mhurhangee/ep-ind-claims huggingface dataset:
An antireflective coating composition comprising a silsesquioxane resin comprising the units (Ph(CH 2) r SiO (3-x)/2 (OR') x) m (HSiO (3-x)/2 (OR') x) n (MeSiO (3-x)/2 (OR') x) o (RSiO (3-x)/2 (OR') x) p (R 1 SiO (3-x)/2 (OR') x) q; and a compound selected from photo-acid generators and thermal acid generators; wherein in the silsesquioxane resin Ph is a phenyl group, Me is a methyl group; R' is hydrogen atom or a hydrocarbon group having from 1 to 4 carbon atoms; each R is selected from a carboxylic acid forming group of general formula -R 2 C OR 3 or a sulfuric acid forming group of general formula -R 2 SO 3 R 3 and optionally trace amounts of the corresponding carboxylic acid or sulfuric acid, wherein R 2 is selected from alkylene groups having 1-10 carbon atoms and polyether groups having the general formula -(CH 2) a [O(CH 2) b] f - where a has a value of 1 to 12, b has a value of 2 to 6 and f has a value of 1 to 10 and R 3 is a protecting group selected from t-butyl, trimethylsilyl, anhydride groups, methylthiomethyl ester, benzyloxymethyl ester, diphenylmethyl ester and p-methoxybenzyl ester; and each R 1 is independently selected from substituted phenyl groups, ester groups, polyether groups; mercapto groups, sulfur-containing organic functional groups, hydroxyl producing group, aryl sulfonic ester groups, and reactive or curable organic functional groups; and r has a value of 0, 1, 2, 3, or 4; x has a value of 0, 1 or 2; m has a value of 0 to 0.95; n has a value of 0.05 to 0.95; o has a value of 0 to 0.95; p has a value of 0.05 to 0.5; q has a value of 0 to 0.95; and m + n + o + p + q ≈ 1. a silsesquioxane resin comprising the units (Ph(CH 2) r SiO (3-x)/2 (OR') x) m (HSiO (3-x)/2 (OR') x) n (MeSiO (3-x)/2 (OR') x) o (RSiO (3-x)/2 (OR') x) p (R 1 SiO (3-x)/2 (OR') x) q; and a compound selected from photo-acid generators and thermal acid generators;
Machine for shredding/cutting, in particular biomass and the like, comprising a frame in which a tool holder rotor is rotatably mounted, on which a row of tools is arranged, characterised in that the tools are arranged in channels formed by side walls and are arranged in a channel in which at least one inclined deflector element is arranged in the channel in front of a tool, and wherein deflecting elements are arranged on the frame opposite the channels on the frame and at least two deflecting elements are arranged opposite each other per channel and laterally to the cutting tools.
A belt retractor for a vehicle seat belt comprising a frame, a belt reel being rotatably supported in the frame, a blocking mechanism which is adapted to be responsive at least sensitively to the webbing and includes a locking disk, a locking element being adjustable between a home position and a locking position, wherein the locking element interacts with the locking disk in the locking position so that the blocking mechanism is responsive in the case of webbing extension, and a switching element being coupled to the belt reel and being adapted to adjust the locking element upon rotation of the belt reel between the home position and the locking position, characterized in that the locking element has a flexible actuating arm which flexibly deflects with the switching element passing by during webbing extension so that the locking element remains in the home position and, with the switching element passing by during webbing retraction, transmits an actuating force to the locking element by which actuating force the latter is adjusted from the home position to the locking position.
Fastening arrangement, comprising an anchor which comprises, in a front region, an anchor region for anchoring the anchor in a hole in a substrate and, in a rear region, a load-receiving device for introducing a tensile force, characterized in that a sensor is provided for measuring a distance of the front region from a reference position of the substrate.
The invention is the deflection preventing structure that comprises a loading platform where loading is handled in long vehicles, side structure between the load and tarpaulin, and a middle sliding post where side structures are installed on the ends, that eliminates deflection problem of lower side structure by being fixed on rave in lower side structures; and it consists of the following: • Multiple support apparatuses possessing retaining surface (1.1) that contacts with frontal surface of this side structure, • A fixation surface (1.3) enabling fixation of the mentioned support apparatuses on rave, • And several pin support pieces fixing support apparatus on rave via pin hole (1.2) on this fixation surface (1.3). • Multiple support apparatuses possessing retaining surface (1.1) that contacts with frontal surface of this side structure, • A fixation surface (1.3) enabling fixation of the mentioned support apparatuses on rave, • And several pin support pieces fixing support apparatus on rave via pin hole (1.2) on this fixation surface (1.3).
