mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the photolithographic preparation of a circuit board using a photoresist based on poly((meth)acrylate) organogels, comprising the following steps A) Providing at least one alkyl (meth)acrylate, an aliphatic alcohol with a carbon chain length from C4 - C10 or an n- alkane with a carbon chain length from C8 - C12 as organic solvent, a radical initiator and a cross-linker; B) Preparing a reaction mixture with the reactants and the solvent from step A) by mixing the least one alkyl (meth)acrylate with the aliphatic alcohol or the n -alkane, and adding to this mixture the radical initiator and the cross-linker; C) Applying the reaction mixture from step B) to a surface of a substrate, wherein the surface carries a conductor layer. D) Initiating the formation of radicals and (co)polymerization of the alkyl (meth)acrylate monomers under supply of heat, near-infrared (NIR) or ultraviolet-visible (UV-Vis) radiation onto the surface of the substrate from step C); E) Placing a photomask on top of the photoresist from step D); F) Irradiating the photomask from step E) with UV light; G) Removing the photomask after step F) and rinsing the substrate with water or an organic solvent such as methanol or ethanol; H) Etching the substrate after step G) in an etching solution or etching the surface of the substrate by plasma etching; I) Removing the remaining organogel photoresist after step H) by irradiation with UV light or mechanical abrasion and exposing a conductor track. A) Providing at least one alkyl (meth)acrylate, an aliphatic alcohol with a carbon chain length from C4 - C10 or an n- alkane with a carbon chain length from C8 - C12 as organic solvent, a radical initiator and a cross-linker; B) Preparing a reaction mixture with the reactants and the solvent from step A) by mixing the least one alkyl (meth)acrylate with the aliphatic alcohol or the n -alkane, and adding to this mixture the radical initiator and the cross-linker; C) Applying the reaction mixture from step B) to a surface of a substrate, wherein the surface carries a conductor layer. D) Initiating the formation of radicals and (co)polymerization of the alkyl (meth)acrylate monomers under supply of heat, near-infrared (NIR) or ultraviolet-visible (UV-Vis) radiation onto the surface of the substrate from step C); E) Placing a photomask on top of the photoresist from step D); F) Irradiating the photomask from step E) with UV light; G) Removing the photomask after step F) and rinsing the substrate with water or an organic solvent such as methanol or ethanol; H) Etching the substrate after step G) in an etching solution or etching the surface of the substrate by plasma etching; I) Removing the remaining organogel photoresist after step H) by irradiation with UV light or mechanical abrasion and exposing a conductor track.
A polyorganosiloxane represented by the following Chemical Formula 1: in the Chemical Formula 1, R 1 to R 4 are each independently hydrogen; C 1-15 alkyl unsubstituted or substituted with oxiranyl, oxiranyl-substituted C 1-10 alkoxy, or C 6-20 aryl; halogen; C 1-10 alkoxy; allyl; C 1-10 haloalkyl; or C 6-20 aryl, each of R 5 is independently hydrogen, C 1-6 alkyl, halogen, hydroxy, C 1-6 alkoxy, or C 6-20 aryl, each of X is independently -CO-, or -CO-(C 6-10 arylene)-CO-, each of Y is independently C 1-10 alkylene, each of Z is independently a bond, or -COO-, L is C 8 linear alkylene, or and each of n is independently an integer of 1 to 99. R 1 to R 4 are each independently hydrogen; C 1-15 alkyl unsubstituted or substituted with oxiranyl, oxiranyl-substituted C 1-10 alkoxy, or C 6-20 aryl; halogen; C 1-10 alkoxy; allyl; C 1-10 haloalkyl; or C 6-20 aryl, each of R 5 is independently hydrogen, C 1-6 alkyl, halogen, hydroxy, C 1-6 alkoxy, or C 6-20 aryl, each of X is independently -CO-, or -CO-(C 6-10 arylene)-CO-, each of Y is independently C 1-10 alkylene, each of Z is independently a bond, or -COO-, L is C 8 linear alkylene, or and each of n is independently an integer of 1 to 99.
