mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising an avian influenza antigen and a pharmaceutical or veterinarily acceptable carrier, excipient, or vehicle; wherein the avian influenza antigen has at least 80% sequence identity to the sequence as set forth in SEQ ID NO: 2; and/or wherein the avian influenza antigen is encoded by a polynucleotide having at least 70% sequence identity to the sequence as set forth in SEQ ID NO: 1, and wherein the avian influenza antigen is obtainable by expression in duckweed from a polynucleotide sequence operably linked with a nucleotide sequence encoding a signal peptide.
Suction device for the evacuation of cooling water collected from wet drillings on a first building wall with - a casing on which a passage opening is provided for the leadthrough of a hollow core bit or of a drill bit, wherein the passage opening is limited by an inner wall of the casing and an intermediate space is defined between the inner wall and an outer wall of the casing, - a suction connection that is arranged on the outer wall and that is in connection with the intermediate space, - a first and a second sealing lip (29, 31) that are arranged for sealingly supporting the casing on the first building surface on the edges (27a, 27b) of the inner wall and of the outer wall (15, 17) and - a cover that connects the inner wall and the outer wall on the side facing away from the sealing lips (29, 31), characterized in that the casing comprises a first bearing wall including a lower and an upper edge (57, 59) that replaces the inner wall and the outer wall in a wall area and that can bear at least on a second building surface adjacent to the first building surface. - a casing on which a passage opening is provided for the leadthrough of a hollow core bit or of a drill bit, wherein the passage opening is limited by an inner wall of the casing and an intermediate space is defined between the inner wall and an outer wall of the casing, - a suction connection that is arranged on the outer wall and that is in connection with the intermediate space, - a first and a second sealing lip (29, 31) that are arranged for sealingly supporting the casing on the first building surface on the edges (27a, 27b) of the inner wall and of the outer wall (15, 17) and - a cover that connects the inner wall and the outer wall on the side facing away from the sealing lips (29, 31), characterized in that the casing comprises a first bearing wall including a lower and an upper edge (57, 59) that replaces the inner wall and the outer wall in a wall area and that can bear at least on a second building surface adjacent to the first building surface.
A radio communication apparatus adapted to be provided in a plurality of propagation paths between a transmitting station and a receiving station in a diversity system to pass on an error correction coded signal from the transmitting station to the receiving station, comprising: a monitoring section which monitors signals that are transmitted from the transmitting station through different propagation paths; an error detecting section which detects an error in monitored signals; a hard deciding section (52, 63, 66) which makes a hard decision of the monitored signals; an error position information generating section which generates error position information based on an error detection result and a hard decision result; a signal generating section which generates a repeating signal by adding the error position information to a signal from the transmitting station; and a transmitting section (46, 54, 70) which transmits a generated repeating signal to the receiving station. a monitoring section which monitors signals that are transmitted from the transmitting station through different propagation paths; an error detecting section which detects an error in monitored signals; a hard deciding section (52, 63, 66) which makes a hard decision of the monitored signals; an error position information generating section which generates error position information based on an error detection result and a hard decision result; a signal generating section which generates a repeating signal by adding the error position information to a signal from the transmitting station; and a transmitting section (46, 54, 70) which transmits a generated repeating signal to the receiving station.
A head mounted display device (100; 200; 300; 400; 500), comprising: an optical waveguide device (110, 110L) configured to receive an image light beam, and to project a projection image through a surface of the optical waveguide device (110, 110L); an image device (130, 130L) configured to provide the image light beam; an optical conversion layer (150, 150-1, 150-2; 150a; 150b; 150c; 150L, 150-1L, 150-2L), disposed overlapping only an edge (1153, 1155) of the surface of the optical waveguide device (110, 110L), the optical conversion layer (150, 150-1, 150-2; 150a; 150b; 150c; 150L, 150-1L, 150-2L) configured to deflect a portion to be projected by the edge (1153, 1155) of the surface in the projection image projected by the surface of the optical waveguide device (110, 110L) to generate an adjusted projection image according to a command signal, so that the adjusted projection image is transmitted to a projection target; and a processor, coupled to the optical conversion layer (150, 150-1, 150-2; 150a; 150b; 150c; 150L, 150-1L, 150-2L), and configured to generate the command signal according to a position of the projection target. an optical waveguide device (110, 110L) configured to receive an image light beam, and to project a projection image through a surface of the optical waveguide device (110, 110L); an image device (130, 130L) configured to provide the image light beam; an optical conversion layer (150, 150-1, 150-2; 150a; 150b; 150c; 150L, 150-1L, 150-2L), disposed overlapping only an edge (1153, 1155) of the surface of the optical waveguide device (110, 110L), the optical conversion layer (150, 150-1, 150-2; 150a; 150b; 150c; 150L, 150-1L, 150-2L) configured to deflect a portion to be projected by the edge (1153, 1155) of the surface in the projection image projected by the surface of the optical waveguide device (110, 110L) to generate an adjusted projection image according to a command signal, so that the adjusted projection image is transmitted to a projection target; and a processor, coupled to the optical conversion layer (150, 150-1, 150-2; 150a; 150b; 150c; 150L, 150-1L, 150-2L), and configured to generate the command signal according to a position of the projection target.
