mhurhangee/ep-ind-claims huggingface dataset:
A contact terminal for providing an electrical connection by contacting a protrusion end portion of a plunger pin protruding from a main body case having an elongate hole with a target portion, wherein said plunger pin received in said elongate hole of said main body case comprises a round bar with a step, having a small diameter portion including said protrusion end portion and a large diameter portion being able to slide on an inner surface of said elongate hole of said main body case to freely move in a longitudinal direction thereof; and said plunger pin is pressed by a coil spring received in said main body case to protrude said protrusion end portion of said plunger pin from said main body case; characterised in that said coil spring presses an insulation ball to an oblique pit portion having a cone surface-shape on said large diameter portion, and a center axis of said oblique pit portion is shifted from a center axis of said plunger pin to press an outer surface of said large diameter portion onto said inner surface of said elongate hole of said main body case.
A high efficiency fuel cell system comprising: a topping fuel cell assembly comprising a topping cathode portion and a topping anode portion; a bottoming fuel cell assembly comprising a bottoming cathode portion and a bottoming anode portion, wherein the bottoming anode portion receives anode exhaust output from the topping anode portion; a flue gas generating device configured to provide a portion of the flue gas to each of the topping cathode portion and the bottoming cathode portion in parallel; an oxidizer assembly configured to (i) oxidize anode exhaust output from the bottoming anode portion with air and/or oxygen to generate carbon dioxide-containing exhaust and (ii) generate waste heat for heating the flue gas before the flue gas is provided to the topping cathode portion and/or the bottoming cathode portion; and a separation assembly configured to receive the carbon dioxide-containing exhaust from the oxidizer assembly and to separate carbon dioxide from the carbon dioxide-containing exhaust. a topping fuel cell assembly comprising a topping cathode portion and a topping anode portion; a bottoming fuel cell assembly comprising a bottoming cathode portion and a bottoming anode portion, wherein the bottoming anode portion receives anode exhaust output from the topping anode portion; a flue gas generating device configured to provide a portion of the flue gas to each of the topping cathode portion and the bottoming cathode portion in parallel; an oxidizer assembly configured to (i) oxidize anode exhaust output from the bottoming anode portion with air and/or oxygen to generate carbon dioxide-containing exhaust and (ii) generate waste heat for heating the flue gas before the flue gas is provided to the topping cathode portion and/or the bottoming cathode portion; and a separation assembly configured to receive the carbon dioxide-containing exhaust from the oxidizer assembly and to separate carbon dioxide from the carbon dioxide-containing exhaust.
A method for melt-blowing, forming, and depositing finite fibers to form a fibrous non-woven, in which the fibers produced by a melt-blow nozzle are blown by a hot air stream into a forming gap, and in which the fiber composite formed by the forming gap is conveyed away as a fibrous non-woven on an outlet side of the forming gap, characterized in that from the melt-blow nozzle to the forming gap, the fibers are substantially freely guided in a vertical manner via an adjustable blowing section, wherein the adjustment range of the blowing section is in the range from 100 mm to 2000 mm, wherein for forming, the fibers are blown between two counter rotating drums which have air-permeable drum walls and which between them form the forming gap and which are in each case driven at an identical circumferential speed in the range from 0.1 m/min to 50 m/min, and wherein for adjusting a forming cross section on the forming gap, a distance between the drums in a range from 1 mm to 100 mm, which is symmetrical or asymmetrical between the drums, is readjusted.
