mhurhangee/patent-ind-claim-en huggingface dataset:
An oral cannabinoid containing formulation comprising: (i) one or more cannabinoids dissolved in a solvent system for use as an active ingredient present in an amount of from 0.5 to 50 mg/mL; (ii) macrogolglycerol hydroxystearate for use as a non-ionic surfactant present in an amount of from 10 to 500 mg/mL; (iii) glycerol for use as a taste masking agent which improves the formulation palatability present in an amount of from 5 to 50 mg/mL; (iv) sucralose for use as a sweetener present in an amount of from 0.1 to 15 mg/mL; (v) ascorbic acid for use as an antioxidant which enhances the cannabinoids stability present in an amount of from 0.1 to 15 mg/mL; (vi) peppermint oil for use as a flavour present in an amount of from 0.1 to 15 mg/mL; (vii) methyl parahydroxybenzoate for use as a preservative present in an amount of from 0.1 to 15 mg/mL; (viii) propyl parahydroxybenzoate for use as a preservative present in an amount of from 0.1 to 15 mg/mL; and (ix) water for use as a solvent Q.S. to 100%. (i) one or more cannabinoids dissolved in a solvent system for use as an active ingredient present in an amount of from 0.5 to 50 mg/mL; (ii) macrogolglycerol hydroxystearate for use as a non-ionic surfactant present in an amount of from 10 to 500 mg/mL; (iii) glycerol for use as a taste masking agent which improves the formulation palatability present in an amount of from 5 to 50 mg/mL; (iv) sucralose for use as a sweetener present in an amount of from 0.1 to 15 mg/mL; (v) ascorbic acid for use as an antioxidant which enhances the cannabinoids stability present in an amount of from 0.1 to 15 mg/mL; (vi) peppermint oil for use as a flavour present in an amount of from 0.1 to 15 mg/mL; (vii) methyl parahydroxybenzoate for use as a preservative present in an amount of from 0.1 to 15 mg/mL; (viii) propyl parahydroxybenzoate for use as a preservative present in an amount of from 0.1 to 15 mg/mL; and (ix) water for use as a solvent Q.S. to 100%.
A fuel cell system which comprises - a fuel cell which decomposes hydrocarbon-based fuel in order to produce electrical energy, - a fuel tank , from which fuel can be fed into the fuel cell, - a treatment unit for treatment of decomposition products, and - a separation means adapted to direct decomposition products of the fuel cell therethrough and into the treatment unit, the separation means is selective with regard to the decomposition products to be treated, the treatment unit comprising an agent which is capable of reacting with the carbon dioxide which is generated in the fuel cell, and with which it is possible to transform the carbon dioxide into a liquid or solid compound, characterized in that - the fuel tank and the treatment unit are at least partly separated from each other by a movable shared wall , which is made of a flexible and elastic material in order to even out the pressure difference, the volume difference or both of them, between the fuel tank and the treatment unit . - a fuel cell which decomposes hydrocarbon-based fuel in order to produce electrical energy, - a fuel tank , from which fuel can be fed into the fuel cell, - a treatment unit for treatment of decomposition products, and - a separation means adapted to direct decomposition products of the fuel cell therethrough and into the treatment unit, the separation means is selective with regard to the decomposition products to be treated, the treatment unit comprising an agent which is capable of reacting with the carbon dioxide which is generated in the fuel cell, and with which it is possible to transform the carbon dioxide into a liquid or solid compound, characterized in that - the fuel tank and the treatment unit are at least partly separated from each other by a movable shared wall , which is made of a flexible and elastic material in order to even out the pressure difference, the volume difference or both of them, between the fuel tank and the treatment unit .
A first connector for exchanging power and data with a receiving system of a device with a second magnet 1314a-b), the first connector magnetically couplable with a second connector of the device, the first connector comprising: a connector body coupled to a cable ; a first permanent ring magnet (1116a-b, 1218a-b) disposed within the connector body and configured such that the connector body is alignable and magnetically couplable with the second connector and configurable to interact with the second magnet; and a transmission system disposed within the connector body, wherein the transmission system is configurable to send at least one of power and data via inductive charging and/or radio frequency data communication to the receiving system of the device in any one of the multiple orientations in which the first permanent ring magnet is magnetically coupled to the second magnet, the transmission system being positioned relative the first permanent ring magnet so that the transmission system is alignable with the receiving system. a connector body coupled to a cable ; a first permanent ring magnet (1116a-b, 1218a-b) disposed within the connector body and configured such that the connector body is alignable and magnetically couplable with the second connector and configurable to interact with the second magnet; and a transmission system disposed within the connector body, wherein the transmission system is configurable to send at least one of power and data via inductive charging and/or radio frequency data communication to the receiving system of the device in any one of the multiple orientations in which the first permanent ring magnet is magnetically coupled to the second magnet, the transmission system being positioned relative the first permanent ring magnet so that the transmission system is alignable with the receiving system.