Vehicle for conveying an item, having: a storage device having a plurality of storage positions for items; a receiving device for introducing the item into the vehicle, wherein the receiving device has a receiving opening and a pivotable conveyor element for conveying items, the pivotable conveyor element being able to be pivoted between a first position, in which the receiving opening is sealed by the pivotable conveyor element, and a second position, in which the receiving opening is open; a scanning device for scanning information about the introduced item; a control device that is designed to take the scanned information as a basis for selecting a storage position from the plurality of storage positions, generating a control signal that corresponds to the selected storage position, and transmitting the generated control signal via a communication network; and a conveyor device that is designed to respond to the control signal by conveying the introduced item to the selected storage position. a storage device having a plurality of storage positions for items; a receiving device for introducing the item into the vehicle, wherein the receiving device has a receiving opening and a pivotable conveyor element for conveying items, the pivotable conveyor element being able to be pivoted between a first position, in which the receiving opening is sealed by the pivotable conveyor element, and a second position, in which the receiving opening is open; a scanning device for scanning information about the introduced item; a control device that is designed to take the scanned information as a basis for selecting a storage position from the plurality of storage positions, generating a control signal that corresponds to the selected storage position, and transmitting the generated control signal via a communication network; and a conveyor device that is designed to respond to the control signal by conveying the introduced item to the selected storage position.
An apparatus, comprising: a vapor chamber configured to absorb heat from a heat source of a mobile computing device, wherein the vapor chamber is integrated with a back case of the mobile computing device, the back case structurally containing computational components within the mobile computing device, the vapor chamber comprising: an upper portion comprising a metal coupled to the heat source; a lower portion comprising a portion of the back case, wherein the lower portion is bound to the upper portion of the vapor chamber through diffusion to form the vapor chamber; and an annular space between the upper and lower portions that is evacuated and charged with a fluid; characterized in that the lower portion of the vapor chamber is at least one external surface of the mobile computing device enabling mechanical communication between the vapor chamber and an ambient environment. a vapor chamber configured to absorb heat from a heat source of a mobile computing device, wherein the vapor chamber is integrated with a back case of the mobile computing device, the back case structurally containing computational components within the mobile computing device, the vapor chamber comprising: an upper portion comprising a metal coupled to the heat source; a lower portion comprising a portion of the back case, wherein the lower portion is bound to the upper portion of the vapor chamber through diffusion to form the vapor chamber; and an annular space between the upper and lower portions that is evacuated and charged with a fluid; an upper portion comprising a metal coupled to the heat source; a lower portion comprising a portion of the back case, wherein the lower portion is bound to the upper portion of the vapor chamber through diffusion to form the vapor chamber; and an annular space between the upper and lower portions that is evacuated and charged with a fluid; characterized in that the lower portion of the vapor chamber is at least one external surface of the mobile computing device enabling mechanical communication between the vapor chamber and an ambient environment.
A molding machine, comprising: a machine-ejection assembly; and an auxiliary ejection-assistance assembly being coupled to the machine-ejection assembly; wherein the machine-ejection assembly is supported by a platen assembly, the platen assembly is configured to support, in use, a mold assembly, the machine-ejection assembly is configured to provide, in use, an ejection force to a molded part located in the mold assembly, the ejection force for ejecting the molded part from the mold assembly; and the auxiliary ejection-assistance assembly is configured to apply, in use, an additional ejection force being usable for ejecting, in use, the molded part from the mold assembly; characterised in that, the auxiliary ejection-assistance assembly includes: a booster cylinder; a high pressure accumulator bottle; a low pressure accumulator bottle; a compressor; and a control manifold and valve assembly, the booster cylinder is connected with the machine-ejection assembly, and is also connected with the control manifold and valve assembly, the high pressure accumulator bottle is connected with the control manifold and valve assembly, the low pressure accumulator bottle is connected with the control manifold and valve assembly, and the compressor is connected with the control manifold and valve assembly. a machine-ejection assembly; and an auxiliary ejection-assistance assembly being coupled to the machine-ejection assembly; wherein the machine-ejection assembly is supported by a platen assembly, the platen assembly is configured to support, in use, a mold assembly, the machine-ejection assembly is configured to provide, in use, an ejection force to a molded part located in the mold assembly, the ejection force for ejecting the molded part from the mold assembly; and the auxiliary ejection-assistance assembly is configured to apply, in use, an additional ejection force being usable for ejecting, in use, the molded part from the mold assembly; characterised in that, the auxiliary ejection-assistance assembly includes: a booster cylinder; a high pressure accumulator bottle; a low pressure accumulator bottle; a compressor; and a control manifold and valve assembly, a booster cylinder; a high pressure accumulator bottle; a low pressure accumulator bottle; a compressor; and a control manifold and valve assembly, the booster cylinder is connected with the machine-ejection assembly, and is also connected with the control manifold and valve assembly, the high pressure accumulator bottle is connected with the control manifold and valve assembly, the low pressure accumulator bottle is connected with the control manifold and valve assembly, and the compressor is connected with the control manifold and valve assembly.
