mhurhangee/patent-ind-claim-en huggingface dataset:
A device suitable for detection of and warning against tsunamis, the device when in use being located in the water at sea, wherein the device comprises: - a vessel , - a sensor for measuring at least the pressure of the surrounding water, - a control unit located inside the vessel and operatively connected to said sensor , and - communication means comprising a transmitter for communicating with at least one external receiver that the predetermined condition relating to at least said pressure of the surrounding water is fulfilled, characterized in that the device further comprises: - a ballast tank located inside the vessel , wherein the interior of the ballast tank is connected to the outside of the vessel , and - a pump , when active configured to pump water from the interior of the ballast tank to the outside of the vessel , wherein when the control unit has determined that the predetermined condition is fulfilled, then by means of the pump pumping water from the interior of the ballast tank located inside the vessel to the outside of the vessel, and wherein the overall density of the device is greater than the density of the surrounding water when the ballast tank is filled with water, and the overall density of the device is less than the density of the surrounding water when the ballast tank is empty of water, causing the device to ascend in the water. - a vessel , - a sensor for measuring at least the pressure of the surrounding water, - a control unit located inside the vessel and operatively connected to said sensor , and - communication means comprising a transmitter for communicating with at least one external receiver that the predetermined condition relating to at least said pressure of the surrounding water is fulfilled, characterized in that the device further comprises: - a ballast tank located inside the vessel , wherein the interior of the ballast tank is connected to the outside of the vessel , and - a pump , when active configured to pump water from the interior of the ballast tank to the outside of the vessel , - a ballast tank located inside the vessel , wherein the interior of the ballast tank is connected to the outside of the vessel , and - a pump , when active configured to pump water from the interior of the ballast tank to the outside of the vessel , wherein when the control unit has determined that the predetermined condition is fulfilled, then by means of the pump pumping water from the interior of the ballast tank located inside the vessel to the outside of the vessel, and wherein the overall density of the device is greater than the density of the surrounding water when the ballast tank is filled with water, and the overall density of the device is less than the density of the surrounding water when the ballast tank is empty of water, causing the device to ascend in the water.
An autoinjector comprising: a case adapted to hold a medicament container having a needle , the case including an angled rib (2.6); a needle shroud slidably disposed in the case and translatable between an extended position (EP) relative to the case in which the needle is covered and a retracted position (RP) relative to the case in which the needle is exposed; a plunger slidably disposed in the case , the plunger including a plunger boss (10.1); and a drive spring configured to bias the plunger relative to the case , wherein the plunger boss (10.1) is adapted to abut the rib (2.6) and the needle shroud when the needle shroud is in the extended position (EP) and to disengage the rib when the needle shroud is in the retracted position (RP) to allow the plunger to translate axially relative to the case , and characterised in that the plunger is hollow and the drive spring is arranged within the plunger . a case adapted to hold a medicament container having a needle , the case including an angled rib (2.6); a needle shroud slidably disposed in the case and translatable between an extended position (EP) relative to the case in which the needle is covered and a retracted position (RP) relative to the case in which the needle is exposed; a plunger slidably disposed in the case , the plunger including a plunger boss (10.1); and a drive spring configured to bias the plunger relative to the case , wherein the plunger boss (10.1) is adapted to abut the rib (2.6) and the needle shroud when the needle shroud is in the extended position (EP) and to disengage the rib when the needle shroud is in the retracted position (RP) to allow the plunger to translate axially relative to the case , and
A soluble pharmaceutical composition comprising (i) melatonin tripartate adduct (MTA) of general formula (I): and, (ii) trehalose in an amount of from 1% to 5% by weight, wherein MTA is adducted to the nucleoside adenosine in the presence of C 2 -C 5 low-chain amino acid glycine, an active moiety melatonin, adenosine and glycine being at a molar range ratio varying as from 1: 1: 1 up to of 1: 6: 1, the MTA is optimally in a form of a stable sterile lyophilized powder. (i) melatonin tripartate adduct (MTA) of general formula (I): and, (ii) trehalose in an amount of from 1% to 5% by weight,
A process for the manufacture of a printed detergent tablet comprising a) at least one phase from a compressed particulate premix, b) printing on the surface of the detergent tablet with a print resolution of between 40 and 260 dpi, c) a film packaging shrunk onto the detergent tablet, which at least partially covers the printing; comprehensive steps a) Provision of a particulate premix, b) Compression of the particulate premix to form a detergent tablet with at least one phase, whereby the particulate premix is compressed with a compression pressure above 1 kN/cm 2 ; c) Printing on the surface of the detergent tablet with a print resolution of between 40 and 260 dpi, d) Transport of the printed detergent tablet to a packaging machine, e) Wrapping the printed tablet in film packaging and shrinking the film packaging so that the shrunk film packaging at least partially covers the printing. a) at least one phase from a compressed particulate premix, b) printing on the surface of the detergent tablet with a print resolution of between 40 and 260 dpi, c) a film packaging shrunk onto the detergent tablet, which at least partially covers the printing; comprehensive steps a) Provision of a particulate premix, b) Compression of the particulate premix to form a detergent tablet with at least one phase, whereby the particulate premix is compressed with a compression pressure above 1 kN/cm 2 ; c) Printing on the surface of the detergent tablet with a print resolution of between 40 and 260 dpi, d) Transport of the printed detergent tablet to a packaging machine, e) Wrapping the printed tablet in film packaging and shrinking the film packaging so that the shrunk film packaging at least partially covers the printing.