A method performed by a Wi-Fi Access Controller for enabling an automatic determination of when an area covered by an Access Point, AP, of a Wi-Fi Radio Access Network, RAN, overlaps with a cell of a 3 rd Generation Partnership Project, 3GPP, RAN, the method comprising: receiving a 3GPP identifier related to a user terminal that is attached to the Wi-Fi RAN, during authentication of the user terminal, and an identifier for the AP of the Wi-Fi RAN to which the user terminal is attached; generating and sending a Location Service Request including the 3GPP identifier to a Location Services, LCS, Server associated with the 3GPP RAN; receiving a Location Service Response, from the LCS Server, that includes location information identifying the cell of the 3GPP RAN in which the user terminal is located; generating, and causing storage, of an association between the identified Wi-Fi AP and the identified 3GPP cell; recording an indication of a time at which the association is generated; and if a further association between the identified Wi-Fi AP and the identified 3GPP cell is not generated within a specified time period, cancelling the association between the identified Wi-Fi AP and the identified 3GPP cell. receiving a 3GPP identifier related to a user terminal that is attached to the Wi-Fi RAN, during authentication of the user terminal, and an identifier for the AP of the Wi-Fi RAN to which the user terminal is attached; generating and sending a Location Service Request including the 3GPP identifier to a Location Services, LCS, Server associated with the 3GPP RAN; receiving a Location Service Response, from the LCS Server, that includes location information identifying the cell of the 3GPP RAN in which the user terminal is located; generating, and causing storage, of an association between the identified Wi-Fi AP and the identified 3GPP cell; recording an indication of a time at which the association is generated; and if a further association between the identified Wi-Fi AP and the identified 3GPP cell is not generated within a specified time period, cancelling the association between the identified Wi-Fi AP and the identified 3GPP cell.
A finish configured to define an opening to an interior of a container , the finish comprising: a cylindrical body comprising a peripheral portion with a first edge and a second edge disposed at opposite ends, the first edge defining a first opening and configured to receive a container cap (164; 180; 184) comprising a seal (188; 192), the second edge defining a second opening and configured to receive a neck of the container , wherein the first and second openings are in fluid communication; a plurality of threads on an exterior of the peripheral portion, the threads configured to rotatably engage with one or more threads of the container cap (164; 180; 184) the container cap (164; 180; 184) comprising a seal (188; 192) characterised by a plurality of half-circle notches disposed at the first edge , peripheral to and on opposite sides of the first opening , the plurality of half-circle notches formed to substantially reduce foaming of contents when the container is opened. a cylindrical body comprising a peripheral portion with a first edge and a second edge disposed at opposite ends, the first edge defining a first opening and configured to receive a container cap (164; 180; 184) comprising a seal (188; 192), the second edge defining a second opening and configured to receive a neck of the container , wherein the first and second openings are in fluid communication; a plurality of threads on an exterior of the peripheral portion, the threads configured to rotatably engage with one or more threads of the container cap (164; 180; 184) the container cap (164; 180; 184) comprising a seal (188; 192) characterised by a plurality of half-circle notches disposed at the first edge , peripheral to and on opposite sides of the first opening , the plurality of half-circle notches formed to substantially reduce foaming of contents when the container is opened.
Composite material comprising between 30 and 95% by mass of raw clay, between 1 and 50% of short cellulose fibres and between 1 and 30% of long cellulose fibres for a use as a protective barrier against fire and/or water, said composite material being characterised in that it comprises i) a plastic paste comprising between 30 and 95% by mass of clay, between 1 and 50% by mass of short cotton fibres of a size of between 0.5 and 1mm and between 1 to 30% in long kapok fibres of a size of between 5 and 12mm and ii) a terracotta comprising between 30 and 95% by mass of clay and between 1 and 50% by mass of short cotton fibres of a size of between 0.5 and 1mm, said plastic paste once shaped being infiltrated by said terracotta.
A display device (DD) comprising: a display panel layer (DPL) comprising a display area (DA), the display area (DA) comprising a plurality of light emitting areas (PXA) and a first non-light emitting area (NLU1), the display panel layer (DPL) further comprising a second non-light emitting area (NLU2), the first non-light emitting area (NLU1) being around each of the light emitting areas (PXA), and the second non-light emitting area (NLU2) being outside the display area (DA); a window coating layer (WL) including a transparent material and positioned directly on a first surface (F1) of the display panel layer (DPL); and a first curl-preventing pattern (CPA, CPA2, CPA2') contacting the window coating layer (WL), wherein the first curl-preventing pattern (CPA, CPA2, CPA2') includes a material having an elastic modulus greater than an elastic modulus of the window coating layer (WL) and is configured to prevent the window coating layer (WL) from curling characterized in that the first curl-preventing pattern (CPA, CPA2, CPA2') overlaps both the first non-light emitting area (NLU1) and the window coating layer (WL) in a thickness direction (DR3) of the display panel layer (DPL). a display panel layer (DPL) comprising a display area (DA), the display area (DA) comprising a plurality of light emitting areas (PXA) and a first non-light emitting area (NLU1), the display panel layer (DPL) further comprising a second non-light emitting area (NLU2), the first non-light emitting area (NLU1) being around each of the light emitting areas (PXA), and the second non-light emitting area (NLU2) being outside the display area (DA); a window coating layer (WL) including a transparent material and positioned directly on a first surface (F1) of the display panel layer (DPL); and a first curl-preventing pattern (CPA, CPA2, CPA2') contacting the window coating layer (WL), wherein the first curl-preventing pattern (CPA, CPA2, CPA2') includes a material having an elastic modulus greater than an elastic modulus of the window coating layer (WL) and is configured to prevent the window coating layer (WL) from curling characterized in that the first curl-preventing pattern (CPA, CPA2, CPA2') overlaps both the first non-light emitting area (NLU1) and the window coating layer (WL) in a thickness direction (DR3) of the display panel layer (DPL).
