mhurhangee/patent-ind-claim-en huggingface dataset:
Device for humidifying room air, having an air inlet , a ventilator in the form of an axial ventilator and arranged at the air inlet for generating an air flow , a water container open upwards and a humidifying apparatus , which can be flowed through by the air flow and is arranged in flow direction, wherein the ventilator is arranged with its ventilator axis approximately perpendicular to the water surface, and the air flow generated by the ventilator is aligned or guided within the device such that at least a part of the air flow impacts on the water surface of the water accommodated in the water container and sets this in motion, characterised in that the device serves to humidify room air with mineralised, in particular sea-saline water and the humidifying apparatus is in the form of an evaporator block which acts in a capillary manner and is equipped with through-flow openings, which is dipped in the water container , wherein the device has an upper delimiting wall provided on the housing lid, and wherein the air flow generated by the ventilator is guided within the device across the water surface of the water accommodated in the water container before it impacts on the evaporator block , in that the air flow is deviated laterally at the water surface and flows approximately parallel to the water surface between this and the provided upper delimiting wall in the direction of the evaporator block arranged in front of an air outlet opening . wherein the ventilator is arranged with its ventilator axis approximately perpendicular to the water surface, and the air flow generated by the ventilator is aligned or guided within the device such that at least a part of the air flow impacts on the water surface of the water accommodated in the water container and sets this in motion, characterised in that the device serves to humidify room air with mineralised, in particular sea-saline water and the humidifying apparatus is in the form of an evaporator block which acts in a capillary manner and is equipped with through-flow openings, which is dipped in the water container , wherein the device has an upper delimiting wall provided on the housing lid, and wherein the air flow generated by the ventilator is guided within the device across the water surface of the water accommodated in the water container before it impacts on the evaporator block , in that the air flow is deviated laterally at the water surface and flows approximately parallel to the water surface between this and the provided upper delimiting wall in the direction of the evaporator block arranged in front of an air outlet opening .
Pouring element for securing on a container for pouring out the content of a container with - a closure cap , - a closure lower part for the non-rotatable fixing on the container with a pouring channel , - a cover placed in the pouring channel and - a cutting sleeve that is non-releasably connected with the closure cap , wherein the closure cap can be displaced along the pouring channel from a first position to a second position and conversely, wherein, before a first displacement, in the first position the pouring channel is fluid-tightly closed by the cover , wherein after a displacement of the closure cap into the second position, the cover is cut by the cutting sleeve in a partial area and is pivoted about a hinge into the pouring channel in such a manner that the container content can be poured out through the pouring channel , wherein the cover is non-releasably fixed by at least one retaining element placed on the closure lower part . - a closure cap , - a closure lower part for the non-rotatable fixing on the container with a pouring channel , - a cover placed in the pouring channel and - a cutting sleeve that is non-releasably connected with the closure cap , wherein the closure cap can be displaced along the pouring channel from a first position to a second position and conversely, wherein, before a first displacement, in the first position the pouring channel is fluid-tightly closed by the cover , wherein after a displacement of the closure cap into the second position, the cover is cut by the cutting sleeve in a partial area and is pivoted about a hinge into the pouring channel in such a manner that the container content can be poured out through the pouring channel , wherein the cover is non-releasably fixed by at least one retaining element placed on the closure lower part .
A metal enclosure manufacturing method, comprising: processing (S1) a metal base material into a housing of a preset structure; and depositing (S2) a thin metal layer on a surface of the metal base material in a to-be-processed region on the housing, wherein the to-be-processed region is a region that is on the housing and that is used as an electrical connection contact, and both abrasion resistance and corrosion resistance of the thin metal layer are better than those of the metal base material, characterized in that before the depositing (S2) a thin metal layer on a surface of the metal base material in a to-be-processed region on the housing, the method further comprises: forming an anodized or chemical conversion film on a surface of the housing by means of anodizing processing or by means of chemical conversion film processing; and removing the anodized or chemical conversion film in the to-be-processed region by using a laser engraving technology or a numerical control machining technology, to expose the metal base material in the to-be-processed region. processing (S1) a metal base material into a housing of a preset structure; and depositing (S2) a thin metal layer on a surface of the metal base material in a to-be-processed region on the housing, wherein the to-be-processed region is a region that is on the housing and that is used as an electrical connection contact, and both abrasion resistance and corrosion resistance of the thin metal layer are better than those of the metal base material, characterized in that before the depositing (S2) a thin metal layer on a surface of the metal base material in a to-be-processed region on the housing, the method further comprises: forming an anodized or chemical conversion film on a surface of the housing by means of anodizing processing or by means of chemical conversion film processing; and removing the anodized or chemical conversion film in the to-be-processed region by using a laser engraving technology or a numerical control machining technology, to expose the metal base material in the to-be-processed region. forming an anodized or chemical conversion film on a surface of the housing by means of anodizing processing or by means of chemical conversion film processing; and removing the anodized or chemical conversion film in the to-be-processed region by using a laser engraving technology or a numerical control machining technology, to expose the metal base material in the to-be-processed region.
