mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising crystalline propanil and at least another agrochemically acceptable excipient, wherein said crystalline propanil exhibits: (a) the 2θ and d-spacings parameters described in below table: d(A°) 2θ 7.064±0.1° 12.51±0.2° 5.92±0.1° 14.93±0.2° 5.168±0.1° 17.11±0.2° 4.464±0.1° 19.87±0.2° 4.155±0.1° 21.35±0.2° 4.065±0.1° 21.83±0.2° 3.875±0.1° 22.91±0.2° 3.771±0.1° 23.55±0.2° 3.57±0.1° 24.91±0.2° 3.41±0.1° 26.09±0.2° 3.047±0.1° 29.27±0.2° 2.782±0.1° 32.13±0.2° 2.8742±0.1° 31.07±0.2° 2.363±0.1° 38.13±0.2° 2.258±0.1° 39.91±0.2° ; or (b) the structural coordinates described in below table; Parameter Value Crystal system Monoclinic Space group P2 1 /c a 17.8853 Å b 11.6179 Å c 9.8524 Å α 90.00° β 92.761 ° γ 90.00° Volume 2044.8 Å 3 Z 4 Density (calculated) 1.417 g/cc ; and wherein when the composition comprises a solvent, the solvent is selected from the group consisting of water, aromatic solvents, alcohols, ketones, pyrrolidones, ketonic solvents, glycols, acetates, carbonates, fatty acid dimethylamides, fatty acids, fatty acid esters, amino carboxylic acid esters and mixtures thereof. (a) the 2θ and d-spacings parameters described in below table: d(A°) 2θ 7.064±0.1° 12.51±0.2° 5.92±0.1° 14.93±0.2° 5.168±0.1° 17.11±0.2° 4.464±0.1° 19.87±0.2° 4.155±0.1° 21.35±0.2° 4.065±0.1° 21.83±0.2° 3.875±0.1° 22.91±0.2° 3.771±0.1° 23.55±0.2° 3.57±0.1° 24.91±0.2° 3.41±0.1° 26.09±0.2° 3.047±0.1° 29.27±0.2° 2.782±0.1° 32.13±0.2° 2.8742±0.1° 31.07±0.2° 2.363±0.1° 38.13±0.2° 2.258±0.1° 39.91±0.2° ; or (b) the structural coordinates described in below table; Parameter Value Crystal system Monoclinic Space group P2 1 /c a 17.8853 Å b 11.6179 Å c 9.8524 Å α 90.00° β 92.761 ° γ 90.00° Volume 2044.8 Å 3 Z 4 Density (calculated) 1.417 g/cc ; and wherein when the composition comprises a solvent, the solvent is selected from the group consisting of water, aromatic solvents, alcohols, ketones, pyrrolidones, ketonic solvents, glycols, acetates, carbonates, fatty acid dimethylamides, fatty acids, fatty acid esters, amino carboxylic acid esters and mixtures thereof.
A method for the face-side chamfering of gear teeth (21.1, 21.2) of a workpiece in a CNC-controlled multiaxis machine, characterized by the following steps: - employing a tool in the multiaxis machine, wherein the tool has at least one cutting tooth having a first rake face (121.1) and a second rake face (121.2), - driving the tool in a first rotational direction, - executing first CNC-controlled relative movements while the tool rotates in the first rotational direction to chamfer a first face-side edge of a first tooth (21.1) of the gear teeth using the first rake face (121.1) of the tool , - executing second CNC-controlled relative movements while the tool rotates in the first rotational direction, to chamfer a second face-side edge of the first tooth (21.1) or another tooth (21.2) of the gear teeth using the second rake face (121.2) of the tool , wherein the CNC-controlled relative movements during the chamfering are continuous movements similar to power skiving, and an axis intersection angle (Σ) of the tool axis (R1) with the workpiece axis (R2) is predefined in absolute value in the range between 10° and 30°. - employing a tool in the multiaxis machine, wherein the tool has at least one cutting tooth having a first rake face (121.1) and a second rake face (121.2), - driving the tool in a first rotational direction, - executing first CNC-controlled relative movements while the tool rotates in the first rotational direction to chamfer a first face-side edge of a first tooth (21.1) of the gear teeth using the first rake face (121.1) of the tool , - executing second CNC-controlled relative movements while the tool rotates in the first rotational direction, to chamfer a second face-side edge of the first tooth (21.1) or another tooth (21.2) of the gear teeth using the second rake face (121.2) of the tool ,
A semiconductor laser device comprising: an insulating heat sink including a flow channel for a coolant; a conductive submount on a first region (R1) of an upper surface of the insulating heat sink ; a conductive first electrode ; an insulating layer on the conductive first electrode ; a semiconductor laser element on a third region (R3) of an upper surface of the conductive submount , the semiconductor laser element being configured to output laser light; a conductive connecting portion on the semiconductor laser element ; and a conductive second electrode on the insulating layer and the conductive connecting portion , wherein the conductive first electrode is electrically connected either to at least part of a side surface of the conductive submount (30 or to a fourth region, different from the third region, of the upper surface of said conductive submount, characterized in that the conductive first electrode is positioned on a same plane as the conductive submount and above said insulating heat sink , wherein a region of the upper surface of the insulating heat sink where the conductive first electrode is positioned includes a second region (R2), different from the first region (R1). an insulating heat sink including a flow channel for a coolant; a conductive submount on a first region (R1) of an upper surface of the insulating heat sink ; a conductive first electrode ; an insulating layer on the conductive first electrode ; a semiconductor laser element on a third region (R3) of an upper surface of the conductive submount , the semiconductor laser element being configured to output laser light; a conductive connecting portion on the semiconductor laser element ; and a conductive second electrode on the insulating layer and the conductive connecting portion , wherein the conductive first electrode is electrically connected either to at least part of a side surface of the conductive submount (30 or to a fourth region, different from the third region, of the upper surface of said conductive submount, characterized in that the conductive first electrode is positioned on a same plane as the conductive submount and above said insulating heat sink , wherein a region of the upper surface of the insulating heat sink where the conductive first electrode is positioned includes a second region (R2), different from the first region (R1).
