mhurhangee/ep-ind-claims huggingface dataset:
A vehicle front portion structure comprising: a power unit that is disposed in a power unit compartment provided at a vehicle front portion, and that includes an internal combustion engine that generates driving force that causes a vehicle to travel; a cooling unit that is disposed at a rear side in a vehicle longitudinal direction with respect to the power unit, and that is cooled by heat exchange with air; a fan that is disposed at a rear in the vehicle longitudinal direction of the cooling unit, and that, by being operated, generates cooling wind that passes through the cooling unit and is discharged to a vehicle exterior; characterized by further comprising an exhaust purifying device (60A, 60B) that is disposed at a rear side in the vehicle longitudinal direction with respect to the power unit, and that has a catalyst that purifies exhaust gas discharged from the internal combustion engine; a heat retaining member that surrounds a periphery of the exhaust purifying device (60A, 60B), and in which is formed an air intake port (76, L) that takes-in, into an interior, air that cools the exhaust purifying device (60A, 60B); and a communication portion that communicates the interior of the heat retaining member and a space between the cooling unit and the fan. a power unit that is disposed in a power unit compartment provided at a vehicle front portion, and that includes an internal combustion engine that generates driving force that causes a vehicle to travel; a cooling unit that is disposed at a rear side in a vehicle longitudinal direction with respect to the power unit, and that is cooled by heat exchange with air; a fan that is disposed at a rear in the vehicle longitudinal direction of the cooling unit, and that, by being operated, generates cooling wind that passes through the cooling unit and is discharged to a vehicle exterior; characterized by further comprising an exhaust purifying device (60A, 60B) that is disposed at a rear side in the vehicle longitudinal direction with respect to the power unit, and that has a catalyst that purifies exhaust gas discharged from the internal combustion engine; a heat retaining member that surrounds a periphery of the exhaust purifying device (60A, 60B), and in which is formed an air intake port (76, L) that takes-in, into an interior, air that cools the exhaust purifying device (60A, 60B); and a communication portion that communicates the interior of the heat retaining member and a space between the cooling unit and the fan.
Fully automatic coffee machine, in particular for domestic use, having a brewing unit, which has a spindle (10; 18; 19) and a drive unit, which sets the spindle (10; 18; 19) in rotation during operation, wherein the spindle (10; 18; 19) has a cavity, wherein the drive unit has a motor (24, 30) and optionally a gear unit, and at least a part (22; 24; 30) of the drive unit is arranged within the cavity, characterised in that the motor (24, 30) or the motor (24, 30) and the gear unit is or are arranged completely within the cavity.
A magnetic gravity compensator, comprising a stator, a rotor, a base and an adjustment mechanism, the stator disposed on the base, the rotor levitated with respect to the stator, wherein the stator comprises a central cylindrical magnet that is connected to the base by the adjustment mechanism and consists of at least two arc magnets, and wherein the adjustment mechanism has a first end connected to the base and a second end securely connected to the at least two arc magnets, the adjustment mechanism configured to drive the at least two arc magnets to synchronously move radially with respect to a central axis of the central cylindrical magnet so as to change a magnetic circuit between the central cylindrical magnet and the rotor, and thereby adjust a magnetic levitation force between the stator and the rotor; characterized in that the rotor comprises an inner magnet ring and an outer magnet ring, wherein the stator further comprises a coil of a voice coil motor, and wherein the central cylindrical magnet, the inner magnet ring, the coil of the voice coil motor and the outer magnet ring are disposed concentrically, from innermost to outermost.
A method of generating an anti-noise signal to cancel at least a portion of an audio signal, the method comprising: receiving an audio signal from a noise microphone; performing noise estimation on the received audio signal to obtain an estimated environmental noise level; and, applying active noise cancellation to at least a portion of the audio signal to generate the anti-noise signal, wherein, when the estimated environmental noise level is equal to or exceeds a threshold, dynamically reducing the application of active noise cancellation to the at least a portion of the audio signal to obtain the anti-noise signal. receiving an audio signal from a noise microphone; performing noise estimation on the received audio signal to obtain an estimated environmental noise level; and, applying active noise cancellation to at least a portion of the audio signal to generate the anti-noise signal, wherein, when the estimated environmental noise level is equal to or exceeds a threshold, dynamically reducing the application of active noise cancellation to the at least a portion of the audio signal to obtain the anti-noise signal.