A unification airbag module comprising: a cushion deployed in a substantially C shape to protect a front and both sides of an occupant; an inflator supplying inflation gas to the cushion, wherein the cushion includes a front portion and two side portions, a main chamber is formed on edges of the front and side portions (22 and 20), and a plurality of sub-chambers communicating with the main chamber are formed at the front portion and/or the side portions, wherein the front portion protects the front side of the occupant and the side portions protect the lateral sides of the occupant when deployed, characterized in that the module comprise a fixing member, said fixing member having a substantially C shape and being adapted to be mounted on a ceiling of a vehicle, wherein the cushion is fixed to the fixing member. a cushion deployed in a substantially C shape to protect a front and both sides of an occupant; an inflator supplying inflation gas to the cushion, wherein the cushion includes a front portion and two side portions, a main chamber is formed on edges of the front and side portions (22 and 20), and a plurality of sub-chambers communicating with the main chamber are formed at the front portion and/or the side portions, wherein the front portion protects the front side of the occupant and the side portions protect the lateral sides of the occupant when deployed, characterized in that the module comprise a fixing member, said fixing member having a substantially C shape and being adapted to be mounted on a ceiling of a vehicle, wherein the cushion is fixed to the fixing member.
A laryngeal mask airway device, comprising an airway tube extending from a proximal end to a distal end, the airway tube defining an internal passage capable of receiving an endotracheal tube therein, a mask portion coupled to the distal end of the airway tube, the mask portion including an inflatable cuff and defining an opening in fluid communication with the internal passage, the mask portion being insertable through a mouth of a patient to an inserted location within the patient, the cuff being adapted to surround a glottic opening of the patient when inflated and when the mask portion is at the inserted location, characterised in that the laryngeal mask airway device has a fibre optic viewing device having a distal end and a proximal end, the distal end of the fibre optic viewing device being disposed adjacent the distal end of the airway tube to provide a remote view to a user; and wherein the mask portion includes a backplate, the backplate defining a ramp, the ramp defining a supporting surface for supporting an endotracheal tube inserted in the internal passage.
A method for sewing the seal strip comprising a tubular seal strip body with a first end and a second end, wherein the said first end extends into the second end and is securely connected to the second end by a sewing thread, wherein the following steps are comprised: Insert and connect two ends (116, 117) of the seal strip to form an inserting part; Penetrate the said inserting part with the sewing thread along the radial direction of the seal strip; Rotate the said inserting part to the predetermined angle around the axis of the seal strip; characterized in that Penetrate the said inserting part with the sewing thread in the reverse route against that in step; Repeat steps ∼ until the sewing of the seal strip is completed. Insert and connect two ends (116, 117) of the seal strip to form an inserting part; Penetrate the said inserting part with the sewing thread along the radial direction of the seal strip; Rotate the said inserting part to the predetermined angle around the axis of the seal strip; Penetrate the said inserting part with the sewing thread in the reverse route against that in step; Repeat steps ∼ until the sewing of the seal strip is completed.
A fluidized bed furnace for treating wastes comprising: a furnace body whose horizontal section is substantially rectangular or circular; a base plate disposed at a bottom portion of said furnace body and having gas supply ports for supplying a fluidizing gas to fluidize a fluidized medium; and a fluidized bed formed on said base plate in said furnace body to take the wastes into the fluidized medium and pyrolyze the wastes; wherein a supply amount of the fluidizing gas ejected from said gas supply ports of said base plate is differentiated in areas of said fluidized bed to make a fluidizing velocity larger in at least one area of said areas than in another area so that a moving-bed zone where the fluidized medium descends is formed in said another area and a fluidized-bed zone where the fluidized medium ascends is formed in said at least one area, and wherein the fluidized bed furnace is configured such that the wastes are supplied into said moving-bed; said fluidized bed has a fixed-bed where the fluidized medium is kept in a resting state, said fixed-bed being formed at a furnace wall side of said furnace body; said moving-bed zone and said fluidized-bed zone are located away from said furnace wall of said furnace body and adjacent to said fixed-bed; and an upper surface of said fixed-bed is formed by an inclined surface formed by the fluidized medium which has been scattered from said fluidized-bed zone. a furnace body whose horizontal section is substantially rectangular or circular; a base plate disposed at a bottom portion of said furnace body and having gas supply ports for supplying a fluidizing gas to fluidize a fluidized medium; and a fluidized bed formed on said base plate in said furnace body to take the wastes into the fluidized medium and pyrolyze the wastes; wherein a supply amount of the fluidizing gas ejected from said gas supply ports of said base plate is differentiated in areas of said fluidized bed to make a fluidizing velocity larger in at least one area of said areas than in another area so that a moving-bed zone where the fluidized medium descends is formed in said another area and a fluidized-bed zone where the fluidized medium ascends is formed in said at least one area, and wherein the fluidized bed furnace is configured such that the wastes are supplied into said moving-bed; said fluidized bed has a fixed-bed where the fluidized medium is kept in a resting state, said fixed-bed being formed at a furnace wall side of said furnace body; said moving-bed zone and said fluidized-bed zone are located away from said furnace wall of said furnace body and adjacent to said fixed-bed; and an upper surface of said fixed-bed is formed by an inclined surface formed by the fluidized medium which has been scattered from said fluidized-bed zone.
