mhurhangee/ep-ind-claims huggingface dataset:
Siamese gas intake port for a cylinder of an internal combustion engine, said Siamese intake port comprising an inlet and two outlets (3a, 3b) for said gas, said outlets (3a, 3b) being identical on either side of a mid-plane, said Siamese intake port comprising a first port extending between said inlet and a first outlet of said Siamese intake port, and a second port extending between said inlet and a second outlet of said Siamese intake port, said first and second ports (3a, 3b) being connected to one another between said inlet and a point of intersection of said first and second ports (5a, 5b) along a junction line, the distance between said junction line and said mid-plane decreasing in the direction of circulation of said gas within said Siamese intake port, characterized in that the cross section of said first port delimited by said junction line represents from 4 to 5 times the cross section of said second port delimited by said junction line.
A glass manufacturing system (100, 100', 100") comprising: a delivery system where molten glass transitions from a guided flow to a free fall flow; a rolling roll pair having two rolling rolls (108a, 108b) which receive the molten glass free falling from the delivery system and roll the molten glass to form a grass sheet; and a temperature controlled environment with a cross temperature gradient where two outer edges (118a, 118b) of the glass sheet are exposed to a hotter temperature than a central portion of the glass sheet, wherein the temperature controlled environment provides the cross temperature gradient to stretch the glass sheet such that the glass sheet has a substantially constant thickness. a delivery system where molten glass transitions from a guided flow to a free fall flow; a rolling roll pair having two rolling rolls (108a, 108b) which receive the molten glass free falling from the delivery system and roll the molten glass to form a grass sheet; and a temperature controlled environment with a cross temperature gradient where two outer edges (118a, 118b) of the glass sheet are exposed to a hotter temperature than a central portion of the glass sheet, wherein the temperature controlled environment provides the cross temperature gradient to stretch the glass sheet such that the glass sheet has a substantially constant thickness.
A nonwoven abrasive wheel (200, 300) comprising: one or more layers of a nonwoven fiber web (100, 210, 310), a plurality of super abrasive particles having a Vickers hardness greater than 40 GPa, a polyurethane binder adhering the plurality of super abrasive particles to the nonwoven fibers and adhering the layers of the nonwoven fiber web (100, 210, 310) to each other, characterised in that the nonwoven abrasive wheel (200, 300) comprises a Flexural Modulus from 4.0 to 128.0 lb/inch (700 to 22420 N/m) of thickness per inch (0.0254 m) of displacement.
Capped Spherical nano aggregates of size 10-22 nm comprising molecular ultra small clusters of 1-6 atoms of noble metals selected from the group consisting of Au, Ag, Pt and Pd, and said clusters of 1-6 atoms being stabilized by a capping agent forming the nano aggregates showing no plasmon resonance and in fluorescence spectroscopy showing a UV emission at 300-335 nm and a 2 nd emission at 590-650 nm.
A pharmaceutical composition for use in a method of preventing or treating a urinary tract infection, said composition comprising one or more oligomeric tannins, selected from proanthocyanidins and/or hydrolysable tannins, wherein said composition is administered intraurethrally, intravesically, intraureterally and/or intrarenally, and wherein the composition forms a web-like prophylactic network on the epithelial surface of the urogenital tract that agglutinates bacteria by entrapment, thereby promoting urothelial impermeability to bacterial adherence or bacterial invasion.
