driver assemblies including a diaphragm arranged to generate audio waves initially oriented toward the recess; and a power supply unit suspended above and coupled to supply power to the audio driver assemblies, a portion of the power supply unit extends into the recess defined by the audio driver assemblies. an axisymmetric device housing; audio driver assemblies distributed radially about and defining a recess within an interior of the axisymmetric device housing, each of the audio driver assemblies including a diaphragm arranged to generate audio waves initially oriented toward the recess; and a power supply unit suspended above and coupled to supply power to the audio driver assemblies, a portion of the power supply unit extends into the recess defined by the audio driver assemblies.
A heat energy transport system comprising: a heat medium transport path in which heat media that transport heat energy are transported; a heat source configured to be connected to the heat medium transport path and supply the heat energy to the heat medium transport path ; a heat demand end configured to be connected to the heat medium transport path and take out the heat energy from the heat medium transport path ; characterized in that it further comprises temperature distribution acquisition means configured to acquire temperature distribution of sequentially transported heat media , the heat media being distributed in the heat medium transport path in a state of having temperatures that are different from each other, wherein a series of heat media having the same temperature has a predetermined length along a heat transport direction in the heat medium transport path , wherein the heat demand end is configured to make a load request; and a control means configured to receive the load request of the heat demand end and, when a heat medium having the heat energy that, based on the temperature distribution acquired by the temperature distribution acquisition means , satisfies the load request reaches the heat demand end that makes the load request, configured to cause the heat demand end to take out the heat energy from a heat medium. a heat medium transport path in which heat media that transport heat energy are transported; a heat source configured to be connected to the heat medium transport path and supply the heat energy to the heat medium transport path ; a heat demand end configured to be connected to the heat medium transport path and take out the heat energy from the heat medium transport path ; characterized in that it further comprises temperature distribution acquisition means configured to acquire temperature distribution of sequentially transported heat media , the heat media being distributed in the heat medium transport path in a state of having temperatures that are different from each other, wherein a series of heat media having the same temperature has a predetermined length along a heat transport direction in the heat medium transport path , wherein the heat demand end is configured to make a load request; and a control means configured to receive the load request of the heat demand end and, when a heat medium having the heat energy that, based on the temperature distribution acquired by the temperature distribution acquisition means , satisfies the load request reaches the heat demand end that makes the load request, configured to cause the heat demand end to take out the heat energy from a heat medium.
An air braking system for a vehicle comprising: a brake input member configured to receive a brake request, the brake input member mechanically actuating a treadle valve of a treadle circuit having a treadle circuit air pressure; a sensor that measures the brake request at the treadle circuit; a controller configured to determine a control valve command based on the brake request from the sensor and based on a regenerative braking level; a control valve configured to control a delivered air pressure level in a brake relay circuit based on the control valve command, wherein the brake relay circuit includes a relay valve and is configured to communicate the delivered air pressure level to a vehicle brake , characterized in that , a mechanical bypass valve that is operable to directly communicate treadle pressure to the relay valve when the requested brake pressure is greater than an override limit. a brake input member configured to receive a brake request, the brake input member mechanically actuating a treadle valve of a treadle circuit having a treadle circuit air pressure; a sensor that measures the brake request at the treadle circuit; a controller configured to determine a control valve command based on the brake request from the sensor and based on a regenerative braking level; a control valve configured to control a delivered air pressure level in a brake relay circuit based on the control valve command, wherein the brake relay circuit includes a relay valve and is configured to communicate the delivered air pressure level to a vehicle brake , characterized in that , a mechanical bypass valve that is operable to directly communicate treadle pressure to the relay valve when the requested brake pressure is greater than an override limit.
Cutting device for an agricultural harvesting machine comprising: a drive , a transmission arrangement having an input element drivingly connected to said drive and driven reciprocatingly by said drive along an input travel, the transmission arrangement being a traction drive arrangement and the input element being a traction means, and a knife having a plurality of cutting edges , said knife being drivingly connected to an output element (8, 31,) of the transmission arrangement (2, 22,) and driven thereby in a linearly reciprocating manner along an output travel that is longer than the input travel, characterized in that the cutting edges of the knife each pass at least two counter-cutting edges of the cutting device during a movement in one direction (S1, S2) along the entire output travel. a drive , a transmission arrangement having an input element drivingly connected to said drive and driven reciprocatingly by said drive along an input travel, the transmission arrangement being a traction drive arrangement and the input element being a traction means, and a knife having a plurality of cutting edges , said knife being drivingly connected to an output element (8, 31,) of the transmission arrangement (2, 22,) and driven thereby in a linearly reciprocating manner along an output travel that is longer than the input travel, characterized in that the cutting edges of the knife each pass at least two counter-cutting edges of the cutting device during a movement in one direction (S1, S2) along the entire output travel.