A method (1000, 1400) for wireless communication, performed by a first base station, the method comprising: determining (1012, 1412) a first frequency band for the first base station, the first frequency band overlapping at least partially with a second frequency band for a second base station, wherein the second frequency band is non-overlapping with a center portion of the first frequency band, and wherein a third frequency band for a third base station overlapping at least partially with the first frequency band is non-overlapping with the second frequency band and is further non-overlapping with the center portion of the first frequency band wherein the second and third frequency band, respectively, extend beyond the first frequency band; broadcasting (1014, 1414) information indicative of the first frequency band for the first base station; communicating (1016, 1416) with at least one user equipment UE on the first frequency band by the first base station; and sending at least one synchronization signal in the center portion of the first frequency band for use by UEs to detect the first base station. determining (1012, 1412) a first frequency band for the first base station, the first frequency band overlapping at least partially with a second frequency band for a second base station, wherein the second frequency band is non-overlapping with a center portion of the first frequency band, and wherein a third frequency band for a third base station overlapping at least partially with the first frequency band is non-overlapping with the second frequency band and is further non-overlapping with the center portion of the first frequency band wherein the second and third frequency band, respectively, extend beyond the first frequency band; broadcasting (1014, 1414) information indicative of the first frequency band for the first base station; communicating (1016, 1416) with at least one user equipment UE on the first frequency band by the first base station; and sending at least one synchronization signal in the center portion of the first frequency band for use by UEs to detect the first base station.
A method for preparing an ester polyol ester, the method comprising preparing a reaction mixture comprising: at least one polyol compound; at least one dicarboxylic acid; and at least one monocarboxylic acid, wherein the at least one polyol compound is esterified with the at least one dicarboxylic acid and the at least one monocarboxylic acid, wherein the reaction mixture has a hydroxyl group to carboxyl group ratio corresponding to a ratio of moles of hydroxyl groups to moles of carboxyl groups, and the HCR is from 0.92 to 0.97, wherein the at least one polyol compound is trimethylolpropane; the at least one dicarboxylic acid is azelaic acid; the at least one monocarboxylic acid is nonanoic acid; the ester polyol ester produced by the esterification reaction has a kinematic viscosity at 40°C of from 20 cSt to 110 cSt; and the ester polyol ester has a pour point from -40 °C to -60 °C. at least one polyol compound; at least one dicarboxylic acid; and at least one monocarboxylic acid, wherein the at least one polyol compound is esterified with the at least one dicarboxylic acid and the at least one monocarboxylic acid, wherein the reaction mixture has a hydroxyl group to carboxyl group ratio corresponding to a ratio of moles of hydroxyl groups to moles of carboxyl groups, and the HCR is from 0.92 to 0.97, wherein the at least one polyol compound is trimethylolpropane; the at least one dicarboxylic acid is azelaic acid; the at least one monocarboxylic acid is nonanoic acid; the ester polyol ester produced by the esterification reaction has a kinematic viscosity at 40°C of from 20 cSt to 110 cSt; and the ester polyol ester has a pour point from -40 °C to -60 °C.
A greenhouse for plant cultivation, comprising a greenhouse framework assembled out of a framework material and a sheet outer surface member formed from a water-impermeable sheet and sheltered in a manner of covering the outer periphery of the greenhouse framework, wherein the greenhouse for plant cultivation comprises: a sheet inner surface member forming all of a floor surface, a wall surface, and a ceiling surface in a sealed state on the inner side of the sheet outer surface member in a manner of being spaced by intervals from the sheet outer surface member by using a flexibly bendable heat shield sheet formed by coating both sides of a sheet-shaped material with metal foil; and an air conditioning device for air conditioning the inner side of the sheet inner surface member.
A snowmobile comprising: a chassis having a tunnel and a front portion; an endless track supported within the tunnel; a plurality of front skis operably coupled to the front portion of the chassis; a CVT supported by the chassis; and a low-inertia drive assembly, including: a drive shaft having a first open end and a second open end, an interior portion of the drive shaft including a plurality of hollow channels, and an exterior portion of the drive shaft being rotatably coupled to the endless track; a lower sprocket rotatably coupled to the drive shaft; an upper sprocket; and characterised in that the low inertia drive assembly further includes a belt extending around the upper and lower sprockets (48, 50) to drive the drive shaft and the endless track; and a first end cap adhesively coupled to the first open end of the drive shaft and comprised of a first material; and a second end cap adhesively coupled to the second open end of the drive shaft and comprised of a second material; wherein the first material has a mass greater than a mass of the second material. a chassis having a tunnel and a front portion; an endless track supported within the tunnel; a plurality of front skis operably coupled to the front portion of the chassis; a CVT supported by the chassis; and a low-inertia drive assembly, including: a drive shaft having a first open end and a second open end, an interior portion of the drive shaft including a plurality of hollow channels, and an exterior portion of the drive shaft being rotatably coupled to the endless track; a lower sprocket rotatably coupled to the drive shaft; an upper sprocket; and characterised in that the low inertia drive assembly further includes a belt extending around the upper and lower sprockets (48, 50) to drive the drive shaft and the endless track; and a first end cap adhesively coupled to the first open end of the drive shaft and comprised of a first material; and a second end cap adhesively coupled to the second open end of the drive shaft and comprised of a second material; a drive shaft having a first open end and a second open end, an interior portion of the drive shaft including a plurality of hollow channels, and an exterior portion of the drive shaft being rotatably coupled to the endless track; a lower sprocket rotatably coupled to the drive shaft; an upper sprocket; and characterised in that the low inertia drive assembly further includes a belt extending around the upper and lower sprockets (48, 50) to drive the drive shaft and the endless track; and a first end cap adhesively coupled to the first open end of the drive shaft and comprised of a first material; and a second end cap adhesively coupled to the second open end of the drive shaft and comprised of a second material; wherein the first material has a mass greater than a mass of the second material.
