mhurhangee/patent-ind-claim-en huggingface dataset:
Monitoring device for monitoring the insulation and/or continuity of at least one electric cable including a plurality of electrical wires (14 1 , 14 2 , 14 3 ), wherein the device comprises a measuring circuit that can be connected to the electrical wires (14 1 , 14 2 , 14 3 ) of the cable , the measuring circuit comprising: - a measuring stage comprising at least one voltage generator ; - a switching stage , that can be connected to the measuring stage , suited to connect each electrical wire (14 1 , 14 2 , 14 3 ) automatically and successively to the measuring circuit and/or suited to connect the measuring circuit to ground (m); - a looping stage of the measuring circuit that can be connected, electrical wire to electrical wire of the cable , to the switching stage ; the looping stage being configured to operate automatically in at least one of two modes, insulating or resistive, respectively associated with the monitoring of the insulation or the monitoring of the continuity of the electrical cable . - a measuring stage comprising at least one voltage generator ; - a switching stage , that can be connected to the measuring stage , suited to connect each electrical wire (14 1 , 14 2 , 14 3 ) automatically and successively to the measuring circuit and/or suited to connect the measuring circuit to ground (m); - a looping stage of the measuring circuit that can be connected, electrical wire to electrical wire of the cable , to the switching stage ;
Hearing aid with a housing , and with a transmitting and/or receiving unit for electromagnetic waves which is arranged in the housing and which is coupled to an antenna element , wherein a grip element is arranged on a housing face of the housing , which housing face is directed outwards when the hearing aid is being worn, and wherein the antenna element is integrated at least in part in the grip element , characterized in that - the antenna element is configured as a dipole antenna, with a first dipole arm integrated in the grip element and with a second dipole arm integrated in the housing face , and - the first and second dipole arms of the antenna element are arranged substantially perpendicularly to each other. - the antenna element is configured as a dipole antenna, with a first dipole arm integrated in the grip element and with a second dipole arm integrated in the housing face , and - the first and second dipole arms of the antenna element are arranged substantially perpendicularly to each other.
A thermoregulated rubber distributor for injection molds, comprising two or more modular units , sleeves each interchangeably insertable in a modular unit , one or more injectors to feed melted rubber to the distributor and one or more discharge nozzles to discharge the melted rubber from the distributor towards an external mold, wherein each sleeve has a through hole extending along the longitudinal axis of said sleeve and a groove extending on the side surface of the sleeve so that the groove and the inner surface of the modular unit define a coil intended to be supplied with a thermoregulating fluid whenever the sleeve is inserted into a modular unit , wherein the modular units can be constrained to one another to define one or more channels (16', 16") for the distribution of the melted rubber that extend from an injector to one or more discharge nozzles , depending on the desired path, and wherein the through holes of the sleeves define corresponding lengths of said at least one channel (16', 16") for the distribution of the melted rubber. wherein each sleeve has a through hole extending along the longitudinal axis of said sleeve and a groove extending on the side surface of the sleeve so that the groove and the inner surface of the modular unit define a coil intended to be supplied with a thermoregulating fluid whenever the sleeve is inserted into a modular unit , wherein the modular units can be constrained to one another to define one or more channels (16', 16") for the distribution of the melted rubber that extend from an injector to one or more discharge nozzles , depending on the desired path, and wherein the through holes of the sleeves define corresponding lengths of said at least one channel (16', 16") for the distribution of the melted rubber.
