mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making an electronic device comprising: forming an interconnect layer stack on a rigid wafer substrate , said interconnect layer stack comprising a plurality of patterned electrical conductor layers with dielectric layers between adjacent patterned electrical conductor layers , and at least one solder pad on an uppermost patterned electrical conductor layer ; forming an LCP solder mask , with the LCP solder mask having at least one aperture therein alignable with the at least one solder pad ; aligning the at least one aperture in the LCP solder mask with the interconnect layer stack together; laminating the LCP solder mask and the interconnect layer stack together; positioning solder in the at least one aperture ; and positioning an integrated circuit over the solder mask such that the integrated circuit pads contact the solder . forming an interconnect layer stack on a rigid wafer substrate , said interconnect layer stack comprising a plurality of patterned electrical conductor layers with dielectric layers between adjacent patterned electrical conductor layers , and at least one solder pad on an uppermost patterned electrical conductor layer ; forming an LCP solder mask , with the LCP solder mask having at least one aperture therein alignable with the at least one solder pad ; aligning the at least one aperture in the LCP solder mask with the interconnect layer stack together; laminating the LCP solder mask and the interconnect layer stack together; positioning solder in the at least one aperture ; and positioning an integrated circuit over the solder mask such that the integrated circuit pads contact the solder .
A pin for use in devices for processing wafer-shaped articles, comprising: - a body formed of a chemically inert bulk material and defining a hollow cavity , wherein the pin includes gripping parts configured to contact a semiconductor wafer laterally along the edge of the semiconductor wafer, and - an insert positioned within said cavity formed of a material whose Young's modulus is greater than that of the bulk material, wherein the cavity is a blind bore, and the insert is entirely covered by the bulk inert material on all surfaces within the gripping part , wherein the upper part of the blind bore is within the gripping part of the pin. - a body formed of a chemically inert bulk material and defining a hollow cavity , wherein the pin includes gripping parts configured to contact a semiconductor wafer laterally along the edge of the semiconductor wafer, and - an insert positioned within said cavity formed of a material whose Young's modulus is greater than that of the bulk material, wherein the cavity is a blind bore, and the insert is entirely covered by the bulk inert material on all surfaces within the gripping part , wherein the upper part of the blind bore is within the gripping part of the pin.
A heater comprising: a ceramic substrate ; and a heating layer , wherein the heating layer is bonded to the ceramic substrate via a transient liquid phase bond, characterised by the heater further comprising a routing layer , and a plurality of first conductive vias connecting the heating layer to the routing layer , wherein the ceramic substrate is an AIN substrate, the routing layer and the plurality of first conductive vias are made from a molybdenum material, and the routing layer and the plurality of first conductive vias are bonded to the AIN substrate via the transient liquid phase bond. a ceramic substrate ; and a heating layer , wherein the heating layer is bonded to the ceramic substrate via a transient liquid phase bond, characterised by the heater further comprising a routing layer , and a plurality of first conductive vias connecting the heating layer to the routing layer , wherein the ceramic substrate is an AIN substrate, the routing layer and the plurality of first conductive vias are made from a molybdenum material, and the routing layer and the plurality of first conductive vias are bonded to the AIN substrate via the transient liquid phase bond.
An elongated signal tape (10, 10', 10") comprising: a core material and protective material enclosing said core material; said protective material comprising a top sheet of thermoplastic material having a first predetermined length and a first predetermined width and a bottom sheet of thermoplastic material having a second predetermined length and a second predetermined width with said first and second predetermined lengths being approximately equal and with said first and second predetermined widths being approximately equal; said core material being positioned between said top and bottom thermoplastic sheets, said core material having: a predetermined third length, an outer surface, a maximum lateral dimension of approximately one inch (or approximately 2.54 cm), a minimum predetermined tensile strength, said core material having at least one smoke generator (12, 12', 12") fastened thereto along said predetermined third length; said at least one smoke generator (122, 12', 12") comprising a smoke producing composition and an igniter portion embedded in said smoke producing composition with an ignition wire having first and second ends with said first end embedded within said igniter portion , and with said second end attached to said core material such that relative motion between said core material and said smoke generator (12, 12', 12") will cause said igniter wire to be pulled out of said igniter portion , thus igniting said at least one smoke generator (12, 12', 12"); and, said elongated signal tape (10, 10', 10") further comprising adhesive, bonding at least one of the top or bottom sheet of thermoplastic material to a substantial portion of the outer surface of said core material and also