An industrial floor fire fighting system, comprising: a grating structured to fit over a trench in a floor, the grating defining an opening for a fire fighting fluid discharge; a fire fighting nozzle attached to the grating, located to discharge fire fighting fluid through the opening, the nozzle having a barrel and a bafflehead, characterised in that the system comprises: a center tube support unit supported on the barrel, and a center tube adjustably attached to the center tube support unit by threaded attachment, wherein the bafflehead is adjustably attached to the center tube by threaded attachment, providing vertical adjustment relative to the grating between the bafflehead and the barrel; and a stream shaper/mounting ring (SS/MR) affixed to the grating, wherein the barrel is adjustably attached to the stream shaper/mounting ring (SS/MR) by threaded attachment, providing vertical adjustment between the barrel and the grating; wherein the vertical adjustment between the bafflehead and the barrel defines an adjustable annular discharge gap, and wherein the vertical adjustment between the barrel and the grating defines an adjustable annular discharge stream shaper. a grating structured to fit over a trench in a floor, the grating defining an opening for a fire fighting fluid discharge; a fire fighting nozzle attached to the grating, located to discharge fire fighting fluid through the opening, the nozzle having a barrel and a bafflehead, characterised in that the system comprises: a center tube support unit supported on the barrel, and a center tube adjustably attached to the center tube support unit by threaded attachment, wherein the bafflehead is adjustably attached to the center tube by threaded attachment, providing vertical adjustment relative to the grating between the bafflehead and the barrel; and a stream shaper/mounting ring (SS/MR) affixed to the grating, wherein the barrel is adjustably attached to the stream shaper/mounting ring (SS/MR) by threaded attachment, providing vertical adjustment between the barrel and the grating; wherein the vertical adjustment between the bafflehead and the barrel defines an adjustable annular discharge gap, and wherein the vertical adjustment between the barrel and the grating defines an adjustable annular discharge stream shaper. a center tube support unit supported on the barrel, and a center tube adjustably attached to the center tube support unit by threaded attachment, wherein the bafflehead is adjustably attached to the center tube by threaded attachment, providing vertical adjustment relative to the grating between the bafflehead and the barrel; and a stream shaper/mounting ring (SS/MR) affixed to the grating, wherein the barrel is adjustably attached to the stream shaper/mounting ring (SS/MR) by threaded attachment, providing vertical adjustment between the barrel and the grating; wherein the vertical adjustment between the bafflehead and the barrel defines an adjustable annular discharge gap, and wherein the vertical adjustment between the barrel and the grating defines an adjustable annular discharge stream shaper.
Product transportation system comprising an Archimedean screw group formed from an Archimedean screw associated with a support cylinder, a cylindrical rotor of an electric motor fixedly attached onto the outer surface of the Archimedean screw group and a cylindrical stator fitted onto the outside of said rotor, wherein the Archimedean screw further comprises a central shaft arranged along the central rotation axis of the Archimedean screw and of the support cylinder, and the Archimedean screw extends radially from the support cylinder up to said central shaft and wherein said product transportation system further comprises a protective tube associated with the support cylinder of the Archimedean screw group inside which the traction system using the Archimedean screw rotates and inside which the products are transported.