A power module comprising: a housing (H1, H2) having an opening; a baseplate (L0) within the opening and comprising aluminum silicon carbide; a power substrate (L3) on the baseplate, the power substrate comprising silicon nitride; a bottom metal trace layer (L2) that is arranged between the power substrate and the baseplate; a top metal trace layer (L4) that is arranged on an opposite side of the power substrate from the bottom metal trace layer (L2); and characterized by : six switch modules (SM5-SM10) mounted on the top metal trace layer (L2) of the power substrate, each switch module comprising a silicon carbide transistor (Q5-Q10) coupled in anti-parallel with a silicon carbide diode, and a plurality of pins (13P-28P) is connected to one or more terminals of the silicon carbide transistor. a housing (H1, H2) having an opening; a baseplate (L0) within the opening and comprising aluminum silicon carbide; a power substrate (L3) on the baseplate, the power substrate comprising silicon nitride; a bottom metal trace layer (L2) that is arranged between the power substrate and the baseplate; a top metal trace layer (L4) that is arranged on an opposite side of the power substrate from the bottom metal trace layer (L2); and characterized by : six switch modules (SM5-SM10) mounted on the top metal trace layer (L2) of the power substrate, each switch module comprising a silicon carbide transistor (Q5-Q10) coupled in anti-parallel with a silicon carbide diode, and a plurality of pins (13P-28P) is connected to one or more terminals of the silicon carbide transistor.
A measuring system for a slider for industrial plants, in particular for plants in the fields of chemistry, petrochemistry, iron or steel production, glass production or energy and environmental technology, for measuring the position of a linearly movable component of the slider, characterised in that a measuring device for transmitting and receiving radar signals is connected to a probe for guiding the radar signals, wherein a reflection element is guided in the probe and can be coupled to the linearly movable component in such a way that a position of the component corresponds to a position of the reflection element in the probe .
An airfoil for a gas turbine engine , the airfoil comprising: an airfoil section having an airfoil wall surrounding a cavity , the airfoil wall including an exterior monolithic ceramic shell and an interior ceramic matrix composite (CMC) liner bonded with the exterior monolithic ceramic shell , the exterior monolithic ceramic shell including a first shell piece having a first side edge and a second shell piece having a second side edge, the first and second side edges defining sides of an elongated trench and the CMC liner defining a floor of the trench , the floor including a plurality of orifices through the CMC liner connecting the cavity and the trench .
A dehumidifier, comprising a main body and a front panel , a compressor is arranged in said main body , and is positioned at a bottom of said main body , said front panel is arranged on an outside of said main body ; wherein, a lower seal panel for shielding said compressor is further included, said lower seal panel is disposed on said main body and positioned between said front panel and said compressor; characterized in that : at least one elastic member is disposed between said lower seal panel and said front panel ; the elastic member is an elastic plastic part ; the elastic plastic part is fixedly disposed on said lower seal panel and arranged at the lower end edge of the lower seal panel ; a latching slot is disposed on the front panel at a position corresponding to a position of the elastic plastic part on the lower seal panel ; and the elastic plastic part on the lower seal panel is installed in the latching slot on the front panel . wherein, a lower seal panel for shielding said compressor is further included, said lower seal panel is disposed on said main body and positioned between said front panel and said compressor; characterized in that : at least one elastic member is disposed between said lower seal panel and said front panel ; the elastic member is an elastic plastic part ; the elastic plastic part is fixedly disposed on said lower seal panel and arranged at the lower end edge of the lower seal panel ; a latching slot is disposed on the front panel at a position corresponding to a position of the elastic plastic part on the lower seal panel ; and the elastic plastic part on the lower seal panel is installed in the latching slot on the front panel . at least one elastic member is disposed between said lower seal panel and said front panel ; the elastic member is an elastic plastic part ; the elastic plastic part is fixedly disposed on said lower seal panel and arranged at the lower end edge of the lower seal panel ; a latching slot is disposed on the front panel at a position corresponding to a position of the elastic plastic part on the lower seal panel ; and the elastic plastic part on the lower seal panel is installed in the latching slot on the front panel .