bonding the outer edges of said top and bottom thermoplastic sheets together. a core material and protective material enclosing said core material; said protective material comprising a top sheet of thermoplastic material having a first predetermined length and a first predetermined width and a bottom sheet of thermoplastic material having a second predetermined length and a second predetermined width with said first and second predetermined lengths being approximately equal and with said first and second predetermined widths being approximately equal; said core material being positioned between said top and bottom thermoplastic sheets, a predetermined third length, an outer surface, a maximum lateral dimension of approximately one inch (or approximately 2.54 cm), a minimum predetermined tensile strength, said core material having at least one smoke generator (12, 12', 12") fastened thereto along said predetermined third length;
A medical implant system comprising an implant and an attachment mechanism, wherein the attachment mechanism comprises: a first part (172; 300; 400; 600) configured to be fixedly attached to a distal end of an elongate shaft ; and a second part (174; 300; 400; 600) fixedly attached to a proximal end of a medical implant ; wherein a tubular distal portion (184; 302; 402; 502, 602) of the second part (174; 300; 400; 600) includes an engagement feature (304; 404; 604) configured to non-releasably engage the second part (174; 300; 400500, 600) with the medical implant ; characterised in that the engagement feature includes one or more recesses extending into an outer surface of the tubular distal portion of the second part , wherein a portion of the medical implant extends into the one or more recesses , and wherein the portion of the medical implant extending into the one or more recesses includes a movable tab biased radially inward; or in that the engagement feature (304; 404) includes at least one protrusion (306; 406) extending radially outward from an outer surface of the tubular distal portion (302; 402) of the second part (300; 400), and wherein the medical implant includes at least one window extending through a wall of the medical implant configured to receive the at least one protrusion (306; 406). a first part (172; 300; 400; 600) configured to be fixedly attached to a distal end of an elongate shaft ; and a second part (174; 300; 400; 600) fixedly attached to a proximal end of a medical implant ; wherein a tubular distal portion (184; 302; 402; 502, 602) of the second part (174; 300; 400; 600) includes an engagement feature (304; 404; 604) configured to non-releasably engage the second part (174; 300; 400500, 600) with the medical implant ; characterised in that the engagement feature includes one or more recesses extending into an outer surface of the tubular distal portion of the second part , wherein a portion of the medical implant extends into the one or more recesses , and wherein the portion of the medical implant extending into the one or more recesses includes a movable tab biased radially inward; or in that the engagement feature (304; 404) includes at least one protrusion (306; 406) extending radially outward from an outer surface of the tubular distal portion (302; 402) of the second part (300; 400), and wherein the medical implant includes at least one window extending through a wall of the medical implant configured to receive the at least one protrusion (306; 406).
Vacuum pump servicing adapter for servicing a vacuum pump of a service unit for a vehicle air conditioning system comprising a connection element and a ventilation element , wherein the connection element is configured to be connected to an oil container and characterised in that the ventilation element is configured to be connected to the connection element in a storage orientation and in a ventilation orientation.
A method comprising: storing, in a register, a first encoded pointer to a first memory location, wherein first context information is stored in first bits of the first encoded pointer and a slice of a linear address of the first memory location is stored in second bits of the first encoded pointer; executing a first memory access instruction, the executing including: decoding the first encoded pointer to obtain the linear address of the first memory location, obtaining a physical address of the first memory location, and accessing encrypted data at the first memory location; deriving a first tweak based at least in part on the first encoded pointer; generating a keystream based on the first tweak and a key; and decrypting the encrypted data based on the keystream, wherein the keystream is generated at least partly in parallel with accessing the encrypted data. storing, in a register, a first encoded pointer to a first memory location, wherein first context information is stored in first bits of the first encoded pointer and a slice of a linear address of the first memory location is stored in second bits of the first encoded pointer; executing a first memory access instruction, the executing including: decoding the first encoded pointer to obtain the linear address of the first memory location, obtaining a physical address of the first memory location, and accessing encrypted data at the first memory location; decoding the first encoded pointer to obtain the linear address of the first memory location, obtaining a physical address of the first memory location, and accessing encrypted data at the first memory location; deriving a first tweak based at least in part on the first encoded pointer; generating a keystream based on the first tweak and a key; and decrypting the encrypted data based on the keystream, wherein the keystream is generated at least partly in parallel with accessing the encrypted data.
