mhurhangee/ep-ind-claims huggingface dataset:
A mobile device location determination method comprising: establishing, at a first mobile device, a wireless communication link between the first mobile device comprising a satellite positioning system, SPS, receiver and one or more sensors and a second mobile device, wherein the first and second mobile devices are co-located with an object; receiving, at the first mobile device from the second mobile device via the wireless communication link, an indication of a capability of the second mobile device to acquire a type of wireless positioning signal; sending, based on the indication, a request from the first mobile device to the second mobile device via the wireless communication link for the second mobile device to perform one or more signal acquisition tasks based on a first location technology, wherein the first location technology is configured to obtain measurements of wireless signals for use in determining location; receiving a response to the request including measurements of wireless signals for use in determining location from the second mobile device at the first mobile device via the wireless communication link; taking one or more measurements to obtain one or more positioning measurement values from one or more inertial sensors of the one or more sensors; and determining a location for the first mobile device using the response and the one or more positioning measurement values. establishing, at a first mobile device, a wireless communication link between the first mobile device comprising a satellite positioning system, SPS, receiver and one or more sensors and a second mobile device, wherein the first and second mobile devices are co-located with an object; receiving, at the first mobile device from the second mobile device via the wireless communication link, an indication of a capability of the second mobile device to acquire a type of wireless positioning signal; sending, based on the indication, a request from the first mobile device to the second mobile device via the wireless communication link for the second mobile device to perform one or more signal acquisition tasks based on a first location technology, wherein the first location technology is configured to obtain measurements of wireless signals for use in determining location; receiving a response to the request including measurements of wireless signals for use in determining location from the second mobile device at the first mobile device via the wireless communication link; taking one or more measurements to obtain one or more positioning measurement values from one or more inertial sensors of the one or more sensors; and determining a location for the first mobile device using the response and the one or more positioning measurement values.
A process for recovering non-ferrous metals from a solid matrix comprising the following phases: (a) leaching the solid matrix with an aqueous-based solution containing chloride ions and ammonium ions and having a pH within the range of 6.5-8.5, in the presence of oxygen, at a temperature ranging from 100°C to 160°C and a pressure within the range of 150 kPa - 800 kPa, so as to obtain an extraction solution comprising the leached metals and a solid leaching residue; (b) separating said solid leaching residue from said extraction solution; (c) subjecting said extraction solution to at least one cementation so as to recover the metals in the elemental state; wherein said one cementation comprises at least one cementation step which is a multiphase cementation which comprises: (i) dividing the solution to be subjected to cementation into at least a first and a second aliquot; (ii) effecting a first cementation phase by adding an excess of precipitating metal to said first aliquot so as to precipitate a first metallic cement; (iii) separating said first metallic cement containing the precipitating metal in excess from a first supernatant solution and subjecting said first supernatant solution to a subsequent cementation step; (iv) effecting a second cementation phase by joining said first metallic cement to said second aliquot, so as to precipitate a second metallic cement; (v) separating said first and second metallic cement from a second supernatant solution and subjecting said second supernatant solution to cementation in said first phase. (a) leaching the solid matrix with an aqueous-based solution containing chloride ions and ammonium ions and having a pH within the range of 6.5-8.5, in the presence of oxygen, at a temperature ranging from 100°C to 160°C and a pressure within the range of 150 kPa - 800 kPa, so as to obtain an extraction solution comprising the leached metals and a solid leaching residue; (b) separating said solid leaching residue from said extraction solution; (c) subjecting said extraction solution to at least one cementation so as to recover the metals in the elemental state; (i) dividing the solution to be subjected to cementation into at least a first and a second aliquot; (ii) effecting a first cementation phase by adding an excess of precipitating metal to said first aliquot so as to precipitate a first metallic cement; (iii) separating said first metallic cement containing the precipitating metal in excess from a first supernatant solution and subjecting said first supernatant solution to a subsequent cementation step; (iv) effecting a second cementation phase by joining said first metallic cement to said second aliquot, so as to precipitate a second metallic cement; (v) separating said first and second metallic cement from a second supernatant solution and subjecting said second supernatant solution to cementation in said first phase.
