mhurhangee/ep-ind-claims huggingface dataset:
A control method for an inductive power transfer, IPT, pick-up comprising a resonant circuit (L2, C2, L3) electrically coupled to a diode bridge (D1, D2, D3, D4) adapted to rectify an AC current from the resonant circuit and supply a DC current to a DC output, the method comprising: selectively shunting a first diode of the diode bridge to cause the AC current to recirculate to the resonant circuit during a positive period of the AC current; and selectively shunting a second diode of the diode bridge to cause the AC current to recirculate to the resonant circuit during a negative period of the AC current; wherein shunting of said first and second diodes is synchronised with the AC current whereby a predetermined proportion of said positive and negative periods of the AC current are rectified to supply the DC current to the DC output, and a remaining proportion of said positive and negative periods of the AC current are recirculated to the resonant circuit (L2, C2, L3). selectively shunting a first diode of the diode bridge to cause the AC current to recirculate to the resonant circuit during a positive period of the AC current; and selectively shunting a second diode of the diode bridge to cause the AC current to recirculate to the resonant circuit during a negative period of the AC current; wherein shunting of said first and second diodes is synchronised with the AC current whereby a predetermined proportion of said positive and negative periods of the AC current are rectified to supply the DC current to the DC output, and a remaining proportion of said positive and negative periods of the AC current are recirculated to the resonant circuit (L2, C2, L3).
Hydrodynamic plain bearing 1.1 having a bearing shell whose inner surface forms a bearing surface for a rotating shaft or the like, wherein 1.2 the bearing surface has a multiplicity of mutually separate surface segments (14, 15, 16) arranged in sequence in the circumferential direction of the bearing shell; characterized in that 1.3 at least the bearing surface or the entire bearing shell is made of CuCr1Zr. 1.1 having a bearing shell whose inner surface forms a bearing surface for a rotating shaft or the like, wherein 1.2 the bearing surface has a multiplicity of mutually separate surface segments (14, 15, 16) arranged in sequence in the circumferential direction of the bearing shell; characterized in that 1.3 at least the bearing surface or the entire bearing shell is made of CuCr1Zr.
Grate bar having a grate bar head, two side walls (3, 4), a running surface behind the grate bar head and between the side walls (3, 4), and an underside located between the side walls (3, 4) and under the running surface, wherein, in the case of a side-by-side arrangement of multiple grate bars of this type, a recess (7, 8) in a side wall between the running surface and underside forms at least one air slot (9, 10), wherein the recess (7, 8) is arranged only on one side wall and not in the opposite side wall, characterized in that no openings are provided in the grate bar head and multiple recesses (7, 8), which form multiple air slots, are provided one behind the other only in the area of the running surface.
A process for producing at least one organic compound of formula: wherein R is H or alkaline metal, R 1 is -H, -OH, -O-alkyl, -NH 2, -NH-alkyl, -SH, where alkyl is linear or branched C1-C3, R 2 is -H, -OH, linear or branched C1-C3 alkyl, or linear or branched C1-C3 alkyl substituted with at least one -OH group or -NH 2 group, provided that R 1 and R 2 are not simultaneously -H, comprising the steps of: i) providing at least one bacterium of the taxonomic Order Thermotogales comprising pyruvate:ferredoxin oxidoreductase (PFOR), ferredoxin, acetyl-coenzyme A synthetase, and coenzyme A; ii) adding an organic substrate; iii) adding CO 2; iv) reacting the resulting mixture under anaerobic conditions for at least 6 hours; and v) separating the at least one organic compound of formula thus obtained. R is H or alkaline metal, R 1 is -H, -OH, -O-alkyl, -NH 2, -NH-alkyl, -SH, where alkyl is linear or branched C1-C3, R 2 is -H, -OH, linear or branched C1-C3 alkyl, or linear or branched C1-C3 alkyl substituted with at least one -OH group or -NH 2 group, provided that R 1 and R 2 are not simultaneously -H, i) providing at least one bacterium of the taxonomic Order Thermotogales comprising pyruvate:ferredoxin oxidoreductase (PFOR), ferredoxin, acetyl-coenzyme A synthetase, and coenzyme A; ii) adding an organic substrate; iii) adding CO 2; iv) reacting the resulting mixture under anaerobic conditions for at least 6 hours; and v) separating the at least one organic compound of formula thus obtained.