A method of manufacturing a coupling element configured to couple light between an optical device and one or more optical fiber , the method comprising: forming one or more waveguide in silica material of the coupling element , the one or more waveguide having a refractive index configured to guide the light between the optical device and the one or more optical fiber , wherein the forming of the one or more waveguide comprises photo-inducing a refractive index variation of the silica material, and wherein the one or more waveguide comprises a first waveguide portion and a second waveguide portion extending in a different direction to the first waveguide portion , and forming a mirror configured to reflect light between the first waveguide portion and the second waveguide portion . forming one or more waveguide in silica material of the coupling element , the one or more waveguide having a refractive index configured to guide the light between the optical device and the one or more optical fiber , wherein the forming of the one or more waveguide comprises photo-inducing a refractive index variation of the silica material, and wherein the one or more waveguide comprises a first waveguide portion and a second waveguide portion extending in a different direction to the first waveguide portion , and forming a mirror configured to reflect light between the first waveguide portion and the second waveguide portion .
An inventory control system comprising: a tool storage device including a drawer or a tray providing a pallet , wherein the pallet includes storage locations for objects ; and a camera (310; 710) configured to form an image of the storage locations ; characterized by a data processor configured to determine 1) presence or absence of the pallet within the drawer or the tray of the tool storage device and 2) presence or absence of objects within the storage locations of the pallet using information from the image. a tool storage device including a drawer or a tray providing a pallet , wherein the pallet includes storage locations for objects ; and a camera (310; 710) configured to form an image of the storage locations ; characterized by a data processor configured to determine 1) presence or absence of the pallet within the drawer or the tray of the tool storage device and 2) presence or absence of objects within the storage locations of the pallet using information from the image. 1) presence or absence of the pallet within the drawer or the tray of the tool storage device and 2) presence or absence of objects within the storage locations of the pallet using information from the image.
A cooking hob suitable for heating a cooking vessel containing a liquid , said cooking hob being suitable for receiving a measurement of the temperature of the liquid contained in said cooking vessel , said cooking hob implementing a cooking program comprising the steps of: - providing a known heating power to said cooking vessel, during a temperature rise phase , - determining a value representative of the heat capacity of an assembly to be heated comprising said cooking vessel and its contents, by dividing the heating energy provided during a first measurement period comprised in said temperature rise phase, by the rise in temperature of said liquid during said first measurement period, and - detecting the boiling of said liquid , corresponding to the end of said temperature rise phase and the start of a boiling maintenance phase, said cooking hob being characterized in that the cooking program comprises a step consisting of - providing a heating power, during said boiling maintenance phase , at a power level selected based upon said value representative of the heat capacity of said assembly to be heated, determined during said temperature rise phase . - providing a known heating power to said cooking vessel, during a temperature rise phase , - determining a value representative of the heat capacity of an assembly to be heated comprising said cooking vessel and its contents, by dividing the heating energy provided during a first measurement period comprised in said temperature rise phase, by the rise in temperature of said liquid during said first measurement period, and - detecting the boiling of said liquid , corresponding to the end of said temperature rise phase and the start of a boiling maintenance phase, said cooking hob being characterized in that the cooking program comprises a step consisting of - providing a heating power, during said boiling maintenance phase , at a power level selected based upon said value representative of the heat capacity of said assembly to be heated, determined during said temperature rise phase .
A system for determining a touch contact location for each of one or more touch contacts, comprising: a touch detector configured to receive a disturbed version of a signal that has been disturbed by a touch input on a surface, wherein prior to the touch input, the signal was transmitted by a transmitter for propagation through a propagating medium with the surface and the touch input disturbed the signal propagating through the propagating medium ; and a processor included in the touch detector and configured to: transform the received disturbed version of the signal to determine a spatial domain signal; the system being characterised in that the processor is further configured to: determine a hypothesis of a number of one or more simultaneous touch contacts in the touch input; determine a plurality of sets of potential touch contact locations for the hypothesis of the number of simultaneous touch contacts in the touch input; determine an expected signal for each set of the plurality of sets of potential touch contact locations; compare the spatial domain signal with each of the expected signals; and determine the touch contact location for each of the one or more touch contacts of the touch input based at least in part on the comparisons. a touch detector configured to receive a disturbed version of a signal that has been disturbed by a touch input on a surface, wherein prior to the touch input, the signal was transmitted by a transmitter for propagation through a propagating medium with the surface and the touch input disturbed the signal propagating through the propagating medium ; and a processor included in the touch detector and configured to: transform the received disturbed version of the signal to determine a spatial domain signal; the system being characterised in that the processor is further configured to: determine a hypothesis of a number of one or more simultaneous touch contacts in the touch input; determine a plurality of sets of potential touch contact locations for the hypothesis of the number of simultaneous touch contacts in the touch input; determine an expected signal for each set of the plurality of sets of potential touch contact locations; compare the spatial domain signal with each of the expected signals; and determine the touch contact location for each of the one or more touch contacts of the touch input based at least in part on the comparisons. transform the received disturbed version of the signal to determine a spatial domain signal; the system being characterised in that the processor is further configured to: determine a hypothesis of a number of one or more simultaneous touch contacts in the touch input; determine a plurality of sets of potential touch contact locations for the hypothesis of the number of simultaneous touch contacts in the touch input; determine an expected signal for each set of the plurality of sets of potential touch contact locations; compare the spatial domain signal with each of the expected signals; and determine the touch contact location for each of the one or more touch contacts of the touch input based at least in part on the comparisons.