A process for cleaning a semiconductor processing component comprising SiC, the semiconductor processing component having an inorganic surface, the process comprising the steps of: a) exposing the inorganic surface to a chemical stripping agent, wherein the chemical stripping agent comprises a chlorinated acid, b) directing a flow of frozen CO 2 pellets upon the inorganic surface, c) depositing at least one additional material layer on the inorganic surface, and d1) installing the semiconductor processing component in a furnace for processing semiconductor wafers or d2) sealing the semiconductor processing component in a package suitable for storage and transport, wherein the at least one additional material layer is deposited on the inorganic surface after completing the flow of frozen CO 2 pellets and either prior to installing the component in the furnace or prior to packaging the semiconductor processing component. a) exposing the inorganic surface to a chemical stripping agent, wherein the chemical stripping agent comprises a chlorinated acid, b) directing a flow of frozen CO 2 pellets upon the inorganic surface, c) depositing at least one additional material layer on the inorganic surface, and d1) installing the semiconductor processing component in a furnace for processing semiconductor wafers or d2) sealing the semiconductor processing component in a package suitable for storage and transport,
A communication network in a power converter cabinet, wherein the power converter cabinet comprises at least a control unit (5; 7a, 7b) and at least a power switch (6a-d), a sensor or an actuator, the communication network comprises: a first communication point, provided with a first antenna configured to wirelessly transmit/receive in the mm-wave frequency band, with an opening angle of between 20 and 180 degrees, wherein the first communication point is connected to the at least a control unit (5; 7a, 7b) inside the power converter cabinet; and a second communication point (3a-d), provided with a second antenna configured to receive/transmit wirelessly in the mm-wave frequency band, with an opening angle of between 20 and 180 degrees, wherein the second communication point (3a-d) is connected to the at least a power switch (6a-d), a sensor or an actuator inside the power converter cabinet; wherein the first and second communication points are configured to set up a communication link with multiple propagation paths, to send data between different active devices and/or components inside the power converter cabinet. a first communication point, provided with a first antenna configured to wirelessly transmit/receive in the mm-wave frequency band, with an opening angle of between 20 and 180 degrees, wherein the first communication point is connected to the at least a control unit (5; 7a, 7b) inside the power converter cabinet; and a second communication point (3a-d), provided with a second antenna configured to receive/transmit wirelessly in the mm-wave frequency band, with an opening angle of between 20 and 180 degrees, wherein the second communication point (3a-d) is connected to the at least a power switch (6a-d), a sensor or an actuator inside the power converter cabinet; wherein the first and second communication points are configured to set up a communication link with multiple propagation paths, to send data between different active devices and/or components inside the power converter cabinet.
A hair accessory comprising: a body part including a first body part and a second body part capable of being mutually separated from and coupled to each other; a first decoration part covering at least a portion of an outer surface of the first body part; and a second decoration part covering at least a portion of an outer surface of the second body part; wherein the body part has an inner surface having a closed loop structure formed through coupling of the first body part and the second body part, wherein each of the first body part and the second body part includes one end and the other end, wherein the first decoration part comprises a first insertion part and the second decoration part comprises a second insertion part, characterized in that each of the first insertion part and the second insertion part is disposed and extended in a "C" shape to face to each other, wherein the one ends or the other ends of the first body part and the second body part are fitted into the "C" shaped first and second insertion parts (311, 331) in a sliding manner, in a state in which the first body part and the second body part are separated from each other. a body part including a first body part and a second body part capable of being mutually separated from and coupled to each other; a first decoration part covering at least a portion of an outer surface of the first body part; and a second decoration part covering at least a portion of an outer surface of the second body part; wherein the body part has an inner surface having a closed loop structure formed through coupling of the first body part and the second body part, wherein each of the first body part and the second body part includes one end and the other end, wherein the first decoration part comprises a first insertion part and the second decoration part comprises a second insertion part, characterized in that each of the first insertion part and the second insertion part is disposed and extended in a "C" shape to face to each other, wherein the one ends or the other ends of the first body part and the second body part are fitted into the "C" shaped first and second insertion parts (311, 331) in a sliding manner, in a state in which the first body part and the second body part are separated from each other.