Device for treating barrel-like containers or kegs, comprising in each case a container fitting, with a rotor that can be driven in a rotational manner about a rotor axis, with a plurality of container receptacles formed at the circumference of the rotor, to which the containers are supplied on a container feed (23, 25) and from which the treated containers are discharged on a container discharge (24, 26), and further comprising treatment heads that can be coupled to the container fittings for treating the containers, wherein, on one and the same rotor, an internal cleaning and a filling of the barrel-like containers or kegs, takes place, wherein the rotor can be driven by a drive in a stepped or pulsed manner about the rotor axis, and that the treatment heads and preferably also the hold-down devices are provided on a machine body and/or frame (7, 18), not moved with the rotor, and specifically in such a way that the treatment heads are located, during each rotation phase of the pulsed rotational movement of the rotor, outside the movement space of the rotor and/or of the container receptacles and/or of the containers arranged on the containers arranged on the container receptacles, and in each standstill phase of the pulsed rotational movement of the rotor are at least partially coupled to a container fitting for the treatment of the container concerned, characterised in that an external cleaning of the barrel-like containers or kegs takes place on the same rotor.
Vehicle with a protective system against mines located in the ground, such as culvert mines, having solid-fuel rockets which are incorporated on the side of the vehicle, the openings thereof are directed upwards, and at least one acceleration sensor by means of which the activation of the mine is detected, wherein upon sensing the rockets are fired and said rockets act as a brake in the acceleration phase during the blast in such a manner that the vehicle is pressed onto the ground when the mine explodes and any lifting of the vehicle is thereby prevented.
An additive to be added to latex particles used in a reagent for a latex agglutination reaction, wherein the latex particles have not been subjected to blocking treatment, and the additive comprises a polymer containing more than 65% by mass and 99% by mass or less of hydrophilic repeating units relative to all repeating units and 1% by mass or more and less than 35% by mass of hydrophobic repeating units relative to all repeating units, and having a weight average molecular weight of 3,000 or more, characterized in that the repeating unit contains at least a hydrophilic repeating unit represented by the following formula, wherein both of the hydrophilic repeating unit represented by formula and the hydrophilic repeating unit represented by formula may be contained, in formula, R 18 represents a hydrogen atom or a methyl group, and R 19 and R 20 each independently represent a hydrogen atom or an alkyl group having 1 to 6 carbon atoms, in formula, R 21 represents a hydrogen atom or a methyl group, and R 22 and R 23 each independently represent an alkanediyl group having 1 to 3 carbon atoms; and the additive comprises one or more selected from the group consisting of a hydrophobic repeating unit represented by the following formula and a hydrophobic repeating unit represented by the following formula, as the repeating unit. wherein R 31 represents a hydrogen atom or a methyl group, R 32 represents -O-, ∗ -(C=O)-O-, ∗ represents a position bonded to a carbon atom to which R 31 in formula is bonded), and R 33 represents a hydrocarbon group. wherein R 35 represents a hydrogen atom or a methyl group, and Z represents a group represented by the following formula. X 1 represents -O- or -NH-, X 2 represents an organic group having a formyl group or a keto group and having 3 to 12 (preferably 4 to 10, more preferably 5 to 8) carbon atoms, and ∗ represents an atomic bond. the latex particles have not been subjected to blocking treatment, and the additive comprises a polymer containing more than 65% by mass and 99% by mass or less of hydrophilic repeating units relative to all repeating units and 1% by mass or more and less than 35% by mass of hydrophobic repeating units relative to all repeating units, and having a weight average molecular weight of 3,000 or more, R 18 represents a hydrogen atom or a methyl group, and R 19 and R 20 each independently represent a hydrogen atom or an alkyl group having 1 to 6 carbon atoms, R 21 represents a hydrogen atom or a methyl group, and R 22 and R 23 each independently represent an alkanediyl group having 1 to 3 carbon atoms; and the additive comprises one or more selected from the group consisting of a hydrophobic repeating unit represented by the following formula and a hydrophobic repeating unit represented by the following formula, as the repeating unit. R 32 represents -O-, ∗ -(C=O)-O-, ∗ represents a position bonded to a carbon atom to which R 31 in formula is bonded), and R 33 represents a hydrocarbon group. X 2 represents an organic group having a formyl group or a keto group and having 3 to 12 (preferably 4 to 10, more preferably 5 to 8) carbon atoms, and ∗ represents an atomic bond.