A method for a chemical formation of an anode body for a solid electrolytic capacitor, based on the following steps: step I of electrolytically forming an anode body comprising niobium in a chemical forming solution containing nitric acid and phosphoric acid at a temperature within a range from 40°C to a boiling point of the chemical forming solution, step II of heat-treating the electrolytically formed anode body at a temperature within a range from 150°C to 300°C, and step III of electrolytically forming the heat-treated anode body in a chemical forming solution containing nitric acid and phosphoric acid at a temperature within a range from 40°C to a boiling point of the chemical forming solution. step I of electrolytically forming an anode body comprising niobium in a chemical forming solution containing nitric acid and phosphoric acid at a temperature within a range from 40°C to a boiling point of the chemical forming solution, step II of heat-treating the electrolytically formed anode body at a temperature within a range from 150°C to 300°C, and step III of electrolytically forming the heat-treated anode body in a chemical forming solution containing nitric acid and phosphoric acid at a temperature within a range from 40°C to a boiling point of the chemical forming solution.
A thrust reverser system for a turbine engine comprising a nacelle surrounding the engine, the thrust reverser system comprising: a support structure configured to be mounted to the engine; a transcowl mounted on the support structure and forming a portion of the nacelle, the transcowl movable between a first position, in which a front edge of the transcowl abuts the support structure, and a second position, in which an aperture having aperture length is formed between the front edge and the support structure, wherein the aperture extends circumferentially around an engine centerline; and a single row vane assembly that is (i) circumferentially disposed within the aperture, (ii) coaxial with the engine centerline, (iii) comprises a vane with vane leading edge that extends forward from a knee on a plane by an angle alpha, the plane being perpendicular to a thrust reverser centerline, and (iv) comprises a vane trailing edge that extends forward from the same knee at an angle beta wherein the aperture length is length L2 and the vane trailing edge is positioned a distance L1 from the support structure, and a ratio of the distance L1 to L2 is within the range of about 0.3 to about 0.5, and wherein the angle alpha is greater than forty-five degrees and the angle beta is within a range of about thirty degrees to about seventy degrees. a support structure configured to be mounted to the engine; a transcowl mounted on the support structure and forming a portion of the nacelle, the transcowl movable between a first position, in which a front edge of the transcowl abuts the support structure, and a second position, in which an aperture having aperture length is formed between the front edge and the support structure, wherein the aperture extends circumferentially around an engine centerline; and a single row vane assembly that is (i) circumferentially disposed within the aperture, (ii) coaxial with the engine centerline, (iii) comprises a vane with vane leading edge that extends forward from a knee on a plane by an angle alpha, the plane being perpendicular to a thrust reverser centerline, and (iv) comprises a vane trailing edge that extends forward from the same knee at an angle beta wherein the aperture length is length L2 and the vane trailing edge is positioned a distance L1 from the support structure, and a ratio of the distance L1 to L2 is within the range of about 0.3 to about 0.5, and wherein the angle alpha is greater than forty-five degrees and the angle beta is within a range of about thirty degrees to about seventy degrees.