Header for electronic packages comprising: - a hollow head filled with - a glass material, wherein said glass material accommodates at least a pin (9.1, 9.2, 9) and; - wherein said hollow head is composed at least of a hollow part and a cover part; and - wherein said hollow part and said cover part are separate parts, and - wherein the hollow part surrounds the glass material - wherein the cover part covers the hollow part - wherein the hollow part is made from a metal, - wherein the cover part is made from a ceramic and comprises holes (13.1, 13.2) through which said at least one pin (9.1, 9.2) is fed into the upper side of the cover part, characterized in that - said glass material is a glass preform that is inserted into said hollow part and in that said glass preform comprises holes (11.1, 11.2) through which said at least one pin (9.1, 9.2, 9) is fed so that no glass material surrounds said at least one pin (9.1, 9.2) in said holes (13.1, 13.2) of the cover part. - a hollow head filled with - a glass material, wherein said glass material accommodates at least a pin (9.1, 9.2, 9) and; - wherein said hollow head is composed at least of a hollow part and a cover part; and - wherein said hollow part and said cover part are separate parts, and - wherein the hollow part surrounds the glass material - wherein the cover part covers the hollow part - wherein the hollow part is made from a metal, - wherein the cover part is made from a ceramic and comprises holes (13.1, 13.2) through which said at least one pin (9.1, 9.2) is fed into the upper side of the cover part, characterized in that - said glass material is a glass preform that is inserted into said hollow part and in that said glass preform comprises holes (11.1, 11.2) through which said at least one pin (9.1, 9.2, 9) is fed so that no glass material surrounds said at least one pin (9.1, 9.2) in said holes (13.1, 13.2) of the cover part.
A stented prosthetic valve comprising: a stent including a plurality of struts combining to define a generally tubular body, the struts forming strut segments (44a-44d); a plurality of leaflets mounted to the stent, a first one of the leaflets being provided as part of a first leaflet layer having a first tab region; and a first coupling apparatus for connecting the first leaflet layer to the stent, the first coupling apparatus including: a first backing layer, a guide plate apart from the stent frame, a pin apart from the stent frame, wherein a portion of the backing layer and the first tab region are captured between the guide plate and the pin; wherein the backing layer is attached to at least one of the strut segments (44a-44d) to mount the first leaflet to the stent. a stent including a plurality of struts combining to define a generally tubular body, the struts forming strut segments (44a-44d); a plurality of leaflets mounted to the stent, a first one of the leaflets being provided as part of a first leaflet layer having a first tab region; and a first coupling apparatus for connecting the first leaflet layer to the stent, the first coupling apparatus including: a first backing layer, a guide plate apart from the stent frame, a pin apart from the stent frame, a first backing layer, a guide plate apart from the stent frame, a pin apart from the stent frame,
Method for controlling vehicle dampers on passing over a speed bump, characterized in that it comprises steps consisting in: - permanently calculating a differential (Δ) of real time measurements of wheel speeds (ω1, ω2, ω3); - detecting an upward slope after the crossing (205, 207) of at least one threshold (S1, S2) by said differential (Δ) of real time measurements; - setting a front damper control electrical current (iav) to a first, maximum current value on detection of the upward slope of a speed bump to obtain a high damping coefficient on the front wheels; - setting said front damper control electrical current (iav) to a second current value lower than said first current value as soon as the vehicle has travelled, after detection of the upward slope, a first distance representative of a length of the upward slope, to obtain a less high damping coefficient on the front wheels. - permanently calculating a differential (Δ) of real time measurements of wheel speeds (ω1, ω2, ω3); - detecting an upward slope after the crossing (205, 207) of at least one threshold (S1, S2) by said differential (Δ) of real time measurements; - setting a front damper control electrical current (iav) to a first, maximum current value on detection of the upward slope of a speed bump to obtain a high damping coefficient on the front wheels; - setting said front damper control electrical current (iav) to a second current value lower than said first current value as soon as the vehicle has travelled, after detection of the upward slope, a first distance representative of a length of the upward slope, to obtain a less high damping coefficient on the front wheels.