Method for producing a fibrin-based bioartificial and acellular construct, comprising the following steps: - provision of a fibrinogen-containing and cell-free composition; - provision of a thrombin-containing and cell-free composition; - application of the fibrinogen-containing cell-free and the thrombin-containing cell-free compositions to a surface; - pressurization of the mixture of compositions applied to the surface at least until the fibrin formation is essentially completed; and - removal of the fibrin-based acellular bioartificial construct from the surface, wherein pressure is applied to the surface and wherein the pressurization takes place at a relative pressure of at least 100 kPa (1 bar) and the applied layer has a thickness of at least 1 mm. - provision of a fibrinogen-containing and cell-free composition; - provision of a thrombin-containing and cell-free composition; - application of the fibrinogen-containing cell-free and the thrombin-containing cell-free compositions to a surface; - pressurization of the mixture of compositions applied to the surface at least until the fibrin formation is essentially completed; and - removal of the fibrin-based acellular bioartificial construct from the surface, wherein pressure is applied to the surface and wherein the pressurization takes place at a relative pressure of at least 100 kPa (1 bar) and the applied layer has a thickness of at least 1 mm.
Transmitting apparatus for transmitting signals in a multi carrier system on the basis of a frame structure, each frame comprising at least two signalling patterns adjacent to each other in the frequency direction and at least two data patterns following the at least two signalling patterns in the time direction in the time slot immediately succeeding the time slot in which the at least two signalling patterns are located, wherein each of the data patterns succeeding the signalling patterns is respectively followed by further data patterns in succeeding time slots in the time direction, wherein all data patterns following each other in the time direction have the same frequency direction structure, each of the at least two signalling patterns and the data patterns comprising a plurality of frequency carriers, said transmitting apparatus comprising signalling mapping means adapted to map signalling data and pilot signals on frequency carriers of each of said at least two signalling patterns in a frame, said signalling data comprising the physical layer information necessary for the receipt of the succeeding data patterns, whereby the signalling data are repeated in each of said at least two signalling patterns so that the identical signalling data can be retrieved from each of said at least two signalling patterns, each signalling pattern comprising width information indicating the number of allocated frequency carriers of the data patterns, data mapping means (58, 58', 58") adapted to map data on frequency carriers of said at least two data patterns in a frame, transforming means adapted to transform said signalling patterns and said data patterns from the frequency domain into the time domain in order to generate a time domain transmission signal, and transmitting means adapted to transmit said time domain transmission signal.
An X-ray tube comprising: a cathode including an electron emitter that emits an electron beam; an anode configured to receive the emitted electrons of the electron beam; a first magnetic quadrupole between the cathode and the anode and having a first quadrupole yoke with four first quadrupole pole projections (214a,b; 216a,b) extending from the first quadrupole yoke and oriented toward a central axis of the first quadrupole yoke and each of the four first quadrupole pole projections (214a,b; 216a,b) having a first quadrupole electromagnetic coil (206a,b; 208a,b); a second magnetic quadrupole between the first magnetic quadrupole and the anode and having a second quadrupole yoke with four second quadrupole pole projections (222a,b; 224a,b) extending from the second quadrupole yoke and oriented toward a central axis of the second quadrupole yoke and each of the four second quadrupole pole projections (222a,b; 224a,b) having a second quadrupole electromagnetic coil (210a,b; 212a,b); and characterized by: a magnetic dipole between the cathode and anode and having a dipole yoke with four dipole pole projections (254a,b; 256a,b), wherein each of the four dipole pole projections (254a,b; 256a,b) has a dipole electromagnetic coil (258a,b; 260a,b). a cathode including an electron emitter that emits an electron beam; an anode configured to receive the emitted electrons of the electron beam; a first magnetic quadrupole between the cathode and the anode and having a first quadrupole yoke with four first quadrupole pole projections (214a,b; 216a,b) extending from the first quadrupole yoke and oriented toward a central axis of the first quadrupole yoke and each of the four first quadrupole pole projections (214a,b; 216a,b) having a first quadrupole electromagnetic coil (206a,b; 208a,b); a second magnetic quadrupole between the first magnetic quadrupole and the anode and having a second quadrupole yoke with four second quadrupole pole projections (222a,b; 224a,b) extending from the second quadrupole yoke and oriented toward a central axis of the second quadrupole yoke and each of the four second quadrupole pole projections (222a,b; 224a,b) having a second quadrupole electromagnetic coil (210a,b; 212a,b); and characterized by: a magnetic dipole between the cathode and anode and having a dipole yoke with four dipole pole projections (254a,b; 256a,b), wherein each of the four dipole pole projections (254a,b; 256a,b) has a dipole electromagnetic coil (258a,b; 260a,b).