Continuous thrust pyrotechnical propulsion method, with thrust modulation comprising: - self-combustion of a charge of solid propellant (11; 11a, 11b, 11c) in the combustion chamber (7; 7a, 7b, 7c) of a thruster (8; 8a, 8b, 8c), and - ejection of the gases generated by said self-combustion, and further comprising injection on demand of at least one fluid (G and/or L) into said combustion chamber (7; 7a, 7b, 7c); said injection at least partly ensuring, advantageously alone, the control of the combustion of said propellant charge and, therefore said thrust modulation; characterized in that it is carried out with a solid propellant having a pressure exponent of more than 0.5. - self-combustion of a charge of solid propellant (11; 11a, 11b, 11c) in the combustion chamber (7; 7a, 7b, 7c) of a thruster (8; 8a, 8b, 8c), and - ejection of the gases generated by said self-combustion,
A medium for thermal transfer printing, the medium comprising: a support; a release layer provided over the support; and a thermally fusible ink layer provided over the release layer, wherein the release layer comprises a first styrene resin, wherein the thermally fusible ink layer comprises a second styrene resin and a polyester resin, and wherein a content ratio of the second styrene resin in the thermally fusible ink layer is higher than a content ratio of the first styrene resin in the release layer. a support; a release layer provided over the support; and a thermally fusible ink layer provided over the release layer, wherein the release layer comprises a first styrene resin, wherein the thermally fusible ink layer comprises a second styrene resin and a polyester resin, and wherein a content ratio of the second styrene resin in the thermally fusible ink layer is higher than a content ratio of the first styrene resin in the release layer.
A condenser (1, 60, 70) of stacked plate design, having a first flow channel (25, 64, 73, 79) for a refrigerant and having a second flow channel (26, 31, 42, 52, 67) for a coolant, wherein a plurality of plate elements is provided, which form channels adjacent to each other between the plate elements when stacked on top of each other, wherein a first subset of the channels is associated with the first flow channel (25, 64, 73, 79) and a second subset of the channels is associated with the second flow channel (26, 31, 42, 52, 67), wherein the first flow channel (25, 64, 73, 79) has a first region (3, 80) for desuperheating and condensing the vaporous refrigerant and a second region (4, 81, 62) for subcooling the condensed refrigerant, having a receiver for storing a refrigerant, wherein a refrigerant transfer from the first region (3, 80) to the second region (4, 81, 62) leads through the receiver, wherein the receiver is in fluid communication with the first region (3, 80) by means of a first connection element which forms the fluid inlet of the receiver, wherein a second connection element is in fluid communication with the second region (4, 81, 62) as a fluid outlet of the receiver, characterised in that the first connection element or the second connection element is a tube which passes through a number of plate elements by means of openings in plate elements.
Heat ray shielding particles that are composite tungsten oxide particles having a hexagonal crystal structure represented by a general formula Li x M y WO z, wherein the element M in the general formula is one or more kinds of elements selected from alkaline earth metals and alkali metals other than lithium, 0.25 ≤ x ≤ 0.80, 0.10 ≤ y ≤ 0.50, and 2.20 ≤ z ≤ 3.00.
An electrical wire including: at least one electrifiable conductor for delivering electrical power and for use for commercially available utility voltages such as 120V AC and 240V AC; first and second insulating layers formed on opposing sides of said at least one electrifiable conductor; first and second return conductors formed on said first and second insulating layers, respectively, such that said at least one electrifiable conductor is at least substantially entrapped by said first and second return conductors; third and fourth insulating layers formed on said first and second return conductors, respectively; first and second grounding conductors formed on said third and fourth insulating layers, respectively; and fifth and sixth insulating layers formed on said first and second grounding conductors, respectively, wherein the electrical wire is a flat, flexible wire, having a total thickness of no more than 0.050 inches (approximately 0.127cm). at least one electrifiable conductor for delivering electrical power and for use for commercially available utility voltages such as 120V AC and 240V AC; first and second insulating layers formed on opposing sides of said at least one electrifiable conductor; first and second return conductors formed on said first and second insulating layers, respectively, such that said at least one electrifiable conductor is at least substantially entrapped by said first and second return conductors; third and fourth insulating layers formed on said first and second return conductors, respectively; first and second grounding conductors formed on said third and fourth insulating layers, respectively; and fifth and sixth insulating layers formed on said first and second grounding conductors, respectively, wherein the electrical wire is a flat, flexible wire, having a total thickness of no more than 0.050 inches (approximately 0.127cm).
A hydrant sealing system for sealing the flow path of a hydrant housing, comprising a hydrant housing and - an intake, - a connector lying above it, - a setting device and - a sealing body which can be moved by the setting device into an opening position and a closing position, wherein the sealing body can be moved translationally out of the flow path into the opening position of the sealing body, wherein in the opening position, it is at least substantially accommodated in a housing part of the hydrant housing which lies away from the flow path, characterised in that the intake is arranged laterally on the hydrant housing, and the housing part is arranged on the side opposite the connector, as viewed from the intake. - an intake, - a connector lying above it, - a setting device and - a sealing body which can be moved by the setting device into an opening position and a closing position, wherein the sealing body can be moved translationally out of the flow path into the opening position of the sealing body, wherein in the opening position, it is at least substantially accommodated in a housing part of the hydrant housing which lies away from the flow path, characterised in that the intake is arranged laterally on the hydrant housing, and the housing part is arranged on the side opposite the connector, as viewed from the intake.