mhurhangee/ep-ind-claims huggingface dataset:
A 3D printed thermal expansion structure, comprising: a thermoplastic material which is in a range from 50 to 90 wt% based on a weight of the 3D printed thermal expansion structure; and a thermal expansion material which is in a range from 10 to 50 wt% based on the weight of the 3D printed thermal expansion structure; wherein, the thermoplastic material and the thermal expansion material are mixed to form a mixed material, and the mixed material is utilized by a 3D printing apparatus to form a solid object, and the solid object is heated to expand to form the 3D printed thermal expansion structure; wherein a volume of the 3D printed thermal expansion structure is 1.2-2.5 times of a volume of the solid object; wherein a heat deflection temperature of the thermoplastic material is lower than a heat expansion temperature of the thermal expansion material (14, 24); wherein the solid object is enlarged proportionally to form the 3D printed thermal expansion structure, and the 3D printed thermal expansion structure and the solid object have a same configuration. a thermoplastic material which is in a range from 50 to 90 wt% based on a weight of the 3D printed thermal expansion structure; and a thermal expansion material which is in a range from 10 to 50 wt% based on the weight of the 3D printed thermal expansion structure; wherein, the thermoplastic material and the thermal expansion material are mixed to form a mixed material, and the mixed material is utilized by a 3D printing apparatus to form a solid object, and the solid object is heated to expand to form the 3D printed thermal expansion structure; wherein a volume of the 3D printed thermal expansion structure is 1.2-2.5 times of a volume of the solid object; wherein a heat deflection temperature of the thermoplastic material is lower than a heat expansion temperature of the thermal expansion material (14, 24); wherein the solid object is enlarged proportionally to form the 3D printed thermal expansion structure, and the 3D printed thermal expansion structure and the solid object have a same configuration.
A single compartment gas permeable cell culture device for culturing cells that settle out of medium by gravity, the device comprising a static cell culture container including a bottom connected to a top by a sidewall, and a medium access port to said container, wherein said bottom is comprised of gas permeable material in contact with a gas permeable material support that allows ambient gas to make contact with the gas permeable material by passive diffusion without ancillary pumping mechanisms to pump gas and the gas permeable material support holds the gas permeable material in a horizontal state such that cells do not pile up in any low points, and said device is capable of holding a volume in contact with the gas permeable material whereby the uppermost surface of the volume of medium is at a height of 5.09cm above the gas permeable material.
A method for shrink wrapping two or more articles, the method comprising: providing a heat shrinkable woven raffia fabric formed from warp and weft tapes, wherein each warp and weft tape comprises 80 to 100 wt.%, based on the total wt.% of polymers present in the warp and weft tapes, of an ethylene/alpha-olefin copolymer having a density of 0.945 g/cc or greater and a melt index, as determined according to ASTM D1238 (190°C, 2.16 kg), of from 0.01 to 2.0 g/10 min; wrapping the heat shrinkable woven raffia fabric around two or more articles to form a wrapped bundle; and heating the wrapped bundle to form a shrink wrapped bundle. providing a heat shrinkable woven raffia fabric formed from warp and weft tapes, wherein each warp and weft tape comprises 80 to 100 wt.%, based on the total wt.% of polymers present in the warp and weft tapes, of an ethylene/alpha-olefin copolymer having a density of 0.945 g/cc or greater and a melt index, as determined according to ASTM D1238 (190°C, 2.16 kg), of from 0.01 to 2.0 g/10 min; wrapping the heat shrinkable woven raffia fabric around two or more articles to form a wrapped bundle; and heating the wrapped bundle to form a shrink wrapped bundle.