A random access preamble transmission method, comprising: obtaining , by a terminal device, a scrambling code sequence; scrambling , by the terminal device, a random access preamble by using the scrambling code sequence; and sending , by the terminal device, a scrambled random access preamble to a network device; characterized by wherein an index of the scrambling code sequence is a function of the cell identifier, and scrambling code sequences corresponding to indexes of different scrambling code sequences are orthogonal to each other through synchronization or cyclic shift; and wherein the scrambling code sequence is c ( m )= e j2umπ / k , wherein m = 0, 1, 2, ..., or k - 1, u is the index of the scrambling code sequence, u = N ID Ncell mod k or u = N ID Ncell mod k − 1 , N ID Ncell is the cell identifier, and k is a length of the scrambling code sequence; and wherein the length of the scrambling code sequence is equal to one of: a quantity of the symbols in one symbol group of the random access preamble; a quantity of the symbols in one repetition period of the random access preamble; a quantity of the symbols in all the repetition periods of the random access preamble; a quantity of symbol groups in one repetition period of the random access preamble; a quantity of symbol groups in all repetition periods of the random access preamble and wherein a scrambling code of a cyclic prefix in each symbol group is the same as a scrambling code of a last symbol in the symbol group in which the cyclic prefix is located. obtaining , by a terminal device, a scrambling code sequence; scrambling , by the terminal device, a random access preamble by using the scrambling code sequence; and sending , by the terminal device, a scrambled random access preamble to a network device; characterized by wherein an index of the scrambling code sequence is a function of the cell identifier, and scrambling code sequences corresponding to indexes of different scrambling code sequences are orthogonal to each other through synchronization or cyclic shift; and wherein the scrambling code sequence is c ( m )= e j2umπ / k , wherein m = 0, 1, 2, ..., or k - 1, u is the index of the scrambling code sequence, u = N ID Ncell mod k or u = N ID Ncell mod k − 1 , N ID Ncell is the cell identifier, and k is a length of the scrambling code sequence; and wherein the length of the scrambling code sequence is equal to one of: a quantity of the symbols in one symbol group of the random access preamble; a quantity of the symbols in one repetition period of the random access preamble; a quantity of the symbols in all the repetition periods of the random access preamble; a quantity of symbol groups in one repetition period of the random access preamble; a quantity of symbol groups in all repetition periods of the random access preamble and wherein a scrambling code of a cyclic prefix in each symbol group is the same as a scrambling code of a last symbol in the symbol group in which the cyclic prefix is located.
Sound transducer arrangement for transmitting and/or receiving waterborne sound signals, the transducer arrangement comprising an antenna with a plurality of transducers and a tow cable and being towable in the water by means of a towing vessel , the transducer arrangement comprising a tensioning frame , the tensioning frame being tensioned in a tensioning state during a towing operation, the tensioning frame being designed to utilise the water resistance in order to stretch the antenna and to position the antenna flexibly in a defined orientation with respect to an averaged water surface , and wherein the transducer arrangement comprises a pulling device and a switching element for controlling the pulling device, which is adapted to pull the transducer arrangement or the tensioning frame together, to wind the sound transducer arrangement onto the winch of a towing vessel in order to retrieve the sound transducer arrangement after completion of the towing process, wherein the sound transducer arrangement is designed to be deployed into the water by means of a winch from the towing vessel in the contracted state.
A mass spectrometer comprising: a high pressure region and a low pressure region which are interconnected by an orifice (13; 16; 18; 25), wherein the high pressure region is substantially at atmospheric pressure; a housing arranged in the high pressure region and around the orifice, wherein the housing has an inlet opening (12; 17; 24) in communication with the orifice such that components from a sample to be analysed may enter the housing from the high pressure region and then pass through the orifice into the low pressure region, and wherein the housing has first and second outlet openings in communication with and provided on opposite sides of the orifice; and means (14; 26) to draw gas from the high pressure region in through the inlet opening, towards the orifice and out of the outlet openings, wherein the means to draw gas draws the gas adjacent to the orifice and then out of the outlet openings, and wherein the gas drawn from the high pressure region contains the components; wherein the inlet opening (12; 17; 24) has a larger cross-sectional area than the orifice and is located a distance upstream of the orifice (13; 16; 18; 25). a high pressure region and a low pressure region which are interconnected by an orifice (13; 16; 18; 25), wherein the high pressure region is substantially at atmospheric pressure; a housing arranged in the high pressure region and around the orifice, wherein the housing has an inlet opening (12; 17; 24) in communication with the orifice such that components from a sample to be analysed may enter the housing from the high pressure region and then pass through the orifice into the low pressure region, and wherein the housing has first and second outlet openings in communication with and provided on opposite sides of the orifice; and means (14; 26) to draw gas from the high pressure region in through the inlet opening, towards the orifice and out of the outlet openings, wherein the means to draw gas draws the gas adjacent to the orifice and then out of the outlet openings, and wherein the gas drawn from the high pressure region contains the components; wherein the inlet opening (12; 17; 24) has a larger cross-sectional area than the orifice and is located a distance upstream of the orifice (13; 16; 18; 25).