A communication method, comprising: sending, by a terminal device, a preamble of a Message A, MsgA; and sending, by the terminal device according to a mapping rule between physical random access channel, PRACH, resources and physical uplink shared channel, PUSCH, resources, a PUSCH of the MsgA on a PUSCH resource corresponding to the preamble of the MsgA, wherein the mapping rule between the PRACH resources and the PUSCH resources comprises that the PRACH resources are mapped to the PUSCH resources in the following order: first in an increasing order of preamble indices within each PRACH occasion; second in an increasing order of PRACH resource numbers for frequency division multiplexed PRACH occasions; and then in an increasing order of time resource indices for time division multiplexed PRACH occasions within a PRACH slot. sending, by a terminal device, a preamble of a Message A, MsgA; and sending, by the terminal device according to a mapping rule between physical random access channel, PRACH, resources and physical uplink shared channel, PUSCH, resources, a PUSCH of the MsgA on a PUSCH resource corresponding to the preamble of the MsgA, wherein the mapping rule between the PRACH resources and the PUSCH resources comprises that the PRACH resources are mapped to the PUSCH resources in the following order: first in an increasing order of preamble indices within each PRACH occasion; second in an increasing order of PRACH resource numbers for frequency division multiplexed PRACH occasions; and then in an increasing order of time resource indices for time division multiplexed PRACH occasions within a PRACH slot. first in an increasing order of preamble indices within each PRACH occasion; second in an increasing order of PRACH resource numbers for frequency division multiplexed PRACH occasions; and then in an increasing order of time resource indices for time division multiplexed PRACH occasions within a PRACH slot.
A method performed by a device comprising: indicating by a medium access control, MAC, logic that a preferred mode of operation is within a subset of a set of supported modulation and coding schemes, MCSs; generating by the MAC logic a management frame to negotiate with a wireless communication device the subset of MCSs for operation; receiving a response from the wireless communication device indicating an acceptance of restricting the use of MCS to the MCSs in the MCS subset; operating with the MCS subset; receiving at a low power logic of a transmitter front end an indication from the MAC logic to enter a low power mode; in response to receiving the indication to enter the low power mode, entering at the low power logic a low power mode; receiving a wireless communication packet to transmit at the transmitter front end; converting the packet to a time-domain signal; and transmitting the packet from transmit chains of the transmitter front end, wherein entering the low power mode comprises: bypassing a power amplifier in the transmit chains, and bypassing predistortion circuitry for the power amplifier; or powering off stages of digital and analog filters and reducing a resolution of a digital-to-analog converter. indicating by a medium access control, MAC, logic that a preferred mode of operation is within a subset of a set of supported modulation and coding schemes, MCSs; generating by the MAC logic a management frame to negotiate with a wireless communication device the subset of MCSs for operation; receiving a response from the wireless communication device indicating an acceptance of restricting the use of MCS to the MCSs in the MCS subset; operating with the MCS subset; receiving at a low power logic of a transmitter front end an indication from the MAC logic to enter a low power mode; in response to receiving the indication to enter the low power mode, entering at the low power logic a low power mode; receiving a wireless communication packet to transmit at the transmitter front end; converting the packet to a time-domain signal; and transmitting the packet from transmit chains of the transmitter front end, wherein entering the low power mode comprises: bypassing a power amplifier in the transmit chains, and bypassing predistortion circuitry for the power amplifier; or powering off stages of digital and analog filters and reducing a resolution of a digital-to-analog converter. bypassing a power amplifier in the transmit chains, and bypassing predistortion circuitry for the power amplifier; or powering off stages of digital and analog filters and reducing a resolution of a digital-to-analog converter.