A nozzle management system comprising: multiple nozzle housing devices which include a housing section that houses suction nozzles for picking up and holding an electronic component and a transfer mechanism for transferring a suction nozzle housed in the housing section to a nozzle tray; and a control device which includes a transfer information acquisition section that acquires information related to at least one suction nozzle which is required to be transferred to a nozzle tray; wherein the control device has a housed nozzle information acquisition section that acquires information related to suction nozzles housed in the housing section of the respective multiple nozzle housing devices, a first determination section that, when suction nozzles housed in the housing section of a prescribed nozzle housing device from among the multiple nozzle housing devices are transferred to a nozzle tray, determines whether all the required suction nozzles are housed in the housing section of the prescribed nozzle housing device based on information acquired by the transfer information acquisition device, and a second determination section that, in a case in which not all the required suction nozzles are housed in the housing section of the prescribed nozzle housing device, determines whether non-housed suction nozzles which are not stored in the housing section of the prescribed nozzle housing device from among the required suction nozzles are stored in the housing section of a nozzle housing device other than the prescribed nozzle housing device from among the multiple nozzle housing devices. multiple nozzle housing devices which include a housing section that houses suction nozzles for picking up and holding an electronic component and a transfer mechanism for transferring a suction nozzle housed in the housing section to a nozzle tray; and a control device which includes a transfer information acquisition section that acquires information related to at least one suction nozzle which is required to be transferred to a nozzle tray;
A method for coating a gas turbine engine component, the method comprising: applying a ceramic barrier coat by means of electron beam physical vapor deposition, wherein the applying of the barrier coat comprises: rotating the substrate as the barrier coat is applied; and varying a speed of the rotation by alternating between a low rate and a high rate so that a buildup of the barrier coat at a given location on the component is formed by passes at varied speed, characterised in that the alternating occurs at least once per revolution. applying a ceramic barrier coat by means of electron beam physical vapor deposition, wherein the applying of the barrier coat comprises: rotating the substrate as the barrier coat is applied; and varying a speed of the rotation by alternating between a low rate and a high rate so that a buildup of the barrier coat at a given location on the component is formed by passes at varied speed, characterised in that rotating the substrate as the barrier coat is applied; and varying a speed of the rotation by alternating between a low rate and a high rate so that a buildup of the barrier coat at a given location on the component is formed by passes at varied speed, characterised in that the alternating occurs at least once per revolution.
An oxidizing gas sensor for sensing nitrogen dioxide comprising: a substrate having an open space portion in which the thickness is reduced; an insulating layer formed on the surface of said substrate so as to cover said open space portion; a heating element formed in said insulating layer at a position corresponding to said open space portion; a gas sensing element formed on the surface of said insulating layer at a position corresponding to said heating element; and a pair of electrodes disposed to contact said gas sensing element, wherein said gas sensing element includes a sensitive layer composed of 90% mass or more of tin oxide, and a gas-permeable catalytic portion formed of 80% mass or more of gold at least on a portion of the surface of said sensitive layer and having gas permeability, said catalytic portion has a mass thickness of 0.008 to 170 nm, said catalytic portion is formed to cover 1.5 to 93 % of the area of said sensitive layer viewing the gas sensing element is in the direction passing through the thinnest dimension of said substrate, the average of the maximum sizes of one grain of said catalytic portion in a planar direction is 2 micrometers or less, the structure of said sensitive layer is an agglomerate of tin oxide columnar crystal grains; and said crystal grains have an average minor axis length (d) of 7 to 65 nm. a substrate having an open space portion in which the thickness is reduced; an insulating layer formed on the surface of said substrate so as to cover said open space portion; a heating element formed in said insulating layer at a position corresponding to said open space portion; a gas sensing element formed on the surface of said insulating layer at a position corresponding to said heating element; and a pair of electrodes disposed to contact said gas sensing element, wherein said gas sensing element includes a sensitive layer composed of 90% mass or more of tin oxide, and a gas-permeable catalytic portion formed of 80% mass or more of gold at least on a portion of the surface of said sensitive layer and having gas permeability, said catalytic portion has a mass thickness of 0.008 to 170 nm, said catalytic portion is formed to cover 1.5 to 93 % of the area of said sensitive layer viewing the gas sensing element is in the direction passing through the thinnest dimension of said substrate, the average of the maximum sizes of one grain of said catalytic portion in a planar direction is 2 micrometers or less, the structure of said sensitive layer is an agglomerate of tin oxide columnar crystal grains; and said crystal grains have an average minor axis length (d) of 7 to 65 nm.