A vehicle, comprising: a detection unit configured to detect a state of the vehicle and including a position detection unit configured to detect position information of the vehicle ; a transmission unit configured to transmit information based on a result of the detection performed by the detection unit to an image display device (3 or 4); and a control unit configured to change information to be transmitted to the image display device (3 or 4) when a power supply of the vehicle has changed from an on state to an off state, and to determine whether an abnormality has occurred in the vehicle using the detection result, characterized in that the transmission unit transmits the position information detected by the position detection unit and information indicating that an abnormality has occurred in the vehicle to the image display device (3 or 4) after the power supply of the vehicle changes from the on state to the off state when a determination result of the control unit indicates that the abnormality has occurred in the vehicle , and transmits the position information detected by the position detection unit to the image display device (3 or 4) after the power supply of the vehicle changes from the on state to the off state when the determination result of the control unit indicates that no abnormality has occurred. a detection unit configured to detect a state of the vehicle and including a position detection unit configured to detect position information of the vehicle ; a transmission unit configured to transmit information based on a result of the detection performed by the detection unit to an image display device (3 or 4); and a control unit configured to change information to be transmitted to the image display device (3 or 4) when a power supply of the vehicle has changed from an on state to an off state, and to determine whether an abnormality has occurred in the vehicle using the detection result, characterized in that the transmission unit transmits the position information detected by the position detection unit and information indicating that an abnormality has occurred in the vehicle to the image display device (3 or 4) after the power supply of the vehicle changes from the on state to the off state when a determination result of the control unit indicates that the abnormality has occurred in the vehicle , and transmits the position information detected by the position detection unit to the image display device (3 or 4) after the power supply of the vehicle changes from the on state to the off state when the determination result of the control unit indicates that no abnormality has occurred.
A method for interpreting electromagnetic survey data, comprising: acquiring electromagnetic survey data near a top of a portion of the Earth's subsurface using an electromagnetic survey instrument comprising horizontally distributed electromagnetic sensors; and generating an initial model of the portion of the Earth's subsurface, the model including at least spatial distribution of formation resistivity within the portion; characterized by applying the initial model to an artificial neural network trained to generate expected electromagnetic survey instrument response to the initial model, said training of the artificial network including input of type curves comprising response of the electromagnetic survey instrument to layered formations including layers of monotonically increasing resistivity, layers of monotonically decreasing resistivity, central layer sandwiched between boundary layers with resistivity of central layer greater than that of boundary layers, and central layer sandwiched between boundary layers with conductivity of central layer greater than that of boundary layers; comparing the acquired electromagnetic survey data to an output of the artificial neural network ; adjusting the initial model ; and repeating applying the initial model to the artificial neural network, comparing, and adjusting the initial model until differences between the output of the network and the acquired survey data fall below a selected threshold. acquiring electromagnetic survey data near a top of a portion of the Earth's subsurface using an electromagnetic survey instrument comprising horizontally distributed electromagnetic sensors; and generating an initial model of the portion of the Earth's subsurface, the model including at least spatial distribution of formation resistivity within the portion; characterized by applying the initial model to an artificial neural network trained to generate expected electromagnetic survey instrument response to the initial model, said training of the artificial network including input of type curves comprising response of the electromagnetic survey instrument to layered formations including layers of monotonically increasing resistivity, layers of monotonically decreasing resistivity, central layer sandwiched between boundary layers with resistivity of central layer greater than that of boundary layers, and central layer sandwiched between boundary layers with conductivity of central layer greater than that of boundary layers; comparing the acquired electromagnetic survey data to an output of the artificial neural network ; adjusting the initial model ; and repeating applying the initial model to the artificial neural network, comparing, and adjusting the initial model until differences between the output of the network and the acquired survey data fall below a selected threshold.