A wireless communications device comprising: a radio frequency (RF) transmitter having an operating frequency range; an RF antenna having an electrical length less than or equal to one-tenth of a wavelength of a lowest operating frequency of the operating frequency range; and an RF matching network coupled between said RF transmitter and said RF antenna , said RF matching network comprising a first RF matching transformer comprising a first ferrite core and a first plurality of windings coupled thereto, said first RF matching transformer defining a first input terminal , a first output terminal , and a first reference terminal , a first inductor coupled between the first reference terminal and a reference voltage, and at least one first resistor coupled across the first output terminal and the first reference terminal and configured to dissipate heat that would otherwise be dissipated by said first RF matching transformer to reduce an operating temperature of said first RF matching transformer . a radio frequency (RF) transmitter having an operating frequency range; an RF antenna having an electrical length less than or equal to one-tenth of a wavelength of a lowest operating frequency of the operating frequency range; and an RF matching network coupled between said RF transmitter and said RF antenna , said RF matching network comprising a first RF matching transformer comprising a first ferrite core and a first plurality of windings coupled thereto, said first RF matching transformer defining a first input terminal , a first output terminal , and a first reference terminal , a first inductor coupled between the first reference terminal and a reference voltage, and at least one first resistor coupled across the first output terminal and the first reference terminal and configured to dissipate heat that would otherwise be dissipated by said first RF matching transformer to reduce an operating temperature of said first RF matching transformer . a first RF matching transformer comprising a first ferrite core and a first plurality of windings coupled thereto, said first RF matching transformer defining a first input terminal , a first output terminal , and a first reference terminal , a first inductor coupled between the first reference terminal and a reference voltage, and at least one first resistor coupled across the first output terminal and the first reference terminal and configured to dissipate heat that would otherwise be dissipated by said first RF matching transformer to reduce an operating temperature of said first RF matching transformer .
A method for removing cells from skin, comprising: (a) providing a microstructure having a planar substrate and a plurality of individual microelements affixed upon a first surface of the substrate, wherein said individual microelements are arranged on the substrate in a plurality of columns , and wherein each individual microelement includes at least three side walls, wherein a lowermost portion of at least one of said side walls of a first, individual microelement abuts a lowermost portion of one of said side walls of an adjacent, second, individual microelement, such that there is no substantial space between individual microelements within an individual column, but wherein there is space or open areas between adjacent columns ; (b) placing said microstructure on skin then rubbing the microstructure against said skin, thereby scraping and accumulating skin cells in the space or open areas between said columns ; and (c) withdrawing said microstructure from said skin, and thereby removing a large majority of said skin cells that have accumulated upon said microstructure within said space or open areas between said columns , wherein said individual microelements have a length and shape that tend to scrape skin cells loose without penetrating entirely through the stratum corneum layer of skin. (a) providing a microstructure having a planar substrate and a plurality of individual microelements affixed upon a first surface of the substrate, wherein said individual microelements are arranged on the substrate in a plurality of columns , and wherein each individual microelement includes at least three side walls, wherein a lowermost portion of at least one of said side walls of a first, individual microelement abuts a lowermost portion of one of said side walls of an adjacent, second, individual microelement, such that there is no substantial space between individual microelements within an individual column, but wherein there is space or open areas between adjacent columns ; (b) placing said microstructure on skin then rubbing the microstructure against said skin, thereby scraping and accumulating skin cells in the space or open areas between said columns ; and (c) withdrawing said microstructure from said skin, and thereby removing a large majority of said skin cells that have accumulated upon said microstructure within said space or open areas between said columns , wherein said individual microelements have a length and shape that tend to scrape skin cells loose without penetrating entirely through the stratum corneum layer of skin.