An oral care composition for use in a method of reducing or inhibiting gum bleeding comprising 4-(aminomethyl)benzoic acid in an amount of from 0.1 weight % to 0.5 weight %, based on the total weight of the composition.
An anti-sclerostin antibody comprising a CDR-H1 of SEQ ID NO:245, a CDR-H2 of SEQ ID NO:246, a CDR-H3 of SEQ ID NO:247, a CDR-L1 of SEQ ID NO:78, a CDR-L2 of SEQ ID NO:79 and a CDR-L3 of SEQ ID NO:80, for use in a method for increasing bone mineral density in a postmenopausal woman, the method comprising administering to a postmenopausal woman suffering from osteoporosis said anti-sclerostin antibody in an amount and for a treatment period effective to increase lumbar vertebrae bone mineral density at least 9% from pretreatment baseline at twelve months following initial administration of the anti-sclerostin antibody; wherein the amount of anti-sclerostin antibody administered is 140 mg to 210 mg and the amount of the anti-sclerostin antibody is administered at an interval no more frequent than once a month.
A method of decoding a bitstream of data in a video decoder to reconstruct non-zero coefficients of a block in a video, the method comprising: determining that the block was encoded with transform skipped and, based on that determination, for each non-zero coefficient in the block in a scan order, decoding sign information for that non-zero coefficient; and setting (258, 264, 268) that non-zero coefficient to positive or negative based on that sign information, wherein the decoding comprises non-context-based decoding of sign information for at least one non-zero coefficient and context-based decoding of sign information for at least one other non-zero coefficient, wherein the sign information comprises a sign bit or a prediction flag that indicates whether the sign matches a predicted sign, the sign bit indicating whether its respective non-zero coefficient is positive or negative, wherein the non-context based decoding is equal probability entropy decoding and the context-based decoding is context-based entropy decoding, wherein the decoding comprises non-context-based decoding for all non-zero coefficients after sign information corresponding to two opposite signs has been decoded, and wherein the decoding comprises context-based decoding if the non-zero coefficient is not the first non-zero coefficient in scan order and if all sign information decoded for previous non-zero coefficients in the scan order corresponds to the same sign. decoding sign information for that non-zero coefficient; and setting (258, 264, 268) that non-zero coefficient to positive or negative based on that sign information, wherein the decoding comprises non-context-based decoding of sign information for at least one non-zero coefficient and context-based decoding of sign information for at least one other non-zero coefficient, wherein the sign information comprises a sign bit or a prediction flag that indicates whether the sign matches a predicted sign, the sign bit indicating whether its respective non-zero coefficient is positive or negative, wherein the non-context based decoding is equal probability entropy decoding and the context-based decoding is context-based entropy decoding, wherein the decoding comprises non-context-based decoding for all non-zero coefficients after sign information corresponding to two opposite signs has been decoded, and wherein the decoding comprises context-based decoding if the non-zero coefficient is not the first non-zero coefficient in scan order and if all sign information decoded for previous non-zero coefficients in the scan order corresponds to the same sign.