A monitoring and intervening assembly for rearing premises, characterized in that it comprises: - a movable monitoring unit equipped with means for monitoring the rearing premises and the animals resident therein, the geographical coordinates of said unit in the premises being determinable with respect to an origin, - at least one movable intervening module which is capable of being driven and controlled by said monitoring unit , said intervening module, when inoperative, being installed in a storage area, wherein the monitoring unit is suspended on a guide rail installed above the ground, said monitoring unit comprising means for driving along the guide rail and means for indicating its position along the guide rail with respect to a reference or origin mechanically attached to this rail said monitoring and intervening assembly being characterized in that said monitoring unit and said intervening module both comprise cooperating mechanical coupling means for linking one to the other and which are lockable and unlockable, said monitoring unit being capable of continuously monitoring the premises and the animals without, however, being coupled to the or one of the intervening modules. - a movable monitoring unit equipped with means for monitoring the rearing premises and the animals resident therein, the geographical coordinates of said unit in the premises being determinable with respect to an origin, - at least one movable intervening module which is capable of being driven and controlled by said monitoring unit , said intervening module, when inoperative, being installed in a storage area, wherein the monitoring unit is suspended on a guide rail installed above the ground, said monitoring unit comprising means for driving along the guide rail and means for indicating its position along the guide rail with respect to a reference or origin mechanically attached to this rail said monitoring and intervening assembly being characterized in that said monitoring unit and said intervening module both comprise cooperating mechanical coupling means for linking one to the other and which are lockable and unlockable, said monitoring unit being capable of continuously monitoring the premises and the animals without, however, being coupled to the or one of the intervening modules.
A method of forming an anti-glare coating on a substrate comprising: (a) heating the substrate to a temperature of at least 100 °F (37.8 °C) to form a heated substrate; (b) applying a curable film-forming sol-gel composition on at least one surface of the heated substrate, to form a coated substrate with a sol-gel network layer having a surface roughness; wherein the sol-gel network layer is essentially free of inorganic oxide particles and wherein the curable film-forming sol-gel composition comprises: (i) a tetraalkoxysilane; (ii) an epoxy functional trialkoxysilane; (iii) a metal-containing catalyst; and (iv) a solvent component; and (c) subjecting the coated substrate to conditions for a time sufficient to effect cure of the sol-gel layer and form an anti-glare, coated article. (a) heating the substrate to a temperature of at least 100 °F (37.8 °C) to form a heated substrate; (b) applying a curable film-forming sol-gel composition on at least one surface of the heated substrate, to form a coated substrate with a sol-gel network layer having a surface roughness; wherein the sol-gel network layer is essentially free of inorganic oxide particles and wherein the curable film-forming sol-gel composition comprises: (i) a tetraalkoxysilane; (ii) an epoxy functional trialkoxysilane; (iii) a metal-containing catalyst; and (iv) a solvent component; and (i) a tetraalkoxysilane; (ii) an epoxy functional trialkoxysilane; (iii) a metal-containing catalyst; and (iv) a solvent component; and (c) subjecting the coated substrate to conditions for a time sufficient to effect cure of the sol-gel layer and form an anti-glare, coated article.