An electronic device comprising: a memory configured to store, in a first area of the memory , a first application and store, in a second area of the memory , at least one of a sharing limitation application list including an application for limiting a sharing permission inheritance and a permission limitation list including permission specific inheritance setting information included in an application, wherein identification information of the first application is included in one of the at least one of the sharing limitation application list and the permission limitation list ; and a processor functionally connected to the memory , wherein the processor is configured to: receive an application installation request for a second application or an execution request for the second application; and process the second application not to obtain a sharing permission owned by the first application or to obtain part but not all of a sharing permission owned by the first application, based on the identification information of the first application being included in the one of the at least one of the sharing limitation application list and the permission limitation list . a memory configured to store, in a first area of the memory , a first application and store, in a second area of the memory , at least one of a sharing limitation application list including an application for limiting a sharing permission inheritance and a permission limitation list including permission specific inheritance setting information included in an application, wherein identification information of the first application is included in one of the at least one of the sharing limitation application list and the permission limitation list ; and a processor functionally connected to the memory , wherein the processor is configured to: receive an application installation request for a second application or an execution request for the second application; and process the second application not to obtain a sharing permission owned by the first application or to obtain part but not all of a sharing permission owned by the first application, based on the identification information of the first application being included in the one of the at least one of the sharing limitation application list and the permission limitation list . receive an application installation request for a second application or an execution request for the second application; and process the second application not to obtain a sharing permission owned by the first application or to obtain part but not all of a sharing permission owned by the first application, based on the identification information of the first application being included in the one of the at least one of the sharing limitation application list and the permission limitation list .
A lithium recovery method, comprising recovering lithium using a lithium concentrating method for increasing a concentration of lithium ions in a lithium-containing solution containing a sodium ion and lithium ions to be concentrated, the lithium concentrating method comprising: a sodium precipitating step of precipitating the sodium ion in the lithium-containing solution as a sodium sulfate, wherein a temperature of the lithium-containing solution is decreased to 0°C to 10 °C to precipitate a sodium sulfate hydrate; and a solid-liquid separation step of removing the precipitated sodium sulfate hydrate by solid-liquid separation after the sodium precipitating step to obtain a separated solution, wherein the separated solution is subjected to a carbonation treatment to recover the lithium ions in the separated solution as lithium carbonate and a lithium quality of the lithium carbonate is at least 17%. a sodium precipitating step of precipitating the sodium ion in the lithium-containing solution as a sodium sulfate, wherein a temperature of the lithium-containing solution is decreased to 0°C to 10 °C to precipitate a sodium sulfate hydrate; and a solid-liquid separation step of removing the precipitated sodium sulfate hydrate by solid-liquid separation after the sodium precipitating step to obtain a separated solution, wherein the separated solution is subjected to a carbonation treatment to recover the lithium ions in the separated solution as lithium carbonate and a lithium quality of the lithium carbonate is at least 17%.
Method for operating an ultrasonic transducer , in which ultrasonic signals are emitted by the ultrasonic transducer and reflected ultrasonic echoes are received again by the ultrasonic transducer , wherein the ultrasonic transducer is coupled to a resonant circuit in parallel, comprising the following steps: (a) exciting the resonant circuit by means of a signal generator connected in series with the resonant circuit , wherein the ultrasonic transducer is excited via the resonant circuit and emits an ultrasonic signal, (b)damping the oscillation of the ultrasonic transducer , (c)receiving the ultrasonic echo, characterized in that for the purpose of damping the oscillation of the ultrasonic transducer in accordance with step (b), the excitation of the resonant circuit by means of the signal generator is ended and the signal generator is disconnected from the resonant circuit for a defined time duration to, wherein an induced voltage occurring in the resonant circuit upon the disconnection of the signal generator is limited by means of a voltage limiter , wherein the signal generator is coupled to the resonant circuit again after the time duration to has elapsed, wherein the phase of the oscillation of the resonant circuit is shifted relative to the oscillation of the ultrasonic transducer and the phase-shifted oscillation of the resonant circuit damps the oscillation of the ultrasonic transducer . (a) exciting the resonant circuit by means of a signal generator connected in series with the resonant circuit , wherein the ultrasonic transducer is excited via the resonant circuit and emits an ultrasonic signal, (b)damping the oscillation of the ultrasonic transducer , (c)receiving the ultrasonic echo,