An interchangeable lens detachable from a camera, the interchangeable lens comprising: a focus lens configured to change a focusing state of an object image by moving in an optical axis direction; a diaphragm configured to adjust an amount of light; acquisition means configured to acquire information indicating an amount of change in image magnification, corresponding to information about a present aperture value of the diaphragm, in a case where the focus lens is moved by a predetermined amount when the focus lens lies in predetermined position; and a lens control means configured to transmit the information indicating the amount of change in image magnification to the camera, receive a drive command indicating wobbling AF for wobbling the focus lens or a drive command indicating non-wobbling AF not for wobbling the focus lens, and drive the focus lens based on the received drive command, wherein the camera determines, based on the information indicating the amount of change in image magnification from the interchangeable lens, which one of the two drive commands is transmitted. a focus lens configured to change a focusing state of an object image by moving in an optical axis direction; a diaphragm configured to adjust an amount of light; acquisition means configured to acquire information indicating an amount of change in image magnification, corresponding to information about a present aperture value of the diaphragm, in a case where the focus lens is moved by a predetermined amount when the focus lens lies in predetermined position; and a lens control means configured to transmit the information indicating the amount of change in image magnification to the camera, receive a drive command indicating wobbling AF for wobbling the focus lens or a drive command indicating non-wobbling AF not for wobbling the focus lens, and drive the focus lens based on the received drive command, wherein the camera determines, based on the information indicating the amount of change in image magnification from the interchangeable lens, which one of the two drive commands is transmitted. transmit the information indicating the amount of change in image magnification to the camera, receive a drive command indicating wobbling AF for wobbling the focus lens or a drive command indicating non-wobbling AF not for wobbling the focus lens, and drive the focus lens based on the received drive command, wherein the camera determines, based on the information indicating the amount of change in image magnification from the interchangeable lens, which one of the two drive commands is transmitted.
Anti-friction bearing arrangement, in particular double-row tapered roller bearing, with a first bearing ring (2; 6) and a second bearing ring (2; 6) which, between them, form a bearing interior space, in which rolling bodies are arranged, in order to make a relative rotation of the first and second bearing ring (2; 6) possible, the anti-friction bearing arrangement having, furthermore, a sealing arrangement for sealing the bearing interior space, the sealing arrangement having a separate seal carrier which is connected fixedly to the first bearing ring (2; 6) for conjoint rotation, extends from the first bearing ring to the second bearing ring, and covers the bearing interior space at least partially, and has, furthermore, a seal element with at least one primary sealing lip for sealing the bearing interior space and one secondary sealing lip for sealing against external contamination, the seal element being connected fixedly to the seal carrier for conjoint rotation, the primary and the secondary sealing lip (24; 26) bearing axially against an end face of the second bearing ring (2; 6) in a sealing manner, characterized in that the primary sealing lip is directed in the direction of the bearing interior space, and the second sealing lip is directed in an opposite direction, with the result that the primary and the secondary sealing lip (24; 26) form, between them, a lip spread angle (β) which lies in the range from 100° to 140°, preferably at 120°, and the seal element being fastened to the seal carrier by means of a clamping ring which extends circumferentially.