The use of titanium oxide as a stationary phase in a radio-isotope generator device, characterized in that said titanium oxide comprises particles having a d 50 comprised between 10 and 350 μm, and having a BET specific surface area comprised between 30 and 300 m 2 /g, preferably greater than 60 m 2 /g.
A non-naturally occurring zinc finger protein that binds to an Htt gene, the zinc finger protein comprising 5 zinc finger domains ordered F1 to F5, wherein the zinc finger domains comprise the recognition helix region sequences ordered as shown in a single row of the following Table: F1 F2 F3 F4 F5 QSGDLTR (SEQ ID NO:1) QSGDLTR (SEQ ID NO: 1) QSGDLTR (SEQ ID NO:1) KHGNLSE (SEQ ID NO:2) KRCNLRC (SEQ ID NO:3) CPSHLTR (SEQ ID NO:4) QSGDLTR (SEQ ID NO: 1) KHGNLSE (SEQ ID NO:2) KRCNLRC (SEQ ID NO:3) RQFNRHQ (SEQ ID NO:5)
Angle measuring device comprising a first component assembly and a second component assembly, wherein the component assemblies (1, 2) can be rotated relative to one another about an axis and a relative angular position between the component assemblies (1, 2) can be determined by the angle measuring device, wherein the first component assembly comprises - a carrier element (1.1a - 1.1e) for receiving a shaft (10a; 10c) in an enclosing manner, a graduated disc (1.11) being fastened to the said support element, - a connecting element (1.2a - 1.2e) and also - a means (1.3) for fixing the connecting element (1.2a - 1.2e) relative to the carrier element (1.1a - 1.1e), and the second component assembly comprises a sensor element (2.11) for scanning the graduated disc (1.11), wherein the carrier element (1.1a - 1.1e) and also the connecting element (1.2a - 1.2e) are designed such that the connecting element (1.2a - 1.2e) can be operatively connected to the carrier element (1.1a - 1.1e) in such a way that a torque about the axis can be transmitted in a positively locking manner between the connecting element (1.2a - 1.2e) and the carrier element (1.1a - 1.1e), wherein the connecting element (1.2a - 1.2e) can be moved by axial displacement into a positively locking position and can be prestressed radially against the shaft (10a; 10c) by the means (1.3) for fixing the connecting element (1.2a - 1.2e), characterized in that an elastic component (1.21a; 1.21d) is arranged, between the means (1.3) for fixing the connecting element (1.2a - 1.2e) and the connecting element (1.2a - 1.2e) itself, or the angle measuring device has a plurality of connecting elements (1.2d - 1.2e) which are connected to one another by a body (1.4e) which is of axially elastic design. - a carrier element (1.1a - 1.1e) for receiving a shaft (10a; 10c) in an enclosing manner, a graduated disc (1.11) being fastened to the said support element, - a connecting element (1.2a - 1.2e) and also - a means (1.3) for fixing the connecting element (1.2a - 1.2e) relative to the carrier element (1.1a - 1.1e), and
A method for monitoring and coordinating harvest operations, comprising: determining real time fill levels of one or more grain bins of one or more corresponding harvesters; determining real time fill rates of the one or more grain bins of the one or more corresponding harvesters; updating a site database with the real time fill levels and real time fill rates; and determining an offload value for the one or more harvesters to reach a predetermined harvester grain bin capacity, wherein the step of determining real time fill rates comprises using a flow sensor to measure the real time flow rate of grain to the grain bin, characterized in that the step of determining real time fill rates comprises multiplying the measured flow rate by a calibration factor to obtain the real time fill rate and in that the calibration factor is modulated upon the fill level reaching a predetermined high level. determining real time fill levels of one or more grain bins of one or more corresponding harvesters; determining real time fill rates of the one or more grain bins of the one or more corresponding harvesters; updating a site database with the real time fill levels and real time fill rates; and determining an offload value for the one or more harvesters to reach a predetermined harvester grain bin capacity, wherein the step of determining real time fill rates comprises using a flow sensor to measure the real time flow rate of grain to the grain bin, characterized in that the step of determining real time fill rates comprises multiplying the measured flow rate by a calibration factor to obtain the real time fill rate and in that the calibration factor is modulated upon the fill level reaching a predetermined high level.