Method for the fabrication of an organic transistor onto a flexible plastic substrate, said transistor comprising the steps of: - Forming, onto a gate electrode, a dielectric layer, using a combination of a metal oxide layer and a dielectric polymer layer, including: ∘ Forming at the top of said gate electrode said metal oxide layer having a first thickness (T 1) comprised between 0 nm < T 1 ≤ 20 nm and having a first relative permittivity (ε 1), ∘ Depositing by chemical vapor deposition said dielectric polymer layer having a second thickness (T 2) comprised between 0 nm < T 2 ≤ 50 nm, said dielectric polymer layer having a second relative permittivity (ε 2) and forming an interface with said organic semiconductor, wherein said dielectric polymer layer includes poly(p-xylylene) and/or its derivatives or halogenated parylene; ∘ Wherein said first and second relative permittivity satisfy the following equation: | ε 1 − ε 2 | ≤ 10. - Fabricating on said dielectric polymeric layer a source and a drain electrodes, - Depositing on said electrodes a layer of an organic semiconductor. - Forming, onto a gate electrode, a dielectric layer, using a combination of a metal oxide layer and a dielectric polymer layer, including: ∘ Forming at the top of said gate electrode said metal oxide layer having a first thickness (T 1) comprised between 0 nm < T 1 ≤ 20 nm and having a first relative permittivity (ε 1), ∘ Depositing by chemical vapor deposition said dielectric polymer layer having a second thickness (T 2) comprised between 0 nm < T 2 ≤ 50 nm, said dielectric polymer layer having a second relative permittivity (ε 2) and forming an interface with said organic semiconductor, wherein said dielectric polymer layer includes poly(p-xylylene) and/or its derivatives or halogenated parylene; ∘ Wherein said first and second relative permittivity satisfy the following equation: | ε 1 − ε 2 | ≤ 10. ∘ Forming at the top of said gate electrode said metal oxide layer having a first thickness (T 1) comprised between 0 nm < T 1 ≤ 20 nm and having a first relative permittivity (ε 1), ∘ Depositing by chemical vapor deposition said dielectric polymer layer having a second thickness (T 2) comprised between 0 nm < T 2 ≤ 50 nm, said dielectric polymer layer having a second relative permittivity (ε 2) and forming an interface with said organic semiconductor, wherein said dielectric polymer layer includes poly(p-xylylene) and/or its derivatives or halogenated parylene; ∘ Wherein said first and second relative permittivity satisfy the following equation: | ε 1 − ε 2 | ≤ 10. - Fabricating on said dielectric polymeric layer a source and a drain electrodes, - Depositing on said electrodes a layer of an organic semiconductor.
A mounting system for a fuel tank, comprising: a first mount configured to attach a first portion of the fuel tank in a fixed position on a vehicle, the first mount comprising: a body portion and a cap portion that, when attached, form an aperture to receive the first portion of the fuel tank; at least one fastener for attaching the body portion to the cap portion, wherein a clearance is maintained between the body portion and the cap portion in an assembled configuration; and a sleeve located around at least part of the fastener; and a second mount configured to attach a second portion of the fuel tank on the vehicle and to allow movement of at least part of the second portion relative to the vehicle, the second mount comprising: a body portion and a cap portion that, when attached, form an aperture to receive the second portion of the fuel tank; an insert that surrounds an inner surface of the aperture upon clamping the body portion and the cap portion together, the insert comprising a circumferential groove configured to receive the inner surface of the aperture; and at least one fastener for clamping together the body portion to the cap portion. a body portion and a cap portion that, when attached, form an aperture to receive the first portion of the fuel tank; at least one fastener for attaching the body portion to the cap portion, wherein a clearance is maintained between the body portion and the cap portion in an assembled configuration; and a sleeve located around at least part of the fastener; and a second mount configured to attach a second portion of the fuel tank on the vehicle and to allow movement of at least part of the second portion relative to the vehicle, the second mount comprising: a body portion and a cap portion that, when attached, form an aperture to receive the second portion of the fuel tank; an insert that surrounds an inner surface of the aperture upon clamping the body portion and the cap portion together, the insert comprising a circumferential groove configured to receive the inner surface of the aperture; and at least one fastener for clamping together the body portion to the cap portion. a body portion and a cap portion that, when attached, form an aperture to receive the second portion of the fuel tank; an insert that surrounds an inner surface of the aperture upon clamping the body portion and the cap portion together, the insert comprising a circumferential groove configured to receive the inner surface of the aperture; and at least one fastener for clamping together the body portion to the cap portion.