A method for reducing solubilized water hardness in a water source, said method comprising: contacting the water source having a pH of between 6 and 9 with a composition comprising a solid conversion agent being magnesium oxide, wherein the conversion agent causes calcium hardness ions in the water source to substantially precipitate in a non-calcite crystalline form that does not need to be removed from the water source, such that the solubilized water hardness is substantially reduced, characterized in that the step of contacting the water with the conversion agent comprises passing the water through a media bed of magnesium oxide particles, the media being held in a tank. contacting the water source having a pH of between 6 and 9 with a composition comprising a solid conversion agent being magnesium oxide, wherein the conversion agent causes calcium hardness ions in the water source to substantially precipitate in a non-calcite crystalline form that does not need to be removed from the water source, such that the solubilized water hardness is substantially reduced, characterized in that the step of contacting the water with the conversion agent comprises passing the water through a media bed of magnesium oxide particles, the media being held in a tank.
Assault rifle conversion kit comprising a stock assembly (C), a tactical handle assembly (D), a second handle assembly (E), a cover assembly (F), a handle assembly reloading (B) and a handguard assembly (A), wherein the handguard assembly (A) comprises a heat sink assembly and an adaptable tactical handguard assembly; wherein the heat sink assembly comprises a right handguard support and a left handguard support , which are joined by means of fastening means that do not require modification of a barrel, and an insulator that allows heat dissipation; wherein the adaptable tactical handguard assembly comprises a handguard , attached to the insulator by means of multiple spacers and multiple handguard nuts ; and a handguard cover ; where the handguard and the handguard cover are joined with a handguard screw and a fixing screw nut to the right handguard support and the left handguard support in turn configured to be joined to the barrel of the rifle without modifying the barrel; and wherein the right handguard support and the left handguard support comprise spacers that prevent heat transfer and the fastening means are selected from an upper handguard support screw , a lower handguard support screw and a handguard screw . wherein the handguard assembly (A) comprises a heat sink assembly and an adaptable tactical handguard assembly; wherein the heat sink assembly comprises a right handguard support and a left handguard support , which are joined by means of fastening means that do not require modification of a barrel, and an insulator that allows heat dissipation; wherein the adaptable tactical handguard assembly comprises a handguard , attached to the insulator by means of multiple spacers and multiple handguard nuts ; and a handguard cover ; where the handguard and the handguard cover are joined with a handguard screw and a fixing screw nut to the right handguard support and the left handguard support in turn configured to be joined to the barrel of the rifle without modifying the barrel; and wherein the right handguard support and the left handguard support comprise spacers that prevent heat transfer and the fastening means are selected from an upper handguard support screw , a lower handguard support screw and a handguard screw .
Device capable of having antimicrobial, in particular bacteriostatic or bactericidal, activity comprising a device body having a surface, wherein the device body is configured to anchor thermal nanoparticles supporting optical resonance, in particular localized surface plasmon resonance, at its surface, wherein the device body comprises - thermal nanoparticles supporting optical resonance, in particular localized surface plasmon resonance, bonded to the surface of the device body, wherein the thermal nanoparticles are capable of increasing their temperature by light irradiation in a wavelength range that matches with the wavelength of the optical resonance, in particular localized surface plasmon resonance, of the thermal nanoparticles, and - an antimicrobial substance, wherein the antimicrobial substance is capable of being released from the device body in a cationic condition in contact with water or a body fluid and the antimicrobial substance comprises or consists of a metal or an alloy selected from the group consisting of silver, gold, copper, zinc, titanium and an alloy thereof, and wherein the thermal nanoparticles comprise or consist of gold. - thermal nanoparticles supporting optical resonance, in particular localized surface plasmon resonance, bonded to the surface of the device body, wherein the thermal nanoparticles are capable of increasing their temperature by light irradiation in a wavelength range that matches with the wavelength of the optical resonance, in particular localized surface plasmon resonance, of the thermal nanoparticles, and - an antimicrobial substance, wherein the antimicrobial substance is capable of being released from the device body in a cationic condition in contact with water or a body fluid and the antimicrobial substance comprises or consists of a metal or an alloy selected from the group consisting of silver, gold, copper, zinc, titanium and an alloy thereof,