Powder for an additive manufacturing method, having: a. a d 2 value of 10 μm or more, b. a d 90 value of 200 μm or less, and c. a quotient E Law /d 50 ≤ 0.8 kJ/(kg*μm), wherein E Law indicates the avalanche energy and d 50 indicates the mean particle diameter, wherein E Law is measured according to the method in the description, and the d 2 , d 50 , and d 90 values are determined in accordance with ISO 13320:2009 in conjunction with ISO 9276-2:2014, and wherein the powder has at least one material that is selected from the group consisting of metals, ceramics, glasses, and glass ceramics. a. a d 2 value of 10 μm or more, b. a d 90 value of 200 μm or less, and c. a quotient E Law /d 50 ≤ 0.8 kJ/(kg*μm), wherein E Law indicates the avalanche energy and d 50 indicates the mean particle diameter,
A die for a printhead , comprising: a plurality of fluid feed holes disposed in a line parallel to a longitudinal axis of the die , wherein the fluid feed holes are formed through a substrate of the die ; a plurality of fluidic actuators , proximate to and on either side of the plurality of fluid feed holes , to eject fluid received from the plurality of fluid feed holes ; logic circuitry to operate the plurality of fluidic actuators , wherein the logic circuitry is disposed on a first side of the plurality of fluid feed holes ; power circuitry to power the plurality of fluidic actuators , wherein the power circuitry is disposed on an opposite side of the plurality of fluid feed holes from the logic circuitry ; and activation traces disposed between each of the plurality of fluid feed holes to couple the logic circuitry to the power circuitry . a plurality of fluid feed holes disposed in a line parallel to a longitudinal axis of the die , wherein the fluid feed holes are formed through a substrate of the die ; a plurality of fluidic actuators , proximate to and on either side of the plurality of fluid feed holes , to eject fluid received from the plurality of fluid feed holes ; logic circuitry to operate the plurality of fluidic actuators , wherein the logic circuitry is disposed on a first side of the plurality of fluid feed holes ; power circuitry to power the plurality of fluidic actuators , wherein the power circuitry is disposed on an opposite side of the plurality of fluid feed holes from the logic circuitry ; and activation traces disposed between each of the plurality of fluid feed holes to couple the logic circuitry to the power circuitry .
A system for split power-control electronics with fiber-optic multiplexing, the system characterised by comprising: a plurality of power electronics modules configured to provide power to a load, wherein the plurality of power electronics modules is co-located with the load in an un-controlled temperature and pressure environment; a control card configured to control the plurality of power electronics modules; a control module configured to receive and process the control card, wherein the control module is located within a temperature-controlled environment; and one or more connections , the one or more connections configured to connect a control module to the plurality of power electronics modules, wherein the one or more connections are fiber-optic cables. a plurality of power electronics modules configured to provide power to a load, wherein the plurality of power electronics modules is co-located with the load in an un-controlled temperature and pressure environment; a control card configured to control the plurality of power electronics modules; a control module configured to receive and process the control card, wherein the control module is located within a temperature-controlled environment; and one or more connections , the one or more connections configured to connect a control module to the plurality of power electronics modules, wherein the one or more connections are fiber-optic cables.
A minimally invasive instrument for robotic surgery, including a functional element , a force, torque and/or pressure transmission device for transmitting force, torque and/or pressure from a drive to said functional element , a coupling device for coupling the instrument with a medical robot, in particular such that said functional element is adapted to be actuated via the drive, an operating element for manually operating said functional element in a state in which said instrument is uncoupled from the medical robot, characterized by a latch element for retaining the operating element in a position determined by the user without the user having to apply a force upon said operating element , wherein the operating element is a lever which is adapted to be pivoted about a pivot point connected with the instrument , and said lever is adapted to be mechanically coupled with the force, torque and/or pressure transmission device at a hinge point which is spaced apart from said pivot point .