An optical fiber cable (1A, 1B) comprising: optical fiber ribbons comprising a plurality of optical fibers arranged in parallel; a slot rod (3, 13) having a plurality of slot grooves in which the optical fiber ribbons are housed; and a cable jacket covering an outside of the slot rod (3, 13), wherein the optical fiber ribbons respectively have connecting portions at which adjacent ones of the optical fibers are connected to one another and non-connecting portions at which adjacent ones of the optical fibers are not connected to one another, and the connecting portions and the non-connecting portions are provided intermittently in a longitudinal direction between a part of or all of the optical fibers, and characterized in that the optical fibers have an outer diameter of 0.22mm or less; and a density of core number of the optical fibers included in the optical fiber cable (1A, 1B) is 4.8 cores / mm 2 or more in a cross section of the optical fiber cable (1A, 1B); wherein a surface roughness Ra of the slot grooves is 5 μm or less, and wherein a primary coating of the optical fibers is constituted by a resin having a Young's modulus at room temperature of 0.5 MPa or more and 1.5 MPa or less. optical fiber ribbons comprising a plurality of optical fibers arranged in parallel; a slot rod (3, 13) having a plurality of slot grooves in which the optical fiber ribbons are housed; and a cable jacket covering an outside of the slot rod (3, 13), wherein the optical fiber ribbons respectively have connecting portions at which adjacent ones of the optical fibers are connected to one another and non-connecting portions at which adjacent ones of the optical fibers are not connected to one another, and the connecting portions and the non-connecting portions are provided intermittently in a longitudinal direction between a part of or all of the optical fibers, and characterized in that the optical fibers have an outer diameter of 0.22mm or less; and a density of core number of the optical fibers included in the optical fiber cable (1A, 1B) is 4.8 cores / mm 2 or more in a cross section of the optical fiber cable (1A, 1B); the optical fiber ribbons respectively have connecting portions at which adjacent ones of the optical fibers are connected to one another and non-connecting portions at which adjacent ones of the optical fibers are not connected to one another, and the connecting portions and the non-connecting portions are provided intermittently in a longitudinal direction between a part of or all of the optical fibers, and characterized in that the optical fibers have an outer diameter of 0.22mm or less; and a density of core number of the optical fibers included in the optical fiber cable (1A, 1B) is 4.8 cores / mm 2 or more in a cross section of the optical fiber cable (1A, 1B); wherein a surface roughness Ra of the slot grooves is 5 μm or less, and wherein a primary coating of the optical fibers is constituted by a resin having a Young's modulus at room temperature of 0.5 MPa or more and 1.5 MPa or less.
Flying drone comprising: • a memory for storing a 3D coordinate; • a control and command computer for driving drone directional and motorization means, said control and command computer being connected to the memory for reading 3D coordinate so that the flying drone is able to move to the 3D coordinate; characterized in that the memory stores a list of 3D coordinates points defining a forecasted flying trajectory, each 3D coordinate point being associated a time relative to either the time of the previous 3D coordinates point either to a reference time, said times constituting a timeline, and said control and command computer is adapted to read the forecasted flying directory in order to move sequentially the flying drone to each 3D coordinate at the corresponding time; the flying drone further comprises: • a wireless receptor able to receive a synchronization signal emitted from a central coordinator comprising a timecode, said timecode comprising a sequence of digital codes generated at predetermined intervals, said synchronization signal allowing the flying drone to be synchronized with other flying drones; and • the control and command computer is adapted for synchronizing the flying drone timeline with the synchronization signal. • a memory for storing a 3D coordinate; • a control and command computer for driving drone directional and motorization means, said control and command computer being connected to the memory for reading 3D coordinate so that the flying drone is able to move to the 3D coordinate; the memory stores a list of 3D coordinates points defining a forecasted flying trajectory, each 3D coordinate point being associated a time relative to either the time of the previous 3D coordinates point either to a reference time, said times constituting a timeline, and said control and command computer is adapted to read the forecasted flying directory in order to move sequentially the flying drone to each 3D coordinate at the corresponding time; the flying drone further comprises: • a wireless receptor able to receive a synchronization signal emitted from a central coordinator comprising a timecode, said timecode comprising a sequence of digital codes generated at predetermined intervals, said synchronization signal allowing the flying drone to be synchronized with other flying drones; and • the control and command computer is adapted for synchronizing the flying drone timeline with the synchronization signal. • a wireless receptor able to receive a synchronization signal emitted from a central coordinator comprising a timecode, said timecode comprising a sequence of digital codes generated at predetermined intervals, said synchronization signal allowing the flying drone to be synchronized with other flying drones; and • the control and command computer is adapted for synchronizing the flying drone timeline with the synchronization signal.
A recoil damping device for portable firearms, comprising a casing and a damping means inserted in said casing; said device comprising a movable insert functionally associated with said damping means; said movable insert being adapted to slide along a direction that is substantially axial with respect to said casing; said device being characterized in that said damping means is constituted by a body formed by a cellular solid having a stochastic structure, such as a foam, or having a nonstochastic structure, such as a reticular structure, lattice; characterized in that said recoil damping device comprises a primary braking assembly, mounted in said movable insert, and a secondary braking assembly associated with said casing; said primary braking assembly dissipating energy by sliding, with friction, with respect to said secondary braking assembly.