A tire comprising a tread, wherein the tread has three or more rubber layers of a rubber composition comprising a rubber component, and wherein a tan δ at 30°C, "30°C tan δ", of the rubber composition of at least one rubber layer of three or more rubber layers is 0.15 or more, wherein tan δ was measured under a condition of a temperature at 30°C, an initial strain of 5%, a dynamic strain of 1%, and a frequency of 10 Hz, and a complex elastic modulus at 30°C, E* 30, of the rubber composition of at least one rubber layer of three or more rubber layers is 5.0 MPa or more, wherein the complex elastic modulus E* was measured under a condition of a temperature at 30°C, an initial strain of 5%, a dynamic strain of 1%, and a frequency of 10 Hz; characterized in that a ratio G/W L of a tire weight G in kg to a maximum load capacity W L in kg is 0.0150 or less, wherein the tire weight is the weight of a single tire not including the weight of a rim, and wherein the maximum load capacity W L is a value calculated by the following equations and where the tire cross-sectional width is defined as Wt in mm, the tire cross-sectional height is defined as Ht in mm, and the tire outer diameter is defined as Dt in mm: V = Dt / 2 2 − Dt / 2 - Ht 2 Π × Wt W L = 0.000011 × V + 100. wherein the tread has three or more rubber layers of a rubber composition comprising a rubber component, and wherein a tan δ at 30°C, "30°C tan δ", of the rubber composition of at least one rubber layer of three or more rubber layers is 0.15 or more, wherein tan δ was measured under a condition of a temperature at 30°C, an initial strain of 5%, a dynamic strain of 1%, and a frequency of 10 Hz, and a complex elastic modulus at 30°C, E* 30, of the rubber composition of at least one rubber layer of three or more rubber layers is 5.0 MPa or more, wherein the complex elastic modulus E* was measured under a condition of a temperature at 30°C, an initial strain of 5%, a dynamic strain of 1%, and a frequency of 10 Hz; characterized in that a ratio G/W L of a tire weight G in kg to a maximum load capacity W L in kg is 0.0150 or less, wherein the tire weight is the weight of a single tire not including the weight of a rim, and wherein the maximum load capacity W L is a value calculated by the following equations and where the tire cross-sectional width is defined as Wt in mm, the tire cross-sectional height is defined as Ht in mm, and the tire outer diameter is defined as Dt in mm: V = Dt / 2 2 − Dt / 2 - Ht 2 Π × Wt W L = 0.000011 × V + 100.
A method for testing a lightning protection system of a wind turbine, comprising the steps of • positioning, with an unmanned aerial vehicle, an electrode near a receptor (51, 52) of a lightning protection system of a turbine; • creating, with a high voltage generator, a high voltage between the electrode and the receptor (51, 52); • thereby creating an electrical arc between the electrode and the receptor (51, 52); • detecting, with a current detection device, a current caused by the arc flowing through the lightning protection system, characterised in that the arc spans an air gap between the electrode and the receptor (51, 52) of at least five millimetres. • positioning, with an unmanned aerial vehicle, an electrode near a receptor (51, 52) of a lightning protection system of a turbine; • creating, with a high voltage generator, a high voltage between the electrode and the receptor (51, 52); • thereby creating an electrical arc between the electrode and the receptor (51, 52); • detecting, with a current detection device, a current caused by the arc flowing through the lightning protection system,
A system for testing a smoke detector, the system comprising: the smoke detector and a smart device, the smart device comprising a camera, a microphone, a transceiver, and a controller, wherein the controller is configured to receive an indication from at least one of the camera, microphone, and transceiver that the controller is in proximity to the smoke detector, and wherein the controller with the transceiver coupled to the controller is configured to signal to the smoke detector to enter a test mode and to record information of the smoke detector in the test mode, after which the controller is configured to send the recorded information to a storage location, characterized in that the system for testing the smoke detector includes the distance between the camera of the smart device and the smoke detector being determined by the controller of the smart device using a recorded digital image captured by the camera of the smart device or using a range finder: sensor in the smart device, wherein the smart device is configured to the send the recorded digital image to the storage location with the recorded information. the smoke detector and a smart device, the smart device comprising a camera, a microphone, a transceiver, and a controller, wherein the controller is configured to receive an indication from at least one of the camera, microphone, and transceiver that the controller is in proximity to the smoke detector, and wherein the controller with the transceiver coupled to the controller is configured to signal to the smoke detector to enter a test mode and to record information of the smoke detector in the test mode, after which the controller is configured to send the recorded information to a storage location,