A system operable to automatically control a vehicle to operate in accordance with a target speed value, the system being further operable automatically to, in dependence at least in part on a determination that a wheel (114, 115) of the axle is rotating faster than another wheel (114, 115) of the axle by more than a prescribed amount: apply a brake (114B, 115B) to a wheel (114, 115) of an axle to reduce a difference in speed between respective wheels (114, 115) of said axle, and subsequently controlling cross-axle locking means of an axle of the vehicle to cause an increase in resistance to relative rotation of wheels (114, 115) of the axle whilst maintaining controlling the vehicle to operate in accordance with the target speed value. apply a brake (114B, 115B) to a wheel (114, 115) of an axle to reduce a difference in speed between respective wheels (114, 115) of said axle, and subsequently controlling cross-axle locking means of an axle of the vehicle to cause an increase in resistance to relative rotation of wheels (114, 115) of the axle whilst maintaining controlling the vehicle to operate in accordance with the target speed value.
A composite negative active material comprising: a porous carbon-based material; and metal nanostructures disposed on one or more of a surface and inner pores of the porous carbon-based material, wherein the porous carbon-based material has a 3-dimensional ordered macroporous structure or a structure in which the plurality of pores of the porous carbon-based material is connected to form a channel, and wherein the metal nanostructures are grown based on metal catalyst particles disposed on the surface and the inner pores of the porous carbon-based material, and wherein the metal nanostructures are metal nanowires and optionally further comprise one or more selected from the group of metal nanofilms, metal nanorods, metal nanotubes, and metal nanoribbons. a porous carbon-based material; and metal nanostructures disposed on one or more of a surface and inner pores of the porous carbon-based material, wherein the porous carbon-based material has a 3-dimensional ordered macroporous structure or a structure in which the plurality of pores of the porous carbon-based material is connected to form a channel, and wherein the metal nanostructures are grown based on metal catalyst particles disposed on the surface and the inner pores of the porous carbon-based material, and wherein the metal nanostructures are metal nanowires and optionally further comprise one or more selected from the group of metal nanofilms, metal nanorods, metal nanotubes, and metal nanoribbons.