A method performed by a network node serving a first user equipment, UE , and a second LTE , the method comprising: the network node transmitting, during a first time slot (t1), a first superimposed signal (S(t1)) comprising a first message for the first LTE and a second message for the second LTE; the network node receiving a message transmitted by the first UE indicating that the first UE was unable to decode the first message; after receiving the message transmitted by the first UE indicating that the first UE was unable to decode the first message, the network node providing to the second UE a message indicating that the first UE was unable to decode the first message, thereby enabling the second LTE to select an appropriate decoding scheme to use in a subsequent time slot; after receiving the message transmitted by the first UE indicating that the first UE was unable to decode the first message, the network node transmitting, during a second time slot (t2), a second superimposed signal (S(t2)) comprising the first message for the first UE and a third message for the second LTE; and adapting, based on decoding status of the first LTE and the second UE, transmission parameters comprising power and rate, such that the power used to transmit the first message in the second time slot is greater than power used to transmit the first message in the first time slot, and such that the rate used to transmit the third message in the second time slot is greater than rate used to transmit the second message in the first time slot. the network node transmitting, during a first time slot (t1), a first superimposed signal (S(t1)) comprising a first message for the first LTE and a second message for the second LTE; the network node receiving a message transmitted by the first UE indicating that the first UE was unable to decode the first message; after receiving the message transmitted by the first UE indicating that the first UE was unable to decode the first message, the network node providing to the second UE a message indicating that the first UE was unable to decode the first message, thereby enabling the second LTE to select an appropriate decoding scheme to use in a subsequent time slot; after receiving the message transmitted by the first UE indicating that the first UE was unable to decode the first message, the network node transmitting, during a second time slot (t2), a second superimposed signal (S(t2)) comprising the first message for the first UE and a third message for the second LTE; and adapting, based on decoding status of the first LTE and the second UE, transmission parameters comprising power and rate, such that the power used to transmit the first message in the second time slot is greater than power used to transmit the first message in the first time slot, and such that the rate used to transmit the third message in the second time slot is greater than rate used to transmit the second message in the first time slot.
A coating system comprising: a support fixture sized to be partially inserted into one or more openings of a component ; and a plurality of spray nozzle segment devices , wherein each spray nozzle segment device comprises a housing configured to receive a slurry, each spray nozzle segment device configured to be disposed radially outward of a central axis of the component and wherein each housing is shaped such that the respective spray nozzle segment device extends circumferentially about at least part of the central axis of the component , each housing comprising plural delivery nozzles configured to spray the slurry onto a surface of the component , wherein each spray nozzle segment device is configured to be operably coupled with the support fixture such that the support fixture maintains a position of the spray nozzle segment device within the component when the support fixture is partially inserted into the one or more openings of the component , wherein the slurry comprises a first fluid and a slurry of solid particles and a second fluid, wherein the slurry is configured to be formed inside the housing , wherein the first fluid is configured to promote evaporation of the second fluid as droplets of the slurry traverse from the housing toward one or more surfaces of the component , and wherein each spray nozzle segment device is configured to be operably coupled with each other spray nozzle segment device in order to form a rail system extending circumferentially about at least part of the central axis of the component . a support fixture sized to be partially inserted into one or more openings of a component ; and a plurality of spray nozzle segment devices , wherein each spray nozzle segment device comprises a housing configured to receive a slurry, each spray nozzle segment device configured to be disposed radially outward of a central axis of the component and wherein each housing is shaped such that the respective spray nozzle segment device extends circumferentially about at least part of the central axis of the component , each housing comprising plural delivery nozzles configured to spray the slurry onto a surface of the component , wherein each spray nozzle segment device is configured to be operably coupled with the support fixture such that the support fixture maintains a position of the spray nozzle segment device within the component when the support fixture is partially inserted into the one or more openings of the component , wherein the slurry comprises a first fluid and a slurry of solid particles and a second fluid, wherein the slurry is configured to be formed inside the housing , wherein the first fluid is configured to promote evaporation of the second fluid as droplets of the slurry traverse from the housing toward one or more surfaces of the component , and wherein each spray nozzle segment device is configured to be operably coupled with each other spray nozzle segment device in order to form a rail system extending circumferentially about at least part of the central axis of the component .