A computing system comprising: one or more processors ; and one or more computer-readable media having thereon computer-executable instructions that are structured such that, when executed by the one or more processors , cause the computing system to perform a method for encrypting and sharing one or more data objects stored in a personal storage that is associated with a first DID , the method comprising: generating an encryption/decryption key using a passphrase and an identifier of the personal storage that stores or is to store a data object ; encrypting the data object stored or to be stored in the personal storage using the encryption/decryption key ; storing the encrypted data object in the personal storage; receiving a request for accessing the encrypted data object from another entity that is not associated with the DID ; negotiating with the other entity a protection strategy for protecting the encryption/decryption key ; protecting the encryption/decryption key based on the negotiated protection strategy; and sending the encrypted data object and the protected encryption/decryption key to the other entity. one or more processors ; and one or more computer-readable media having thereon computer-executable instructions that are structured such that, when executed by the one or more processors , cause the computing system to perform a method for encrypting and sharing one or more data objects stored in a personal storage that is associated with a first DID , the method comprising: generating an encryption/decryption key using a passphrase and an identifier of the personal storage that stores or is to store a data object ; encrypting the data object stored or to be stored in the personal storage using the encryption/decryption key ; storing the encrypted data object in the personal storage; receiving a request for accessing the encrypted data object from another entity that is not associated with the DID ; negotiating with the other entity a protection strategy for protecting the encryption/decryption key ; protecting the encryption/decryption key based on the negotiated protection strategy; and sending the encrypted data object and the protected encryption/decryption key to the other entity. generating an encryption/decryption key using a passphrase and an identifier of the personal storage that stores or is to store a data object ; encrypting the data object stored or to be stored in the personal storage using the encryption/decryption key ; storing the encrypted data object in the personal storage; receiving a request for accessing the encrypted data object from another entity that is not associated with the DID ; negotiating with the other entity a protection strategy for protecting the encryption/decryption key ; protecting the encryption/decryption key based on the negotiated protection strategy; and sending the encrypted data object and the protected encryption/decryption key to the other entity.
A composition comprising: a) one or more copolymer of i) one or more of one or more vinyl or vinylidene aromatic monomers and/or one or more (meth)acrylates; with ii) one or more unsaturated compounds containing one or more nucleophilic groups wherein the copolymer contains on average 0.01 to 5.0 percent by weight of nucleophilic groups based on the weight of the copolymer, said copolymer having a Tg of greater than 100 °C (as measured according to the description); b) one or more thermoplastic elastomer based polymers containing one or more nucleophilic groups; and c) one or more polymers having electrophilic groups; wherein the electrophilic groups are reactive with the nucleophilic groups. a) one or more copolymer of i) one or more of one or more vinyl or vinylidene aromatic monomers and/or one or more (meth)acrylates; with ii) one or more unsaturated compounds containing one or more nucleophilic groups wherein the copolymer contains on average 0.01 to 5.0 percent by weight of nucleophilic groups based on the weight of the copolymer, said copolymer having a Tg of greater than 100 °C (as measured according to the description); b) one or more thermoplastic elastomer based polymers containing one or more nucleophilic groups; and c) one or more polymers having electrophilic groups;
A gas barrier laminate comprising a base, a primer layer, and a gas barrier layer, the primer layer and the gas barrier layer being sequentially stacked on at least one side of the base, a material for forming the base being a polymer selected from the group consisting of polyimides, polyamides, polyamideimides, polyphenylene ethers, polyether ketones, polyether ether ketones, polyolefins, polyesters, polycarbonates, polysulfones, polyether sulfones, polyphenylene sulfides, polyallylates, acrylic resins, cycloolefin polymers, and aromatic polymers, the primer layer being a layer obtained by curing a (meth)acrylate-based ionizing radiation-curable compound or an enethiol-based ionizing radiation-curable resin composition, the primer layer having a modulus of elasticity at 90°C, as measured by a nanoindentation method that utilizes a nanohardness tester, of 1.6 GPa or more, the gas barrier layer being a layer selected from the group consisting of a layer that is formed of an inorganic deposited film, a layer that includes a gas barrier resin, and a layer obtained by implanting ions into a layer that includes a polymer compound, wherein a surface of one side of the gas barrier laminate where the primer layer and the gas barrier layer are stacked has an arithmetic average roughness (Ra) measured using an optical interference microscope of 8 nm or less and a total height (Rt) of a roughness profile measured using an optical interference microscope of less than 150 nm; a surface of the other side of the gas barrier laminate has an arithmetic average roughness (Ra) measured using an optical interference microscope of 15 nm or more and a total height (Rt) of a roughness profile measured using an optical interference microscope of 150 nm or more; and a coefficient of static friction measured in accordance with JIS K 7125 between the surface of one side of the gas barrier laminate and the surface of the other side of the gas barrier laminate is 0.35 to 0.8.