Attachment for a device for generating an air stream, preferably a warm air stream, or for dispensing a fluid, which attachment is designed to be introduced at least partially into an external ear canal of a human or animal ear, wherein the attachment comprises - a connecting piece for connection to the device, and - a tongue-like guide vane, projecting from the connecting piece, for guiding air that flows out of the device or fluid that is dispensed by the device, said guide vane having a guide vane base, and wherein the guide vane is arranged downstream of the connecting piece in the flow direction of the air stream or fluid, characterized in that the guide vane base of a first portion of the guide vane has a longitudinal cross-sectional profile that is curved in a first direction, and the guide vane base of a second portion of the guide vane has a longitudinal cross-sectional profile that is curved in a second direction, and the two curved portions (5a, 5b) extend in a manner curved in opposite directions and preferably merge directly into one another. - a connecting piece for connection to the device, and - a tongue-like guide vane, projecting from the connecting piece, for guiding air that flows out of the device or fluid that is dispensed by the device, said guide vane having a guide vane base,
A control system for a hybrid vehicle, the hybrid vehicle including an engine, a first motor, a second motor, a differential mechanism, and a clutch, the second motor configured to output drive torque to a drive wheel, the differential mechanism configured to perform a differential action by at least three rotary elements, any one of the rotary elements in the differential mechanism serving as an input element to which drive power is transmitted from the engine, another one of the rotary elements in the differential mechanism being connected to the first motor and serving as a reaction force element, and remaining one of the rotary elements in the differential mechanism serving as an output element for outputting torque to the drive wheel, the clutch configured to connect the engine to the input element and disconnect the engine from the input element, the control system characterized by comprising: an electronic control unit configured to: (a) set an EV mode in which a vehicle travels at least by drive power of the second motor among the first motor MG1 and the second motor in a state that the engine stops; (b) prohibit setting of the EV mode in a state that the clutch is fully engaged when a vehicle speed is at least equal to a predetermined first vehicle speed threshold value; and (c) prohibit setting of the EV mode in a state that the clutch is disengaged when the vehicle speed of the vehicle that travels in the EV mode is at most equal to a predetermined second vehicle speed threshold value, the second vehicle speed threshold value being smaller than the first vehicle speed threshold value. an electronic control unit configured to: (a) set an EV mode in which a vehicle travels at least by drive power of the second motor among the first motor MG1 and the second motor in a state that the engine stops; (b) prohibit setting of the EV mode in a state that the clutch is fully engaged when a vehicle speed is at least equal to a predetermined first vehicle speed threshold value; and (c) prohibit setting of the EV mode in a state that the clutch is disengaged when the vehicle speed of the vehicle that travels in the EV mode is at most equal to a predetermined second vehicle speed threshold value, the second vehicle speed threshold value being smaller than the first vehicle speed threshold value. (a) set an EV mode in which a vehicle travels at least by drive power of the second motor among the first motor MG1 and the second motor in a state that the engine stops; (b) prohibit setting of the EV mode in a state that the clutch is fully engaged when a vehicle speed is at least equal to a predetermined first vehicle speed threshold value; and (c) prohibit setting of the EV mode in a state that the clutch is disengaged when the vehicle speed of the vehicle that travels in the EV mode is at most equal to a predetermined second vehicle speed threshold value, the second vehicle speed threshold value being smaller than the first vehicle speed threshold value.
A method, implemented by a transmitting radio node, for transmitting Orthogonal Frequency Division Multiplexing, OFDM, signals in a mixed numerology OFDM system relative to a first OFDM numerology having a first subcarrier spacing and associated with a first OFDM signal having a first length, the first OFDM signal comprising a first OFDM symbol having a first symbol length equal to the inverse of the first subcarrier spacing and less than the first length, the method comprising: generating a second OFDM signal having a second length and associated with a second OFDM numerology having a second subcarrier spacing greater than the first subcarrier spacing, wherein generating the second OFDM signal comprises: generating a sub-frame comprising second redundant data appended to each of a plurality of second OFDM symbols, where the number of second OFDM symbols in the sub-frame is selected such that a length of the sub-frame is as large as possible without exceeding the first symbol length of the first OFDM symbol; and generating the second OFDM signal by appending group redundant data to the sub-frame such that the second length of the second OFDM signal equals the first length of the first OFDM signal; and transmitting the second OFDM signal relative to the first OFDM signal. generating a second OFDM signal having a second length and associated with a second OFDM numerology having a second subcarrier spacing greater than the first subcarrier spacing, wherein generating the second OFDM signal comprises: generating a sub-frame comprising second redundant data appended to each of a plurality of second OFDM symbols, where the number of second OFDM symbols in the sub-frame is selected such that a length of the sub-frame is as large as possible without exceeding the first symbol length of the first OFDM symbol; and generating the second OFDM signal by appending group redundant data to the sub-frame such that the second length of the second OFDM signal equals the first length of the first OFDM signal; and generating a sub-frame comprising second redundant data appended to each of a plurality of second OFDM symbols, where the number of second OFDM symbols in the sub-frame is selected such that a length of the sub-frame is as large as possible without exceeding the first symbol length of the first OFDM symbol; and generating the second OFDM signal by appending group redundant data to the sub-frame such that the second length of the second OFDM signal equals the first length of the first OFDM signal; and transmitting the second OFDM signal relative to the first OFDM signal.