A method of producing a nanostructure comprising: (a) admixing a selenium source and at least one ligand to produce a reaction mixture; and (b) contacting the reaction mixture obtained in (a) with a zinc source and a solution comprising a tellurium source, a reducing agent, and a zinc carboxylate, wherein the reducing agent is selected from the group consisting of diborane, sodium hydride, sodium borohydride, lithium borohydride, sodium cyanoborohydride, calcium hydride, lithium hydride, lithium aluminum hydride, diisobutylaluminum hydride, sodium triethylborohydride, and lithium triethylborohydride; and (c) contacting the reaction mixture in (b) with a zinc source and a selenium source to provide a ZnSe 1-x Te x nanocrystal, wherein 0<x<1; (d) admixing the ZnSe 1-x Te x nanocrystal with a solution comprising a zinc source to produce a second reaction mixture; and (e) contacting the second reaction mixture of (d) with a selenium source or a sulfur source to provide the nanostructure. (a) admixing a selenium source and at least one ligand to produce a reaction mixture; and (b) contacting the reaction mixture obtained in (a) with a zinc source and a solution comprising a tellurium source, a reducing agent, and a zinc carboxylate, wherein the reducing agent is selected from the group consisting of diborane, sodium hydride, sodium borohydride, lithium borohydride, sodium cyanoborohydride, calcium hydride, lithium hydride, lithium aluminum hydride, diisobutylaluminum hydride, sodium triethylborohydride, and lithium triethylborohydride; and (c) contacting the reaction mixture in (b) with a zinc source and a selenium source to provide a ZnSe 1-x Te x nanocrystal, wherein 0<x<1; (d) admixing the ZnSe 1-x Te x nanocrystal with a solution comprising a zinc source to produce a second reaction mixture; and (e) contacting the second reaction mixture of (d) with a selenium source or a sulfur source to provide the nanostructure.
An electronic device comprising: a memory configured to store data received from an external source; an application processing unit, APU , configured to transmit a secret key generation command and a public key generation command; an isolated execution environment, IEE , configured to generate a secret key in response to the secret key generation command, to generate a public key based on the secret key in response to the public key generation command, and to store the secret key; and a non-volatile memory configured to perform a write operation and a read operation depending on a request of the APU , wherein, when data is stored in the memory , the APU transmits a public key request to the IEE , wherein the IEE transfers the public key to the APU through a mailbox protocol in response to the public key request, wherein the APU generates a ciphertext by performing homomorphic encryption on the data based on an encryption key included in the public key, and wherein the APU classifies and stores the public key and the ciphertext in the non-volatile memory . a memory configured to store data received from an external source; an application processing unit, APU , configured to transmit a secret key generation command and a public key generation command; an isolated execution environment, IEE , configured to generate a secret key in response to the secret key generation command, to generate a public key based on the secret key in response to the public key generation command, and to store the secret key; and a non-volatile memory configured to perform a write operation and a read operation depending on a request of the APU , wherein, when data is stored in the memory , the APU transmits a public key request to the IEE , wherein the IEE transfers the public key to the APU through a mailbox protocol in response to the public key request, wherein the APU generates a ciphertext by performing homomorphic encryption on the data based on an encryption key included in the public key, and wherein the APU classifies and stores the public key and the ciphertext in the non-volatile memory .
An electrically-driven razor , comprising: a handle , the handle comprising: a housing ; a motor , the motor being contained substantially within the housing ; a transmission ; at least one driven shaft ; and a coupling ; and a head , the head comprising a skin-engaging portion ; wherein the coupling links the head to the housing , the at least one driven shaft extends into the head , the head is pivotable in at least two dimensions, relative to the housing ; characterized in that the transmission is constructed to translate rotary motion of the motor to reciprocating motion of the at least one driven shaft thereby reaching a ratio of a minimum coupling diameter (D2) to a maximum handle diameter (D6) being 0.50 or less. a handle , the handle comprising: a housing ; a motor , the motor being contained substantially within the housing ; a transmission ; at least one driven shaft ; and a coupling ; and a housing ; a motor , the motor being contained substantially within the housing ; a transmission ; at least one driven shaft ; and a coupling ; and a head , the head comprising a skin-engaging portion ; wherein the coupling links the head to the housing , the at least one driven shaft extends into the head , the head is pivotable in at least two dimensions, relative to the housing ; characterized in that the transmission is constructed to translate rotary motion of the motor to reciprocating motion of the at least one driven shaft thereby reaching a ratio of a minimum coupling diameter (D2) to a maximum handle diameter (D6) being 0.50 or less.