A 360-degree video data processing method performed by a 360-degree video reception apparatus, the 360-degree video data processing method comprising: receiving (S2200) the 360-degree video data and metadata; the 360-degree video data including fisheye omnidirectional video data including a picture including a first circular image and a second circular image captured with one or more fisheye lenses that are directly projected onto the picture; decoding (S2220) the picture; and rendering (S2240) the first and second circular images, wherein the metadata includes fisheye video information for the picture, the fisheye video information is used to render the first circular image and the second circular image, and the fisheye video information for the picture including a first lens type information representing a lens projection model corresponding to the first circular image and a second lens type information representing a lens projection model corresponding to the second circular image. receiving (S2200) the 360-degree video data and metadata; the 360-degree video data including fisheye omnidirectional video data including a picture including a first circular image and a second circular image captured with one or more fisheye lenses that are directly projected onto the picture; decoding (S2220) the picture; and rendering (S2240) the first and second circular images, wherein the metadata includes fisheye video information for the picture, the fisheye video information is used to render the first circular image and the second circular image, and the fisheye video information for the picture including a first lens type information representing a lens projection model corresponding to the first circular image and a second lens type information representing a lens projection model corresponding to the second circular image.
Automatic feed-in apparatus with a housing and a carriage , comprising an entrainment element that can be moved in the housing between a parking position secured in a non-positive and/or positive-locking manner and an end position and back, comprising a first spring energy store connecting the entrainment element and the housing and comprising at least one second spring energy store , both of which are charged when the entrainment element is positioned in the parking position and are discharged to a residual energy value when the entrainment element is positioned in the end position , wherein the first spring energy store is guided around a deflection disc rotatably mounted relative to the carriage and wherein the carriage is biased relative to the housing in the direction of the first spring energy store wrapping around the deflection disc by means of the second spring energy store and wherein the deflection disc comprises a circumferential guide groove , characterized in that - the deflection disc on the carriage is supported by means of two outer bearing pins rotatably mounted within the carriage , - at least one tangential plane on the shell surface of the deflection disc intersects both bearing pins and - the deflection disc is guided during a rotary movement by means of the carriage or by means of the bearing pins . - the deflection disc on the carriage is supported by means of two outer bearing pins rotatably mounted within the carriage , - at least one tangential plane on the shell surface of the deflection disc intersects both bearing pins and - the deflection disc is guided during a rotary movement by means of the carriage or by means of the bearing pins .
An electrode active material comprising: a core active material having a layered structure and capable of reversibly incorporating and deincorporating lithium; a dopant comprising boron and a first metal in the core active material; and a nanostructure disposed on a surface of the core active material and comprising a metal borate compound comprising a second metal, wherein the second metal is the same as the first metal, wherein a total amount of boron and the first metal in the dopant, and boron and the second metal contained in the metal borate compound is in a range of 0.3 mol % to 1 mol % based on 1 mol of the core active material, wherein the core active material is a compound represented by Formula 3 having a layered structure: Formula 3 LiNi x M 1 1-x O 2-e M' e wherein, in Formula 3, M 1 is manganese, vanadium, chromium, iron, cobalt, zirconium, rhenium, boron, germanium, ruthenium, tin, titanium, niobium, molybdenum, platinum, or a combination thereof; M' is an anion element comprising F, S, Cl, Br, or a combination thereof; and x and e satisfy 0.7 ≤ x < 1 and 0 ≤ e < 1, wherein the first metal comprises aluminum, zirconium, calcium, barium, bismuth, tin, zinc, silicon, strontium, titanium, vanadium, chromium, iron, copper, niobium, molybdenum, ruthenium, palladium, silver, cadmium, tantalum, tungsten, iridium, platinum, gold, or a combination thereof, and wherein the amount of boron, the first metal, and the second metal are measured via Inductively Coupled Plasma ICP spectrometry analysis. a core active material having a layered structure and capable of reversibly incorporating and deincorporating lithium; a dopant comprising boron and a first metal in the core active material; and a nanostructure disposed on a surface of the core active material and comprising a metal borate compound comprising a second metal, wherein the second metal is the same as the first metal, wherein a total amount of boron and the first metal in the dopant, and boron and the second metal contained in the metal borate compound is in a range of 0.3 mol % to 1 mol % based on 1 mol of the core active material, wherein the core active material is a compound represented by Formula 3 having a layered structure: Formula 3 LiNi x M 1 1-x O 2-e M' e wherein, in Formula 3, M 1 is manganese, vanadium, chromium, iron, cobalt, zirconium, rhenium, boron, germanium, ruthenium, tin, titanium, niobium, molybdenum, platinum, or a combination thereof; M' is an anion element comprising F, S, Cl, Br, or a combination thereof; and x and e satisfy 0.7 ≤ x < 1 and 0 ≤ e < 1, wherein the first metal comprises aluminum, zirconium, calcium, barium, bismuth, tin, zinc, silicon, strontium, titanium, vanadium, chromium, iron, copper, niobium, molybdenum, ruthenium, palladium, silver, cadmium, tantalum, tungsten, iridium, platinum, gold, or a combination thereof, and wherein the amount of boron, the first metal, and the second metal are measured via Inductively Coupled Plasma ICP spectrometry analysis.