A hanger assembly of a ceiling fan, comprising: a mounting bracket having two lateral walls opposing to each other, wherein each of the two lateral walls comprises a mounting end, a hanger end and a receiving portion; a coupling rod having two ends respectively and rotatably received in the receiving portions of the two lateral walls; and a fan rod having a first end coupled with the coupling rod, as well as a second end adapted to couple with a stator of a motor of the ceiling fan, wherein the fan rod and the stator are swingable relative to the mounting bracket under rotation of the coupling rod to prevent stress from concentrating on an interconnected part between the coupling rod and the mounting bracket, wherein the hanger assembly is characterized in that: a wire groove is arranged on an outer periphery of the coupling rod, wherein the wire groove is located between the mounting ends of the two lateral walls and is on the side of the fan rod where the first end is, wherein an electrical box is arranged between the mounting ends of the two lateral walls, wherein the electrical box is provided with a lead wire, wherein the lead wire passes through a space between the mounting ends of the two lateral walls, reaches the coupling rod, and extends to the first end of the fan rod through the wire groove, and wherein the electrical box comprises an engaging portion engaged with one of the two lateral walls of the mounting bracket. a mounting bracket having two lateral walls opposing to each other, wherein each of the two lateral walls comprises a mounting end, a hanger end and a receiving portion; a coupling rod having two ends respectively and rotatably received in the receiving portions of the two lateral walls; and a fan rod having a first end coupled with the coupling rod, as well as a second end adapted to couple with a stator of a motor of the ceiling fan, wherein the fan rod and the stator are swingable relative to the mounting bracket under rotation of the coupling rod to prevent stress from concentrating on an interconnected part between the coupling rod and the mounting bracket, wherein the hanger assembly is characterized in that: a wire groove is arranged on an outer periphery of the coupling rod, wherein the wire groove is located between the mounting ends of the two lateral walls and is on the side of the fan rod where the first end is, wherein an electrical box is arranged between the mounting ends of the two lateral walls, wherein the electrical box is provided with a lead wire, wherein the lead wire passes through a space between the mounting ends of the two lateral walls, reaches the coupling rod, and extends to the first end of the fan rod through the wire groove, and wherein the electrical box comprises an engaging portion engaged with one of the two lateral walls of the mounting bracket.
A method of wireless communication, comprising: receiving a number of downlink grants indicating downlink component carriers, CCs, scheduled for a user equipment, UE; determining a size of an acknowledgement/non-acknowledgement, ACK/NAK, payload based on the number of scheduled downlink component carriers; selecting a format of a physical uplink control channel, PUCCH, based at least on the size of the ACK/NAK payload; spreading modulation symbols of the ACK/NAK payload by a spreading factor within a symbol period of the PUCCH of the selected format; and transmitting the ACK/NAK payload of the PUCCH to a base station. receiving a number of downlink grants indicating downlink component carriers, CCs, scheduled for a user equipment, UE; determining a size of an acknowledgement/non-acknowledgement, ACK/NAK, payload based on the number of scheduled downlink component carriers; selecting a format of a physical uplink control channel, PUCCH, based at least on the size of the ACK/NAK payload; spreading modulation symbols of the ACK/NAK payload by a spreading factor within a symbol period of the PUCCH of the selected format; and transmitting the ACK/NAK payload of the PUCCH to a base station.
A tire comprising: a ring shaped tire frame member formed from a frame resin material; and a reinforcement layer formed by winding and joining a covered cord member formed by covering a reinforcement cord with a cord resin material onto an outer peripheral section of the tire frame member, the covered cord member being wound on an outer peripheral face of the tire frame member, and a tread being disposed on an outer peripheral surface of the reinforcement layer formed by the covered cord member. a ring shaped tire frame member formed from a frame resin material; and a reinforcement layer formed by winding and joining a covered cord member formed by covering a reinforcement cord with a cord resin material onto an outer peripheral section of the tire frame member, the covered cord member being wound on an outer peripheral face of the tire frame member, and a tread being disposed on an outer peripheral surface of the reinforcement layer formed by the covered cord member.