A system for distributing a plurality of seeds, the system comprising: a storage tank operable to store the plurality of seeds; a first meter downstream of the storage tank; a plurality of second meters downstream of the first meter operable to individually meter the plurality of seeds; and an outlet conduit located downstream of each of the plurality of second meters; wherein the first meter is configured to adjust the flow of the plurality of seeds in response to a signal from a sensor located between the first meter and the outlet conduits and wherein the first meter is a volumetric meter and the second meters are singulating meters, further comprising control valves disposed upstream of the second meters, wherein the control valves are operable to adjust the flow of the plurality of seeds from the first meter to the second meters, characterized in the first meter comprising a cartridge placed in a seed meter housing, the cartridge consisting of a plurality of casings placed adjacent to one another and fastened together, wherein each casing is provided with one of the control valves to selectively shut-off a flow of seed from a given section of a meter roller of the first meter, and the system further comprising a dispersion unit located between the control valves and the plurality of second meters and operable to separate the plurality of seeds prior to the plurality of second meters, wherein a main conduit from a single metering roller segment of the first meter terminates at the dispersion unit. a storage tank operable to store the plurality of seeds; a first meter downstream of the storage tank; a plurality of second meters downstream of the first meter operable to individually meter the plurality of seeds; and an outlet conduit located downstream of each of the plurality of second meters; wherein the first meter is configured to adjust the flow of the plurality of seeds in response to a signal from a sensor located between the first meter and the outlet conduits and wherein the first meter is a volumetric meter and the second meters are singulating meters, further comprising control valves disposed upstream of the second meters, wherein the control valves are operable to adjust the flow of the plurality of seeds from the first meter to the second meters, characterized in the first meter comprising a cartridge placed in a seed meter housing, the cartridge consisting of a plurality of casings placed adjacent to one another and fastened together, wherein each casing is provided with one of the control valves to selectively shut-off a flow of seed from a given section of a meter roller of the first meter, and the system further comprising a dispersion unit located between the control valves and the plurality of second meters and operable to separate the plurality of seeds prior to the plurality of second meters, wherein a main conduit from a single metering roller segment of the first meter terminates at the dispersion unit.
Process for manufacturing a bicycle wheel component, comprising the steps of: a) providing a bicycle wheel component (10, 10A, 50) having at least one braking area (42, 44, 54) configured to cooperate with a braking body (102, 116), said braking area being made by molding of composite material comprising structural fibers (202, 204) incorporated in a polymeric material, and b) carrying out post-molding machining of at least one region of said at least one braking area (42, 44, 54), comprising the steps of: b1) removing only polymeric material, without removal of the structural fiber (202, 204), from the entire region so that the structural fiber (202, 204) outcrops at least in part from the polymeric material, characterized in that the process further comprises the step of: b2) removing the structural fiber (202, 204) and possibly the polymeric material according to at least one groove (210, 212) within the region. a) providing a bicycle wheel component (10, 10A, 50) having at least one braking area (42, 44, 54) configured to cooperate with a braking body (102, 116), said braking area being made by molding of composite material comprising structural fibers (202, 204) incorporated in a polymeric material, and b) carrying out post-molding machining of at least one region of said at least one braking area (42, 44, 54), comprising the steps of: b1) removing only polymeric material, without removal of the structural fiber (202, 204), from the entire region so that the structural fiber (202, 204) outcrops at least in part from the polymeric material, characterized in that the process further comprises the step of: b2) removing the structural fiber (202, 204) and possibly the polymeric material according to at least one groove (210, 212) within the region. b1) removing only polymeric material, without removal of the structural fiber (202, 204), from the entire region so that the structural fiber (202, 204) outcrops at least in part from the polymeric material, b2) removing the structural fiber (202, 204) and possibly the polymeric material according to at least one groove (210, 212) within the region.
A method of managing network access of a device, the method comprising the steps of: determining, at the device, a first security state of the device; executing, at the device, a local decision rule based on the first security state; selecting a first profile from a plurality of network access profiles stored on the device based on an outcome of the execution of the local decision rule; and regardless of the selected first profile, connecting to the network using the first profile, wherein the first profile determines the device's level of access to the network. determining, at the device, a first security state of the device; executing, at the device, a local decision rule based on the first security state; selecting a first profile from a plurality of network access profiles stored on the device based on an outcome of the execution of the local decision rule; and regardless of the selected first profile, connecting to the network using the first profile, wherein the first profile determines the device's level of access to the network.