A stickable-curable adhesive layer-including deformation/conversion device kit comprising: a stickable-curable adhesive layer-including deformation/conversion device that includes a deformation/conversion device, a stickable-curable adhesive layer that pressure-sensitively adheres to the deformation/conversion device and contains a stickable-curable adhesive component, and a peeling film; and a curing component that cures the stickable-curable adhesive layer, wherein the stickable-curable adhesive component contains an epoxy resin as a main component, or an epoxy resin as a main component and an acrylic polymer, the curing component contains an imidazole compound, an amine compound, or dicyandiamide, the stickable-curable adhesive component has pressure-sensitive adhesiveness before curing, the stickable-curable adhesive layer and the curing component form a stickable-curable adhesive sheet, and the initial tensile elastic modulus at 25°C of the stickable-curable adhesive sheet after curing is 5.0 × 10 8 Pa or more, wherein initial tensile elastic modulus is determined as disclosed in the description. a stickable-curable adhesive layer-including deformation/conversion device that includes a deformation/conversion device, a stickable-curable adhesive layer that pressure-sensitively adheres to the deformation/conversion device and contains a stickable-curable adhesive component, and a peeling film; and a curing component that cures the stickable-curable adhesive layer, wherein the stickable-curable adhesive component contains an epoxy resin as a main component, or an epoxy resin as a main component and an acrylic polymer, the curing component contains an imidazole compound, an amine compound, or dicyandiamide, the stickable-curable adhesive component has pressure-sensitive adhesiveness before curing, the stickable-curable adhesive layer and the curing component form a stickable-curable adhesive sheet, and the initial tensile elastic modulus at 25°C of the stickable-curable adhesive sheet after curing is 5.0 × 10 8 Pa or more, wherein initial tensile elastic modulus is determined as disclosed in the description.
A method of waterproof treating an outdoor tank installed on a foundation, a boundary region being defined between the bottom of the outdoor tank and the foundation, the method comprising the step of attaching a waterproof sheet across the boundary region such that the adhesive layer of the sheet extends from the outdoor tank to the foundation. thereby forming a liquid-tight cover to the boundary region, wherein the foundation is made of concrete, mortar, asphalt concrete, asphalt mortar, or asphalt sand; the rubber base comprises a silicone rubber having a JIS-A hardness according to JIS K 6253 of 25 to 80, a tensile strength of at least 5 MPa and an elongation at break of 200 to 700% according to JIS K 6251, and a crescent tear strength according to JIS K 6252 of at least 7 kN/m, and said adhesive layer is formed of an addition cure silicone rubber composition comprising the following components to: 30 to 90 parts by weight of organopolysiloxane containing at least two silicon-bonded alkenyl groups in a molecule, 10 to 70 parts by weight of resinous copolymer predominantly comprising R 3 SiO 1/2 units and SiO 2 units, wherein R is substituted or unsubstituted monovalent hydrocarbon group and contains alkenyl, the molar ratio of R 3 SiO 1/2 units to SiO 2 units [R 3 SiO 1/2 /SiO 2] being in the range 0.5/1 to 1.5/1, provided that the total amount of and is 100 parts by weight, 0.5 to 30 parts by weight, per said 100 parts by weight of components and combined, of organohydrogen-polysiloxane containing at least two silicon-bonded hydrogen atoms (SiH groups) in the molecule, and an addition reaction catalyst, the cured product having surface pressure-sensitive adhesion and a hardness in the range 2 to 40 on the Asker C hardness scale. 30 to 90 parts by weight of organopolysiloxane containing at least two silicon-bonded alkenyl groups in a molecule, 10 to 70 parts by weight of resinous copolymer predominantly comprising R 3 SiO 1/2 units and SiO 2 units, wherein R is substituted or unsubstituted monovalent hydrocarbon group and contains alkenyl, the molar ratio of R 3 SiO 1/2 units to SiO 2 units [R 3 SiO 1/2 /SiO 2] being in the range 0.5/1 to 1.5/1, provided that the total amount of and is 100 parts by weight, 0.5 to 30 parts by weight, per said 100 parts by weight of components and combined, of organohydrogen-polysiloxane containing at least two silicon-bonded hydrogen atoms (SiH groups) in the molecule, and an addition reaction catalyst, the cured product having surface pressure-sensitive adhesion and a hardness in the range 2 to 40 on the Asker C hardness scale.