A staple cartridge assembly for a surgical stapler , wherein the surgical stapler includes an anvil configured for a facing relationship with the staple cartridge assembly, the staple cartridge assembly comprising: a staple cartridge including: a cartridge body comprising a plurality of staple cavities ; and a plurality of staples positioned within the staple cavities; a first tissue thickness compensator ; a second tissue thickness compensator; and a retainer coupled to the cartridge body, wherein the second tissue thickness compensator is positioned intermediate the cartridge body and the retainer; and wherein the first tissue thickness compensator is attached to the retainer, wherein the first tissue thickness compensator comprises an anvil attachment portion , wherein the retainer is positioned intermediate the first tissue thickness compensator and the second tissue thickness compensator, wherein the retainer is configured to be removed from between the first tissue thickness compensator and the second tissue thickness compensator, and wherein the first and second tissue thickness compensators are configured to be captured within the staples and assume different compressed heights within different staples; characterized in that the first tissue thickness compensator defines an aperture, and wherein the retainer comprises a protrusion extending through the aperture, and wherein the protrusion is configured to mate with a channel in the anvil . a staple cartridge including: a cartridge body comprising a plurality of staple cavities ; and a plurality of staples positioned within the staple cavities; a cartridge body comprising a plurality of staple cavities ; and a plurality of staples positioned within the staple cavities; a first tissue thickness compensator ; a second tissue thickness compensator; and a retainer coupled to the cartridge body, wherein the second tissue thickness compensator is positioned intermediate the cartridge body and the retainer; and wherein the first tissue thickness compensator is attached to the retainer, wherein the first tissue thickness compensator comprises an anvil attachment portion , wherein the retainer is positioned intermediate the first tissue thickness compensator and the second tissue thickness compensator, wherein the retainer is configured to be removed from between the first tissue thickness compensator and the second tissue thickness compensator, and wherein the first and second tissue thickness compensators are configured to be captured within the staples and assume different compressed heights within different staples; characterized in that the first tissue thickness compensator defines an aperture, and wherein the retainer comprises a protrusion extending through the aperture, and wherein the protrusion is configured to mate with a channel in the anvil .
A formaldehyde-free binder composition for mineral fibres comprising: - at least one tannin, - at least one protein, - at least one fatty acid ester of glycerol, wherein the content of tannin is 1-70 wt.%, such as 2 to 60 wt.%, such as 3 to 50 wt.%, such as 4 to 40 wt.%, such as 5 to 35 wt.%, based on dry protein basis, wherein the content of the fatty acid ester of glycerol is 0.5 to 40, such as 1 to 12, such as 1.5 to 15, such as 3 to 10, such as 4 to 7.5 wt.-%, based on dry protein basis. - at least one tannin, - at least one protein, - at least one fatty acid ester of glycerol,
A dishwashing detergent, in particular an automatic dishwashing detergent, containing a metal complex of the general formula (III), (A q+ ) p [M n+ L m- ](X o- ) r (III) in which q represents 1 or 2 and A + represents a cation selected from alkali metal cations where q=1, 1⁄2 alkaline earth cations where q=2, and ammonium ions where q=1, M n+ represents an aluminum ion, a transition metal ion or a lanthanide metal ion, L represents a ligand of the formula (I) in which each E represents, independently of one another, O or NR 1 with the proviso that at least one E is not O, each R 1 represents, independently of one another, H, unsubstituted or substituted, linear or branched C 1-22 alkyl, unsubstituted or substituted, linear or branched C 1-22 heteroalkyl, unsubstituted or substituted aryl, unsubstituted or substituted heteroaryl, unsubstituted or substituted, linear or branched C 2-20 alkenyl, unsubstituted or substituted, linear or branched C 2-20 alkynyl, unsubstituted or substituted, linear or branched C 2-20 heteroalkenyl, unsubstituted or substituted, linear or branched alkylaryl, or unsubstituted or substituted, linear or branched alkyl heteroaryl, with the proviso that at least one R 1 represents a substituted C 1-22 alkyl of the general formula (IIa) or (IIc), or with the proviso that at least one R 1 represents a substituted C 1-22 alkyl of the general formula (IIIa) or (IIIc), in which Q represents O or CH 2 , w represents a number from 1 to 22, q represents 1 or 2 and A + represents a cation selected from alkali metal cations where q=1, 1⁄2 alkaline earth cations where q=2, and ammonium ions where q=1, X o- represents an anion selected from F - , Cl - , Br-, I - , OH - , HSO 3 - , SO 3 2- , SO 4 2- , HSO 4 - , NO 2 - , NO 3 - , PO 4 3- , HPO 4 2- , H 2 PO 4 - , BF 4 - , PF 6 - , ClO 4 - , acetate, citrate, formate, glutarate, lactate, malate, malonate, oxalate, pyruvate, tartrate, methane sulfonate, methyl sulfate, p-toluene sulfate and succinate, n represents a number from 1 to 5, m represents a number from 0 to 4 and o represents a number from 1 to 3, and p and r represent, independently of one another, a number from 0 and 7, with the proviso that the sum of n and the product of p and q is equal to the sum of m and the product of r and o.