A pharmaceutical composition for use in treating or alleviating pain comprising a pharmaceutically effective amount of a sulfamate derivative compound represented by Chemical Formula 1 or a pharmaceutically acceptable salt: wherein R 1 and R 2 are each independently selected from the group consisting of hydrogen, C 1 -C 5 alkyl group, C 2 -C 5 alkenyl and C 6 -C 10 aryl group, R 1 and R 2 together with the carbon atom to which they attach form a C 3 -C 12 cycloalkyl group, or R 1 and R 2 are bond and they together with the oxygen atom to which they attach form a carbonyl group; R 3, R 4, R 5, R 6 and R 7 are each independently selected from the group consisting of hydrogen, hydroxyl, C 1 -C 5 alkoxy, C 1 -C 5 alkyl, C 2 -C 5 alkenyl, C 6 -C 10 aryl, C 1 -C 5 alkoxycarbonyl, carboxyl, C 2 -C 5 acyl, C 1 -C 5 alkylthio, cyano, nitro, amine, C 1 -C 5 alkylamine and halogen; R 8 and R 9 are each independently hydrogen or C 1 -C 3 alkyl group; n and m are each independently an integer of 0-4.
A method for forming a multi-layer intermediate wafer product by means of a system according to claims 11-15, comprising the following steps: - supplying a first base wafer sheet provided with an edible filling layer on a first conveying surface into a sandwich former and positioning and stopping the first base wafer sheet in a sandwich forming area, - supplying a cover wafer sheet on a second conveying surface into the sandwich former and positioning and stopping the cover wafer sheet above the sandwich forming area, - subsequently bringing, as seen in the transport direction, the front edge of the cover wafer sheet into contact with the front edge of the first base wafer sheet, in particular by lowering the front edge of the cover wafer sheet onto the front edge of the first base wafer sheet, - subsequently transporting the first base wafer sheet in the transport direction, wherein the cover wafer sheet, tilted towards the first base wafer sheet, is placed in a congruent, planar manner onto the first base wafer sheet or onto its filling layer, in a placing process during the transport of the first base wafer sheet. - supplying a first base wafer sheet provided with an edible filling layer on a first conveying surface into a sandwich former and positioning and stopping the first base wafer sheet in a sandwich forming area, - supplying a cover wafer sheet on a second conveying surface into the sandwich former and positioning and stopping the cover wafer sheet above the sandwich forming area, - subsequently bringing, as seen in the transport direction, the front edge of the cover wafer sheet into contact with the front edge of the first base wafer sheet, in particular by lowering the front edge of the cover wafer sheet onto the front edge of the first base wafer sheet, - subsequently transporting the first base wafer sheet in the transport direction, wherein the cover wafer sheet, tilted towards the first base wafer sheet, is placed in a congruent, planar manner onto the first base wafer sheet or onto its filling layer, in a placing process during the transport of the first base wafer sheet.
A gear train (11; 111) comprising an input and an output (19; 23) wherein power is transferred between input and output (19; 23) via two or more gears in parallel, each of said two or more gears being bevelled, and being arranged to rotate about a respective gear shaft, each of said gears being displaceable in the axial direction of the gear shaft, characterized by an equalizing arrangement (25; 27) that interconnects the gears such that they are subjected to a similar force of application in their respective axial directions.
Disposable injection device for delivering a dose of medicament, comprising a generally elongated housing, a container containing medicament to be injected through a needle, force means (34, 40) acting on said container and capable of, upon activation, move said container and said needle for penetration and subsequently expelling medicament through said needle, activating means arranged to activate said force means, characterised in that said activating means comprises a needle shield arranged slidable in relation to said housing, a collapsible holding member connected to the inner end of said needle shield, whereby, upon movement of said needle shield, said collapsible holding member collapses when a certain force is applied by the needle shield, and whereby further movement of said needle shield activates said activation means, which in turn releases said force means initiating an injection of medicament, and wherein said collapsible holding member comprises a generally tubularly shaped member having a number of longitudinally directed cut-outs, forming a number of elongated strips between the cut-outs and wherein said elongated strips have a cross-sectional form that increases the stability of the elongated strips.