A hydraulic directional magnetic valve with a hydraulic directional magnetic valve, in particular hydraulic directional 3/2 magnetic valve, comprising - a valve housing, - incorporated into the valve housing, a valve chamber with a first valve seat bore as a connection to a first line, in particular a pressure line, a free opening to a second line, in particular an operating line, and a second valve seat bore as a connection to a third line, in particular a reservoir line, - an electromagnet, and - a valve spindle movable by the electromagnet and partially disposed in the valve chamber, - wherein, within the valve chamber, the valve spindle comprises a first sealing surface oriented towards the first valve seat bore, and a second sealing surface oriented towards the second valve seat bore, such that selectively the first valve seat bore or the second valve seat bore is closable, - wherein the valve spindle extends out of the valve chamber through the second valve seat bore as far as to the electromagnet, wherein there is a connection of the third line to an armature compartment of the electromagnet along the valve spindle or in the valve spindle so that pressure built-up is prevented in the armature compartment, characterized in that a diameter of the first valve seat bore is larger than a diameter of the second valve seat bore. - a valve housing, - incorporated into the valve housing, a valve chamber with a first valve seat bore as a connection to a first line, in particular a pressure line, a free opening to a second line, in particular an operating line, and a second valve seat bore as a connection to a third line, in particular a reservoir line, - an electromagnet, and - a valve spindle movable by the electromagnet and partially disposed in the valve chamber, - wherein, within the valve chamber, the valve spindle comprises a first sealing surface oriented towards the first valve seat bore, and a second sealing surface oriented towards the second valve seat bore, such that selectively the first valve seat bore or the second valve seat bore is closable, - wherein the valve spindle extends out of the valve chamber through the second valve seat bore as far as to the electromagnet, wherein there is a connection of the third line to an armature compartment of the electromagnet along the valve spindle or in the valve spindle so that pressure built-up is prevented in the armature compartment,
A group III nitride semiconductor substrate comprising: a sapphire substrate having a semipolar plane as a main surface; a group III nitride semiconductor layer positioned over the main surface; and a buffer layer interposed between the sapphire substrate and the group III nitride semiconductor layer, wherein a <0002> direction of the sapphire substrate and a <10-10> direction of the group III nitride semiconductor layer do not intersect at right angles in a plan view in a direction perpendicular to the main surface, wherein the main surface is a plane obtained by inclining a plane at any angle of more than 0.0° and 10.5° or less in a direction in which the plane is parallel with an a-plane, and the group III nitride semiconductor layer has a semipolar plane inclined from a -C-plane at 38.0° or more and 53.0° or less to a -a-plane direction and at -16.0° or more and 16.0° or less to a m-plane direction as an exposed surface. a sapphire substrate having a semipolar plane as a main surface; a group III nitride semiconductor layer positioned over the main surface; and a buffer layer interposed between the sapphire substrate and the group III nitride semiconductor layer, wherein a <0002> direction of the sapphire substrate and a <10-10> direction of the group III nitride semiconductor layer do not intersect at right angles in a plan view in a direction perpendicular to the main surface, wherein the main surface is a plane obtained by inclining a plane at any angle of more than 0.0° and 10.5° or less in a direction in which the plane is parallel with an a-plane, and the group III nitride semiconductor layer has a semipolar plane inclined from a -C-plane at 38.0° or more and 53.0° or less to a -a-plane direction and at -16.0° or more and 16.0° or less to a m-plane direction as an exposed surface.
A coated substrate comprising: a metallic substrate; a bondcoat atop the substrate; and a ceramic barrier coat atop the bondcoat, wherein: the bondcoat comprises by weight at least 50 percent chromium; and the bondcoat comprises by weight: at least 6.0 percent nickel; and/or at least 10.0 percent cobalt. a metallic substrate; a bondcoat atop the substrate; and a ceramic barrier coat atop the bondcoat, the bondcoat comprises by weight at least 50 percent chromium; and the bondcoat comprises by weight: at least 6.0 percent nickel; and/or at least 10.0 percent cobalt. at least 6.0 percent nickel; and/or at least 10.0 percent cobalt.
A microporous polyolefin film which comprises 5 to 95 wt% of polyethylene having a viscosity average molecular weight (Mv) of 2,000,000 or more, a first melting-peak signal height as determined by DSC (differential scanning calorimetry) of 3.0 mW/mg or more, a specific surface area of 0.7 m 2 /g or more, and an average particle size of 1 to 150 μm and 95 to 5 wt% of polyethylene having an Mw of more than 10,000 and less than 200,000, wherein the Mv ratio of the component to the component, /, is 10 or more, the film as a whole has a molecular weight of 300,000 to 1,500,000, and the film has a fuse temperature of 120 to 140°C, a film breakage temperature of 150°C or more, a ratio of the piercing strength at 140°C to the piercing strength at 25°C of 0.01 to 0.25, and a film thickness of 1-500 μm, wherein the first melting-peak signal height is determined by the method described in paragraph of the description, the fuse temperature and the film breakage temperature are determined by the methods described in paragraph of the description, and the piercing strength is measured by the method described in paragraph of the description.