Composition comprising: (A) at least one perovskite precursor(s); and (B) a mixture of solvents comprising: (B1) a lactone, an ester or a carbonate; (B2) a linear N,N-dialkylamide; (B3) a lactam; (B4) an alkyl sulfoxide, wherein the added volumes of solvents (B1), (B2) and (B3) satisfy the relation: (B3) < (B4), (B4) < (B1) and (B4) < (B2). (A) at least one perovskite precursor(s); and (B) a mixture of solvents comprising: (B1) a lactone, an ester or a carbonate; (B2) a linear N,N-dialkylamide; (B3) a lactam; (B4) an alkyl sulfoxide, (B1) a lactone, an ester or a carbonate; (B2) a linear N,N-dialkylamide; (B3) a lactam; (B4) an alkyl sulfoxide,
A window fixing for a cold frame, wherein the cold frame comprises a frame composed of frame uprights and walls and at least one window which in a closed position substantially rests on the frame and wherein the window can be brought into at least one open position by movement about a pivot axis , wherein the window fixing comprises the window , the pivot axis and a locking groove , characterized in that , the window is displaceable along the pivot axis , that the locking groove is provided for the at least partial insertion and positive fixing in the open position of the window , and that the window can be at least partially inserted into the locking groove by a displacement along the pivot axis .
A swimming or scuba diving fin having a blade , a shoe open at the rear , an adjustable elastic strap engageable around the heel of the scuba diver, and two buckles (400 A) at opposite ends (40 A) of said adjustable elastic strap connected to two opposed side walls of said shoe , wherein at least one said buckle (400 A) has a shaped hollow body forming integrally a portion connecting to the side wall of the shoe , a channel for the axial sliding of said adjustable elastic strap , and a releasable radial fastening clamp of said adjustable elastic strap , said axial sliding channel having a hole for the inlet of said adjustable elastic strap , a hole for the outlet of said adjustable elastic strap and a deflection angle of said adjustable elastic strap positioned between said input hole and said outlet hole , characterized in that said radial fastening clamp has two opposite jaws (406 A, 406 B) that delimit a fastening groove where said adjustable elastic strap is introduced and extracted crosswise.
Cells for use in a method of immunosuppression in a subject, which cells are multipotent adult progenitor cells (MAPCs), characterised as not embryonic stem cells, embryonic germ cells or germ cells, where the cells express telomerase and express oct 3/4 and do not provoke a deleterious immune response in the subject, wherein the cells are administered adjunctively to one or more other treatments.
A nucleic acid construct comprising a tobacco rattle virus (TRV) sequence and a nucleic acid sequence encoding a single guide RNA (sgRNA) that mediates sequence-specific cleavage in a target sequence of a genome of interest, wherein said TRV sequence is devoid of a functional 2b sequence and devoid of a functional coat protein and wherein said TRV sequence comprises a TRV2 sequence.