A surface treatment robotic system, comprising a surface treatment robot and a remote controller , wherein the surface treatment robot comprises a control unit and a driving unit, the control unit is configured to receive remote control instructions from the remote controller and is also configured to control the driving unit to perform corresponding actions, the surface treatment robot is provided with a direction sensor for determining a reference direction; the direction sensor is coupled to the control unit, and the direction sensor is configured to transmit the determined reference direction to the control unit; the surface treatment robotic system being characterized in that : the control unit is configured to determine a walking direction of the robot by using the reference direction as a reference and according to the remote control instructions input based on the reference direction by an input terminal of the remote controller , the input terminal of the remote controller is provided with direction buttons, and a walking direction indicated by the direction button is according to the reference direction. the direction sensor is coupled to the control unit, and the direction sensor is configured to transmit the determined reference direction to the control unit; the surface treatment robotic system being characterized in that : the control unit is configured to determine a walking direction of the robot by using the reference direction as a reference and according to the remote control instructions input based on the reference direction by an input terminal of the remote controller , the input terminal of the remote controller is provided with direction buttons, and a walking direction indicated by the direction button is according to the reference direction.
A method implemented by a service layer in an Internet of Things, loT, network , the method comprising: determining that conditions of a plurality of event expressions each defined in one of a plurality of event definitions of an event object have been met, the conditions of each of the event expressions using a value from at least one resource in the loT network and comprising one or more of an operand, an operator, or a threshold value, wherein the event object is stored at the service layer and comprises a control handler that includes a state value which indicates how an event is to be evaluated, and wherein the control handler is configured to combine two or more of the event definitions with one another; wherein the event definitions each include a trigger condition that indicates how to obtain resource data for the event expressions and, when the trigger condition is met, triggers the evaluation of the event object; wherein the service layer evaluates the event expressions based on a priority of each of the event definitions; and based on determining that the conditions of the event expressions have been met, producing an indication that the conditions of the event expressions have been met. determining that conditions of a plurality of event expressions each defined in one of a plurality of event definitions of an event object have been met, the conditions of each of the event expressions using a value from at least one resource in the loT network and comprising one or more of an operand, an operator, or a threshold value, wherein the event object is stored at the service layer and comprises a control handler that includes a state value which indicates how an event is to be evaluated, and wherein the control handler is configured to combine two or more of the event definitions with one another; wherein the event definitions each include a trigger condition that indicates how to obtain resource data for the event expressions and, when the trigger condition is met, triggers the evaluation of the event object; wherein the service layer evaluates the event expressions based on a priority of each of the event definitions; and based on determining that the conditions of the event expressions have been met, producing an indication that the conditions of the event expressions have been met.
A method of rendering a three-dimensional image signal comprising: - receiving a three-dimensional image signal comprising a first component, a second component for creating a three-dimensional image in combination with the first component, a text component for including in the three-dimensional image, and a data component comprising location information describing an area within the three-dimensional image at which the text component is to be displayed, the first component being a two-dimensional image frame and the second component being one of a depth map or a disparity map, - rendering a three-dimensional image from the first image component and the second component, the rendering including rendering the text component in the three-dimensional image, wherein the rendering of the text component comprises adjusting three-dimensional parameters of the three-dimensional image at the area of the three-dimensional image where the text component is to be displayed, comprising reducing the perceived depth of the three-dimensional image at the area where the text component is to be displayed. - receiving a three-dimensional image signal comprising a first component, a second component for creating a three-dimensional image in combination with the first component, a text component for including in the three-dimensional image, and a data component comprising location information describing an area within the three-dimensional image at which the text component is to be displayed, the first component being a two-dimensional image frame and the second component being one of a depth map or a disparity map, - rendering a three-dimensional image from the first image component and the second component, the rendering including rendering the text component in the three-dimensional image,
Method for operating a trigger apparatus for occupant protection means, having the following steps, wherein triggering is achieved by virtue of at least two switches being activated in order to connect at least one trigger means to a power supply (U Bat ): • activating a first switch of the trigger apparatus for occupant protection means; • activating a second switch of the trigger apparatus for occupant protection means; • recording an output voltage (U B ) on the second switch ; • deactivating the second switch on the basis of the output voltage (U B ) on the second switch , characterized in that the method is carried out following detection of a short to the power supply (U Bat ). • activating a first switch of the trigger apparatus for occupant protection means; • activating a second switch of the trigger apparatus for occupant protection means; • recording an output voltage (U B ) on the second switch ; • deactivating the second switch on the basis of the output voltage (U B ) on the second switch ,