Device for detecting at least one chemical compound, characterized in that said device comprises at least one carbon nanotube with several graphene layers, on which is grafted at least one molecule bearing a group G 1 capable of reacting with said chemical compound or a precursor of such a group G 1, characterized in that said carbon nanotube is an annealed nanotube.
A method comprising: encoding video using a 3D sub-band video encoder with a base layer codec embedded therein, wherein the base layer codec is embedded among plural temporal sub-band transforms of the 3D sub-band video encoder such that encoding/decoding with the base layer codec follows one or more of the plural sub-band temporal transforms and precedes one or more of the plural temporal sub-band transforms; and outputting results of the encoding. encoding video using a 3D sub-band video encoder with a base layer codec embedded therein, wherein the base layer codec is embedded among plural temporal sub-band transforms of the 3D sub-band video encoder such that encoding/decoding with the base layer codec follows one or more of the plural sub-band temporal transforms and precedes one or more of the plural temporal sub-band transforms; and outputting results of the encoding.
Carrier material for modification, manipulation and movement of electrically polarizable biomaterials, polyelectrolyte materials, atoms, ions and/or molecules (epAIMP), comprising semiconducting or piezoelectric materials, and an insulating surface covering layer on the surface of the semiconducting or piezoelectric materials characterized in that through the surface covering layer electrostatic forces act on the epAIMP, wherein the electrostatic forces are generated with a range of up to 100 nm and are determined in their strength: a. by the, due to the occupation of the interface states between the semiconducting material and the surface covering layer, where the time constant of the interfacial states (Tij) is in the range of a few nanoseconds to seconds, or the interfacial state density (Dij) varies from 10 7 to 10 14 cm -2 eV -1 as well as the near-surface doping of the semiconducting material with volume charge densities of 10 15 to 10 21 e/cm3 and surface charge densities of 10 10 to 10 14 e/cm2, resulting in an asymmetric electrostatic dipole, the surface charge density in the piezoelectric material being 10 13 to 10 15 e/cm 2, or b. by the number of near-surface polarization charges per unit area and the thickness of the piezoelectric material and wherein the electrostatic forces are further determined in their strength by the type and thickness of the material of the surface covering layer and the near-surface electrostatic forces of the substrate material are independent of the environment and the near-surface electrostatic forces do not change the other surface properties of the substrate material and the thickness of the insulating cover layer is less than 20 nm, preferably less than 5 nm, and particularly preferably between 2 and 3 nm. a. by the, due to the occupation of the interface states between the semiconducting material and the surface covering layer, where the time constant of the interfacial states (Tij) is in the range of a few nanoseconds to seconds, or the interfacial state density (Dij) varies from 10 7 to 10 14 cm -2 eV -1 as well as the near-surface doping of the semiconducting material with volume charge densities of 10 15 to 10 21 e/cm3 and surface charge densities of 10 10 to 10 14 e/cm2, resulting in an asymmetric electrostatic dipole, the surface charge density in the piezoelectric material being 10 13 to 10 15 e/cm 2, or b. by the number of near-surface polarization charges per unit area and the thickness of the piezoelectric material and wherein the electrostatic forces are further determined in their strength by the type and thickness of the material of the surface covering layer and the near-surface electrostatic forces of the substrate material are independent of the environment and the near-surface electrostatic forces do not change the other surface properties of the substrate material and the thickness of the insulating cover layer is less than 20 nm, preferably less than 5 nm, and particularly preferably between 2 and 3 nm.