A lithium ion secondary battery comprising: a positive electrode; a negative electrode comprising particles of titanium-containing oxide and additive element-containing particles, the additive element-containing particles being mixed with the particles of titanium-containing oxide and comprising at least one selected from the group consisting of zinc as metal, boron oxide, alumina, zirconia oxide, germanium oxide, zinc oxide, lead oxide, zinc hydroxide, a Zn alloy, a Bi-In-Pb-based alloy, a Bi-In-Ca-based alloy, a Bi-In-Al alloy, composite particles in which at least a portion of a surface of Al particles is covered with a layer or a film including alumina, and composite particles in which at least a portion of a surface of Zn particles is covered with a layer or a film including zinc oxide, and a weight ratio of the additive element-containing particles satisfying formula ; and an electrolyte comprising lithium ions, an anion and an aqueous solvent containing water, the anion comprising at least one selected from the group consisting of a chlorine ion represented by Cl - , a hydroxide ion represented by OH - , a sulfate ion represented by SO 4 2- , and a nitrate ion represented by NO 3 - , the electrolyte having a lithium ion concentration in a range of not less than 2 mol/L and not more than 10 mol/L, and a pH value of the electrolyte being not less than pH 3 and not more than pH 13; 2 % by weight ≤ W 1 / W 2 × 100 ≤ 50 % by weight in formula , W 1 represents a weight of the additive element-containing particles, and W 2 is a weight of the particles of titanium-containing oxide. a positive electrode; a negative electrode comprising particles of titanium-containing oxide and additive element-containing particles, the additive element-containing particles being mixed with the particles of titanium-containing oxide and comprising at least one selected from the group consisting of zinc as metal, boron oxide, alumina, zirconia oxide, germanium oxide, zinc oxide, lead oxide, zinc hydroxide, a Zn alloy, a Bi-In-Pb-based alloy, a Bi-In-Ca-based alloy, a Bi-In-Al alloy, composite particles in which at least a portion of a surface of Al particles is covered with a layer or a film including alumina, and composite particles in which at least a portion of a surface of Zn particles is covered with a layer or a film including zinc oxide, and a weight ratio of the additive element-containing particles satisfying formula ; and an electrolyte comprising lithium ions, an anion and an aqueous solvent containing water, the anion comprising at least one selected from the group consisting of a chlorine ion represented by Cl - , a hydroxide ion represented by OH - , a sulfate ion represented by SO 4 2- , and a nitrate ion represented by NO 3 - , the electrolyte having a lithium ion concentration in a range of not less than 2 mol/L and not more than 10 mol/L, and a pH value of the electrolyte being not less than pH 3 and not more than pH 13; 2 % by weight ≤ W 1 / W 2 × 100 ≤ 50 % by weight in formula , W 1 represents a weight of the additive element-containing particles, and W 2 is a weight of the particles of titanium-containing oxide.
A compound represented by the formula: or a pharmaceutically acceptable salt thereof, wherein, independently for each occurrence, R 1 is alkyl, hydroxyalkyl, alkoxyalkyl or haloalkyl; R 2 is H or halogen; R 3 is substituted or unsubstituted alkynyl and A is wherein, m is 0, 1, 2, 3, 4, or 5; R 11 is H, alkyl or alkenyl; and R 12 is alkyl, alkoxy, alkoxyalkyl, cyano, halogen, hydroxy, hydroxyalkyl, haloalkyl, - O-C(O)-alkyl,or -O-methanesulfonyl; wherein, if present, each substituent is independently alkyl, alkenyl, alkynyl, alkoxy, amino, aryl, aralkyl, cyano, nitro, haloalkyl, cycloalkyl, halogen, or hydroxy; and wherein the absolute stereochemistry at a stereogenic center may be R or S or a mixture thereof; and the stereochemistry of a double bond may be E or Z or a mixture thereof. R 1 is alkyl, hydroxyalkyl, alkoxyalkyl or haloalkyl; R 2 is H or halogen; R 3 is substituted or unsubstituted alkynyl and A is wherein, m is 0, 1, 2, 3, 4, or 5; R 11 is H, alkyl or alkenyl; and R 12 is alkyl, alkoxy, alkoxyalkyl, cyano, halogen, hydroxy, hydroxyalkyl, haloalkyl, - O-C(O)-alkyl,or -O-methanesulfonyl; m is 0, 1, 2, 3, 4, or 5; R 11 is H, alkyl or alkenyl; and R 12 is alkyl, alkoxy, alkoxyalkyl, cyano, halogen, hydroxy, hydroxyalkyl, haloalkyl, - O-C(O)-alkyl,or -O-methanesulfonyl;