An optical time domain reflectometer for determining properties of an optical transmission fiber , the optical time domain reflectometer comprising: an electro-absorption modulator comprising a waveguide and two electrodes , wherein the waveguide is arranged between the electrodes ; a light source configured for emitting sampling light into the waveguide , wherein the waveguide is connected or to be connected between the fiber and the light source ; and a control unit for controlling the operation of the light source and a modulation voltage (U M ) between the electrodes ; wherein the electro-absorption modulator is capable of assuming - an absorption state, when the modulation voltage (U M ) assumes a value from a first range of values, in which at least a predominant part of sampling light emitted into the waveguide is absorbed; and - a transmission state, when the modulation voltage (U M ) assumes a value from a second range of values, in which the degree of absorption is smaller than in said absorption state; wherein the control unit is configured for controlling the generation of a sampling light pulse by - switching the modulation voltage (U M ) from said first range of values to said second range of values while the light source is on, - keeping said modulation voltage (U M ) within said second range of values for a first time interval (t), - switching the modulation voltage (U M ) back to the first range of values, and - switching off the light source prior to or after switching the modulation voltage (U M ) back to the first range of values; wherein the electro-absorption modulator is further configured for receiving reflected light pulses resulting from the reflection of sampling light pulses in the fiber , wherein the absorption of reflected light pulses in the electro-absorption modulator results in the creation of a photocurrent between the electrodes . an electro-absorption modulator comprising a waveguide and two electrodes , wherein the waveguide is arranged between the electrodes ; a light source configured for emitting sampling light into the waveguide , wherein the waveguide is connected or to be connected between the fiber and the light source ; and a control unit for controlling the operation of the light source and a modulation voltage (U M ) between the electrodes ; - an absorption state, when the modulation voltage (U M ) assumes a value from a first range of values, in which at least a predominant part of sampling light emitted into the waveguide is absorbed; and - a transmission state, when the modulation voltage (U M ) assumes a value from a second range of values, in which the degree of absorption is smaller than in said absorption state; - switching the modulation voltage (U M ) from said first range of values to said second range of values while the light source is on, - keeping said modulation voltage (U M ) within said second range of values for a first time interval (t), - switching the modulation voltage (U M ) back to the first range of values, and - switching off the light source prior to or after switching the modulation voltage (U M ) back to the first range of values;
A device comprising: at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the device to: generate , at a downstream device, a tunnel endpoint identifier for a tunnel from an upstream device to the downstream device at least in part based on a target address of an information packet to be transmitted in the tunnel; and send the tunnel endpoint identifier towards the upstream device for establishment of the tunnel.
Peptide, comprising at least one amino acid sequence, which binds to amy loid-beta species and at which the negative charge of the carboxyl group, usually present on the free C-terminus, has been removed by modification, so that there is no or a positive charge, whereby at the free C-terminus instead of the carboxyl group an acid amide group (CONH2-group) is present, com prising at least one peptide as monomer with the amino-acid sequence according to SEQ ID NO: 1 and homologs thereof with an identity of at least 83 % and fragments and parts thereof.
A method for producing an orotic acid derivative, comprising: a condensation step of performing, under a basic condition in a water-containing solvent, a condensation reaction between an orotic acid halide represented by General Formula (I) and a compound represented by General Formula (II) to generate an orotic acid derivative represented by General Formula (III), wherein the compound represented by General Formula (II) is glutamic acid; and a neutralization crystallization step of precipitating crystals of orotic acid by neutralization crystallization to separate an aqueous phase containing the orotic acid derivative from the crystals of orotic acid, after the condensation step, wherein the pH of the aqueous phase is set to 4 to 6 in the neutralization crystallization step, wherein X is a halogen atom, and A is a group represented by General Formula (A-1); wherein -NR 1 R 2 represents the glutamic acid residue, wherein R 1 is a hydrogen atom and * is a bonding position at which the hydrogen atom in General Formula (II) is bonded. a condensation step of performing, under a basic condition in a water-containing solvent, a condensation reaction between an orotic acid halide represented by General Formula (I) and a compound represented by General Formula (II) to generate an orotic acid derivative represented by General Formula (III), wherein the compound represented by General Formula (II) is glutamic acid; and a neutralization crystallization step of precipitating crystals of orotic acid by neutralization crystallization to separate an aqueous phase containing the orotic acid derivative from the crystals of orotic acid, after the condensation step, wherein the pH of the aqueous phase is set to 4 to 6 in the neutralization crystallization step, wherein X is a halogen atom, and A is a group represented by General Formula (A-1); wherein -NR 1 R 2 represents the glutamic acid residue, wherein R 1 is a hydrogen atom and * is a bonding position at which the hydrogen atom in General Formula (II) is bonded.
A levelling system with joint for furniture and/or furnishing items (M) with a bottom and shoulders , said system comprising, in combination: at least one front-foot unit and at least one rear-foot unit , wherein said at least one front-foot unit or rear-foot unit has a height adjustment mechanism which is accessible from the outside of the foot and can be manoeuvred by means of a tool , to which a joining group (G) is added, wherein said system provides that in said at least one front-foot unit and at least one rear-foot unit the adjustment mechanism can be actuated from the front by means of a tool or screwdriver, wherein a body of at least one front-foot unit provides a pair of adjacent holes , one for actuating said height adjustment mechanism of said at least one front-foot unit and the other passing through said body to act as a support and guide for said tool for actuating said height adjustment mechanism of said at least one rear-foot unit , it being further provided that said joining group (G) can be manoeuvred by means of a tool which can be inserted in a hole formed in the bottom and aligned with each of said at least one front-foot unit and rear-foot unit , characterized in that each body of said at least one front-foot unit and at least one rear-foot unit extends above into an integrated barrel which becomes part of said joining group (G), said joining group (G) provides that said barrel engages in a pin inserted in said shoulder and said bottom with a blocking grub screw which can be screwed into said barrel with said tool passing through the hole in the bottom, said blocking grub screw is screwed into a vertical internal threaded hole of the barrel , said system comprises said barrel , said pin and said blocking grub screw .