A heating device, comprising a casing including side covers and a bottom cover and comprising a control panel functionally connectable to the device by means of cables or wirelessly and mechanically removably fastened to the casing of the device, characterized in that the control panel is formed by a body on which fastening means are arranged comprising of at least two fasteners provided with spring elements , at least two fasteners provided with bosses , partitions and slotted openings and at least two bosses provided with openings for hanging, and the body is provided with control and display elements, wherein in a service position, the body is operatively connected to the device by means of wires or wirelessly and the at least two bosses are hinged to protrusions extending from the bottom cover of the device casing, wherein the display elements are visible for monitoring and the control elements are adjustable during handling of components of the device. characterized in that the control panel is formed by a body on which fastening means are arranged comprising of at least two fasteners provided with spring elements , at least two fasteners provided with bosses , partitions and slotted openings and at least two bosses provided with openings for hanging, and the body is provided with control and display elements, wherein in a service position, the body is operatively connected to the device by means of wires or wirelessly and the at least two bosses are hinged to protrusions extending from the bottom cover of the device casing, wherein the display elements are visible for monitoring and the control elements are adjustable during handling of components of the device.
A computer implemented method for executing a procedure to select a water-soluble variant of a G Protein-Coupled Receptor (GPCR), the method comprising: entering a sequence of the GPCR for analysis; obtaining a variant of the GPCR, wherein a plurality of hydrophobic amino acids in the transmembrane (TM) domain alpha-helical segments ("TM regions") of the GPCR are substituted, wherein: (a) said hydrophobic amino acids are selected from the group consisting of Leucine (L), Isoleucine (I), Valine (V), and Phenylalanine (F); (b) each said Leucine (L) is independently substituted by Glutamine (Q), Asparagine (N), or Serine (S); (c) each said Isoleucine (I) and said Valine (V) are independently substituted by Threonine (T), Asparagine (N), or Serine (S); and, (d) each said Phenylalanine is substituted by Tyrosine (Y); and, subsequently, obtaining an α-helical secondary structure result for the variant to verify maintenance of α-helical secondary structures in the variant; obtaining a trans-membrane region result for the variant to verify water solubility of the variant, thereby selecting the water-soluble variant of the GPCR, wherein the method is optionally performed with a data processor that is optionally connected to a memory, wherein step is optionally performed prior to, concurrently with, or after step , and wherein the method further comprises: optionally ranking the variant using a ranking function, said ranking function optionally including a secondary structure component and a water solubility component, and said ranking function optionally including a weighting value for the secondary structure component and/or the water solubility component. entering a sequence of the GPCR for analysis; obtaining a variant of the GPCR, wherein a plurality of hydrophobic amino acids in the transmembrane (TM) domain alpha-helical segments ("TM regions") of the GPCR are substituted, wherein: (a) said hydrophobic amino acids are selected from the group consisting of Leucine (L), Isoleucine (I), Valine (V), and Phenylalanine (F); (b) each said Leucine (L) is independently substituted by Glutamine (Q), Asparagine (N), or Serine (S); (c) each said Isoleucine (I) and said Valine (V) are independently substituted by Threonine (T), Asparagine (N), or Serine (S); and, (d) each said Phenylalanine is substituted by Tyrosine (Y); and, subsequently, (a) said hydrophobic amino acids are selected from the group consisting of Leucine (L), Isoleucine (I), Valine (V), and Phenylalanine (F); (b) each said Leucine (L) is independently substituted by Glutamine (Q), Asparagine (N), or Serine (S); (c) each said Isoleucine (I) and said Valine (V) are independently substituted by Threonine (T), Asparagine (N), or Serine (S); and, (d) each said Phenylalanine is substituted by Tyrosine (Y); and, subsequently, obtaining an α-helical secondary structure result for the variant to verify maintenance of α-helical secondary structures in the variant; obtaining a trans-membrane region result for the variant to verify water solubility of the variant,
A fishing system comprising: an unmanned aerial vehicle ; and a fishing line fixing portion detachably fixed to a main body of the unmanned aerial vehicle and fixing a fishing line , wherein the unmanned aerial vehicle comprises: an imaging device , a connection control unit configured to release a fixing between the main body and the fishing line fixing portion , and a fish school tracking processing unit configured to identify a fish in imaging data captured by the imaging device and control the unmanned aerial vehicle to track the fish, wherein the fishing line fixing portion comprises a first fixing portion and a second fixing portion , a fixing between the main body and the first fixing portion and a fixing between the main body and the second fixing portion are configured to be independently released, and the connection control unit is configured to drop the artificial bait into the sea together with the first fixing portion when the fixing between the main body and the first fixing portion is released, characterized in that the unmanned aerial vehicle further comprises a hooking determination processing unit