A method of preparing an outer membrane vesicle from a Gram-negative bacterium, wherein: - the OMV comprises a lipoprotein consisting of a heterologous protein, or an immunogenic fragment thereof, carrying an acylated N-terminal cysteine, - the lipoprotein is expressed in the membrane of the OMV - the OMV is capable of eliciting an immune response to the heterologous protein or to a fragment thereof when administered to a mammal, said method comprising the following steps: (i) expressing, in a Gram-negative bacterium, the heterologous protein fused to a leader sequence carrying a C-terminal Cysteine, wherein said leader sequence comprises the sequence Leu-(Ala/Ser)-(Gly/Ala)-Cys (lipobox), (ii) isolating the OMV containing the heterologous protein. - the OMV comprises a lipoprotein consisting of a heterologous protein, or an immunogenic fragment thereof, carrying an acylated N-terminal cysteine, - the lipoprotein is expressed in the membrane of the OMV - the OMV is capable of eliciting an immune response to the heterologous protein or to a fragment thereof when administered to a mammal, (i) expressing, in a Gram-negative bacterium, the heterologous protein fused to a leader sequence carrying a C-terminal Cysteine, wherein said leader sequence comprises the sequence Leu-(Ala/Ser)-(Gly/Ala)-Cys (lipobox), (ii) isolating the OMV containing the heterologous protein.
A method, performed by a network device (110, 120), for handling cancellation of a Passive Intermodulation, PIM, signal from a PIM source in a wireless communications network, wherein the network device (110, 120) has access to and controls one or more transmitter, Tx, and one or more receiver, Rx, wherein the method comprises: - applying, for each of the one or more Rx's of the network device (110, 120), a determined PIM model to a transmitted signal from each of the one or more Tx's of the network device (110, 120), to obtain a modelled signal, wherein the PIM model comprises: i. a linear forward path model for each of the one or more Tx's to the PIM source, ii. a common non-linear model of the PIM source being applied to the signals from each of the one or more Tx's modelled by the linear forward path model, and iii. a linear reflective path model from the PIM source to each of the one or more Rx's of the network device (110, 120) for a received PIM signal, - subtracting the modelled signal from a received signal on each of the one or more Rx's of the network device (110, 120). - applying, for each of the one or more Rx's of the network device (110, 120), a determined PIM model to a transmitted signal from each of the one or more Tx's of the network device (110, 120), to obtain a modelled signal, wherein the PIM model comprises: i. a linear forward path model for each of the one or more Tx's to the PIM source, ii. a common non-linear model of the PIM source being applied to the signals from each of the one or more Tx's modelled by the linear forward path model, and iii. a linear reflective path model from the PIM source to each of the one or more Rx's of the network device (110, 120) for a received PIM signal, i. a linear forward path model for each of the one or more Tx's to the PIM source, ii. a common non-linear model of the PIM source being applied to the signals from each of the one or more Tx's modelled by the linear forward path model, and iii. a linear reflective path model from the PIM source to each of the one or more Rx's of the network device (110, 120) for a received PIM signal, - subtracting the modelled signal from a received signal on each of the one or more Rx's of the network device (110, 120).
A control device of an electric vehicle equipped with a rechargeable battery and a travel motor driven by electric power supplied from the battery, comprising: an operating state detection unit for detecting an operating state of an accelerator pedal, including a depression amount of the accelerator pedal; and a motor control unit for controlling the travel motor based on results of detection by the operating state detection unit, and executing deceleration control over the travel motor, including coasting control which reduces a driving force of the travel motor to zero, when a returning operation of the accelerator pedal is detected by the operating state detection unit; characterized in that the control device further comprises a region setting unit for setting a range of the depression amount of the accelerator pedal for executing the coasting control, based on the depression amount of the accelerator pedal at a start of the returning operation of the accelerator pedal. an operating state detection unit for detecting an operating state of an accelerator pedal, including a depression amount of the accelerator pedal; and a motor control unit for controlling the travel motor based on results of detection by the operating state detection unit, and executing deceleration control over the travel motor, including coasting control which reduces a driving force of the travel motor to zero, when a returning operation of the accelerator pedal is detected by the operating state detection unit; characterized in that the control device further comprises a region setting unit for setting a range of the depression amount of the accelerator pedal for executing the coasting control, based on the depression amount of the accelerator pedal at a start of the returning operation of the accelerator pedal.
A media data transmission method used for transmission of an omnidirectional video according to an omnidirectional media format, comprising: receiving, by a client, a media presentation description, MPD, file, wherein the MPD file comprises priority indication information, and the priority indication information is used to indicate a priority or priorities of one or more overlays, wherein the priority indication information is attribute information of an overlay descriptor in the MPD file, and the overlay descriptor is located in an adaptation set of the MPD file; and processing, by the client, the one or more overlays based on the priority indication information. receiving, by a client, a media presentation description, MPD, file, wherein the MPD file comprises priority indication information, and the priority indication information is used to indicate a priority or priorities of one or more overlays, wherein the priority indication information is attribute information of an overlay descriptor in the MPD file, and the overlay descriptor is located in an adaptation set of the MPD file; and processing, by the client, the one or more overlays based on the priority indication information.