A method performed by a user terminal for receiving new moving line information, wherein a moving line represents a course of a user having the user terminal, the method comprising: upon an input of category information from the user, storing the category information, wherein the category information is preset to a specific zone; generating previous moving line information based on a movement path of the user terminal; transmitting the generated previous moving line information to a server; and receiving, from the server, new moving line information generated based on the transmitted previous moving line information; and displaying the new moving line information received from the server, wherein the generation of the previous moving line information comprises: receiving wireless communication signals from signal generators installed in the movement path of the user terminal; extracting identities, IDs, from the received wireless communication signals, respectively, and determining whether each of the extracted IDs corresponds to the stored category information; and if each of the extracted IDs corresponds to the stored category information, generating the previous moving line information based on each of the extracted IDs and information about a time of receiving a wireless communication signal corresponding to each of the extracted IDs. upon an input of category information from the user, storing the category information, wherein the category information is preset to a specific zone; generating previous moving line information based on a movement path of the user terminal; transmitting the generated previous moving line information to a server; and receiving, from the server, new moving line information generated based on the transmitted previous moving line information; and displaying the new moving line information received from the server, wherein the generation of the previous moving line information comprises: receiving wireless communication signals from signal generators installed in the movement path of the user terminal; extracting identities, IDs, from the received wireless communication signals, respectively, and determining whether each of the extracted IDs corresponds to the stored category information; and if each of the extracted IDs corresponds to the stored category information, generating the previous moving line information based on each of the extracted IDs and information about a time of receiving a wireless communication signal corresponding to each of the extracted IDs. receiving wireless communication signals from signal generators installed in the movement path of the user terminal; extracting identities, IDs, from the received wireless communication signals, respectively, and determining whether each of the extracted IDs corresponds to the stored category information; and if each of the extracted IDs corresponds to the stored category information, generating the previous moving line information based on each of the extracted IDs and information about a time of receiving a wireless communication signal corresponding to each of the extracted IDs.
A biocompatible composition for tissue repair or regeneration in mammals comprising: 40 to 80 wt.% B 2 O 3 1 to 25 wt.% Na 2 O 1 to 25% K 2 O 5 to 40 wt.% CaO 1 to 25 wt.% MgO 1 to 10 wt.% P 2 O 5 0.1 to 2.5 wt.% CuO 0.1 to 2.5 wt.% SrO 0.1 to 2.5 wt.% ZnO and optionally 0.1 to 2.5 wt.% Fe 2 O 3, wherein upon direct application of the biocompatible composition to a mammalian host, calcium carbonate or other calcium compounds other than hydroxyapatite form upon bioreaction of the composition with bodily fluids. 40 to 80 wt.% B 2 O 3 1 to 25 wt.% Na 2 O 1 to 25% K 2 O 5 to 40 wt.% CaO 1 to 25 wt.% MgO 1 to 10 wt.% P 2 O 5 0.1 to 2.5 wt.% CuO 0.1 to 2.5 wt.% SrO 0.1 to 2.5 wt.% ZnO and optionally 0.1 to 2.5 wt.% Fe 2 O 3,