configured to determine whether the fish is hooked on an artificial bait attached to a first end of the fishing line, and the connection control unit is configured to release the fixing between the main body and the second fixing portion and to drop the second fixing portion into the sea when the fish is hooked. an unmanned aerial vehicle ; and a fishing line fixing portion detachably fixed to a main body of the unmanned aerial vehicle and fixing a fishing line , wherein the unmanned aerial vehicle comprises: an imaging device , a connection control unit configured to release a fixing between the main body and the fishing line fixing portion , and a fish school tracking processing unit configured to identify a fish in imaging data captured by the imaging device and control the unmanned aerial vehicle to track the fish, an imaging device , a connection control unit configured to release a fixing between the main body and the fishing line fixing portion , and a fish school tracking processing unit configured to identify a fish in imaging data captured by the imaging device and control the unmanned aerial vehicle to track the fish, wherein the fishing line fixing portion comprises a first fixing portion and a second fixing portion , a fixing between the main body and the first fixing portion and a fixing between the main body and the second fixing portion are configured to be independently released, and the connection control unit is configured to drop the artificial bait into the sea together with the first fixing portion when the fixing between the main body and the first fixing portion is released, characterized in that the unmanned aerial vehicle further comprises a hooking determination processing unit configured to determine whether the fish is hooked on an artificial bait attached to a first end of the fishing line, and the connection control unit is configured to release the fixing between the main body and the second fixing portion and to drop the second fixing portion into the sea when the fish is hooked.
A load sharing system comprising: a plurality of power supplies (16a-16d) for powering a plurality of corresponding loads, each one of the plurality of power supplies being associated with at least one of the loads for powering its associated said load; a power bus ; a plurality of inductors (18a1-18d1, 18a2-18d2) connected to the power bus, each one of the plurality of inductors further being connected to at least one of the loads and at least one of the power supplies, such that each adjacent pair of the inductors is connected in parallel relative to at least one of the loads, and also in parallel with its associated power supply; and each of the inductors having an inductance value sufficient so that if a fault develops on the power bus, each said inductor operates to isolate the power supplies from the power bus; and the inductance value further being such that if any one of the power supplies fails, the specific pair of inductors coupled in parallel to the one of the loads associated with the failed power supply allows the one load to draw power over the power bus from other ones of the power supplies through the specific pair of inductors; and wherein the power bus is comprised of first and second independent power busses and further wherein the inductors of each said adjacent pair of inductors are connected so a first one of the adjacent pair is connected to the first power bus and the second one of the adjacent pair is connected to the second power bus. a plurality of power supplies (16a-16d) for powering a plurality of corresponding loads, each one of the plurality of power supplies being associated with at least one of the loads for powering its associated said load; a power bus ; a plurality of inductors (18a1-18d1, 18a2-18d2) connected to the power bus, each one of the plurality of inductors further being connected to at least one of the loads and at least one of the power supplies, such that each adjacent pair of the inductors is connected in parallel relative to at least one of the loads, and also in parallel with its associated power supply; and each of the inductors having an inductance value sufficient so that if a fault develops on the power bus, each said inductor operates to isolate the power supplies from the power bus; and the inductance value further being such that if any one of the power supplies fails, the specific pair of inductors coupled in parallel to the one of the loads associated with the failed power supply allows the one load to draw power over the power bus from other ones of the power supplies through the specific pair of inductors; and wherein the power bus is comprised of first and second independent power busses and further wherein the inductors of each said adjacent pair of inductors are connected so a first one of the adjacent pair is connected to the first power bus and the second one of the adjacent pair is connected to the second power bus.
A method for manufacturing high strength steel sheets, comprising continuous annealing of a steel sheet which includes, in terms of mass%, C at 0.01 to 0.18%, Si at 0.4 to 2.0%, Mn at 1.0 to 3.0%, Al at 0.001 to 1.0%, P at 0.005 to 0.060% and S at ≤ 0.01%, optionally further one or more elements selected from B at 0.001 to 0.005%, Nb at 0.005 to 0.05%, Ti at 0.005 to 0.05%, Cr at 0.001 to 1.0%, Mo at 0.05 to 1.0%, Cu at 0.05 to 1.0% and Ni at 0.05 to 1.0%, the balance being represented by Fe and inevitable impurities, controlling the dew-point of the annealing atmosphere with respect to an annealing furnace inside temperature including setting the dew-point greater than -40°C when the annealing furnace inside temperature is less than 750°C, and setting the dew-point of the annealing atmosphere less than or equal to -40°C when the annealing furnace inside temperature is greater than or equal to 750°C.