A solvothermal synthesis process of SAPO molecular sieves, characterized in that the main steps are as following: a) an organic amine, an aluminum source, a phosphorus source, a silicon source, and water are mixed in a molar ratio of 6-30: 1: 0.5-5: 0.01-1.0: 0.1-15, to obtain an initial mixture for preparing the SAPO molecular sieves, wherein the organic amine is one organic amine functioning as both a main solvent for the synthesis system and a template agent, said organic amine being any one of morpholine, piperidine, isopropylamine, triethylamine, diethylamine, di-n-propylamine, diisopropylamine, hexamethyleneimine, N',N',N,N-tetramethyl-1,6-hexanediamine, and N,N-diisopropylethylamine, and the molar ratio of the organic amine to water is 3.0-300; b) the initial mixture obtained in the step a) is maintained at 30-60 °C and aged with stirring for not more than 24 hours, to obtain an initial gel; c) the initial gel obtain in the step b) is crystallized at 150-250 °C for 0.5-15 days. a) an organic amine, an aluminum source, a phosphorus source, a silicon source, and water are mixed in a molar ratio of 6-30: 1: 0.5-5: 0.01-1.0: 0.1-15, to obtain an initial mixture for preparing the SAPO molecular sieves, wherein the organic amine is one organic amine functioning as both a main solvent for the synthesis system and a template agent, said organic amine being any one of morpholine, piperidine, isopropylamine, triethylamine, diethylamine, di-n-propylamine, diisopropylamine, hexamethyleneimine, N',N',N,N-tetramethyl-1,6-hexanediamine, and N,N-diisopropylethylamine, and the molar ratio of the organic amine to water is 3.0-300; b) the initial mixture obtained in the step a) is maintained at 30-60 °C and aged with stirring for not more than 24 hours, to obtain an initial gel; c) the initial gel obtain in the step b) is crystallized at 150-250 °C for 0.5-15 days.
A method for fabricating single-crystal silicon carbide wafers, comprising: (i) slicing an ingot of single crystal silicon carbide into a plurality of wafers; (ii) chamfering circumferential edge of each of the wafers of step (i); (iii) performing saw damage removal from front and back surfaces of each of the wafers of step (ii) using a lapping tool having surface of diameter at least three times larger than diameter of the wafer; and (iv) simultaneous polishing of both surfaces of each wafer of step (iii) using a polishing tool having surface of diameter at least three times larger than diameter of the wafer; to thereby fabricate wafers having local thickness variation of 0.1 to 1.5 μm and site front side least squares focal plane range (SFQR) of 0.01 to 0.3 μm, based on a one square cm site size. (i) slicing an ingot of single crystal silicon carbide into a plurality of wafers; (ii) chamfering circumferential edge of each of the wafers of step (i); (iii) performing saw damage removal from front and back surfaces of each of the wafers of step (ii) using a lapping tool having surface of diameter at least three times larger than diameter of the wafer; and (iv) simultaneous polishing of both surfaces of each wafer of step (iii) using a polishing tool having surface of diameter at least three times larger than diameter of the wafer; to thereby fabricate wafers having local thickness variation of 0.1 to 1.5 μm and site front side least squares focal plane range (SFQR) of 0.01 to 0.3 μm, based on a one square cm site size.
An electronic circuit for transmitting an electromagnetic tag signal to an electronic article surveillance tag, the electronic circuit comprising: a charging and transceiver coil, the coil inducing a current when subject to an electromagnetic field and also transmitting said electromagnetic tag signal during a transmit mode; a tuning capacitor in electrical communication with the coil, the tuning capacitor and the coil establishing a resonance for the transmission of the electromagnetic tag signal; and a distinct storage capacitor in electrical communication with the coil, the storage capacitor being charged by the received induced current from the coil, wherein the flow of transmitted current into said storage capacitor is prevented during said transmit mode. a charging and transceiver coil, the coil inducing a current when subject to an electromagnetic field and also transmitting said electromagnetic tag signal during a transmit mode; a tuning capacitor in electrical communication with the coil, the tuning capacitor and the coil establishing a resonance for the transmission of the electromagnetic tag signal; and a distinct storage capacitor in electrical communication with the coil, the storage capacitor being charged by the received induced current from the coil, wherein the flow of transmitted current into said storage capacitor is prevented during said transmit mode.