mhurhangee/ep-ind-claims huggingface dataset:
A linear knitting machine comprising at least one yarn feed device comprising a pad able to slide in the striping bar track, a yarn feeder comprising a downward-pointing tip able to guide a yarn toward the needles of the knitting machine, and a connection with connecting means (7, 10) in order to remotely link a driving means performing a first function for longitudinal movement of the yarn feed device in its track, the yarn feeder having a movable connection with respect to the pad so as to be able to position the tip of the yarn feeder just above the knitting heads in a first knitting configuration and away from the knitting zone in a second non-knitting configuration, the driving means being positioned laterally relative to the knitting machine, such that it does not hinder the feed of the yarns from above the sections of the knitting machine, and performing a second function for movement of the yarn feeder relative to the pad in order to free the tip of the yarn feeder from the knitting zone above the sections, characterized in that the yarn feeder is mounted movably in vertical translation on the shoe and the driving means comprises an actuator for performing the second function, said actuator being connected to the yarn feeder by a tie rod such that the yarn feeder rests and can slide on the tie rod, the actuator being able to modify the vertical position of the tie rod in order to modify the vertical position of the yarn feeder.
A propulsion unit having a thrust nozzle, a combustion chamber and a thermal insulation (3, 4) between the outer structure and the thrust nozzle and/or the combustion chamber, wherein the thermal insulation (3, 4) comprises at least one layer of a microporous insulation material and an inner layer facing the thrust nozzle, characterized in that the thermal insulation (3, 4) has a reflective metal outer sheath provided with a pattern by means of which the thermal insulation (3, 4) is encased in a chamber.
An elevator governor, comprising: a core ring assembly including: a first portion and a second portion of a core ring which are axially arranged, the first portion and the second portion of the core ring having contact surfaces therebetween; and a pressure generation mechanism for generating a pressure between the first portion and the second portion of the core ring, wherein the first portion of the core ring rotates by receiving an actuation torque from an over-speed actuating mechanism, and the second portion of the core ring rotates by virtue of friction of the contact surfaces and enables a safety activating module, characterized in that the contact surfaces between the first portion and the second portion of the core ring are conical surfaces. a first portion and a second portion of a core ring which are axially arranged, the first portion and the second portion of the core ring having contact surfaces therebetween; and a pressure generation mechanism for generating a pressure between the first portion and the second portion of the core ring, wherein the first portion of the core ring rotates by receiving an actuation torque from an over-speed actuating mechanism, and the second portion of the core ring rotates by virtue of friction of the contact surfaces and enables a safety activating module, characterized in that the contact surfaces between the first portion and the second portion of the core ring are conical surfaces.
A method of modifying a surface of a medical device comprising the steps: forming one or more holes (102, 104) in the surface (106, 108A, 108B) of the medical device; first loading at least one of the one or more holes (102, 104) with a first drug; and first irradiating an exposed surface of the first drug in at least one loaded hole (102, 104) with a first accelerated and focused Neutral Beam from which charged particles have been separated to form a first barrier layer at the exposed surface (106, 108A, 108B). forming one or more holes (102, 104) in the surface (106, 108A, 108B) of the medical device; first loading at least one of the one or more holes (102, 104) with a first drug; and first irradiating an exposed surface of the first drug in at least one loaded hole (102, 104) with a first accelerated and focused Neutral Beam from which charged particles have been separated to form a first barrier layer at the exposed surface (106, 108A, 108B).
An electromagnetically operated switch valve, comprising: - a magnetic drive, comprising a magnetic coil with a central axis and a magnetic armature movable along the central axis by a stroke between an initial position (s 0) and an end position (s 1), said armature forming, together with a stationary casing, a magnetic circuit and being movable from its initial position (s 0) into its end position (s 1) toward a pole member of the stationary casing due to electromagnetic forces upon energizing of the magnetic coil, - a control with which the level of the energizing of the magnetic coil is controllable, and - a flow opening with a sealing seat, a sealing element for closing the flow opening, wherein the sealing element is coupled with the magnetic armature or formed by the magnetic armature, and an elastic sealing area formed from an elastomeric material arranged on the sealing element or on the sealing seat, characterized in that the magnetic drive possesses a magnetic force-stroke curve which altogether tends upwards starting out from the initial position (s 0) of the magnetic armature up to the end position (s 1) of the magnetic armature, and that the control is set up to increase or reduce or both increase and reduce the energizing of the coil during the motion of the magnetic armature between its initial position (s 0) and its end position (s 1). - a magnetic drive, comprising a magnetic coil with a central axis and a magnetic armature movable along the central axis by a stroke between an initial position (s 0) and an end position (s 1), said armature forming, together with a stationary casing, a magnetic circuit and being movable from its initial position (s 0) into its end position (s 1) toward a pole member of the stationary casing due to electromagnetic forces upon energizing of the magnetic coil, - a control with which the level of the energizing of the magnetic coil is controllable, and - a flow opening with a sealing seat, a sealing element for closing the flow opening, wherein the sealing element is coupled with the magnetic armature or formed by the magnetic armature, and an elastic sealing area formed from an elastomeric material arranged on the sealing element or on the sealing seat,
A loader device for densifying porous preforms of stackable shape by means of directed stream chemical vapor infiltration in a reaction chamber of an infiltration oven, the device being characterized in that it comprises: · a support tray; · a first stack comprising a plurality of bottom rings arranged on the support tray, each bottom ring having a plurality of injection orifices (1401; 1411; 1421; 1431; 1441) extending between the outer periphery and the inner periphery of each ring; · a second stack comprising a plurality of top rings, each top ring having a plurality of discharge orifices (1501; 1511; 1521; 1531; 1541) extending between the outer periphery and inner periphery of each ring; · a first non-porous wall of shape and dimensions identical to the shape and dimensions of the porous preforms for densifying, said first non-porous wall being arranged on the support tray inside the bottom rings of the first stack and extending between the support tray and the top ring situated at the base of the second stack; and · a second non-porous wall of shape and dimensions identical to the shape and dimensions of the porous preforms for densifying, said second non-porous wall extending between the bottom ring situated at the top of the first stack and the top ring situated at the top of the second stack. · a support tray; · a first stack comprising a plurality of bottom rings arranged on the support tray, each bottom ring having a plurality of injection orifices (1401; 1411; 1421; 1431; 1441) extending between the outer periphery and the inner periphery of each ring; · a second stack comprising a plurality of top rings, each top ring having a plurality of discharge orifices (1501; 1511; 1521; 1531; 1541) extending between the outer periphery and inner periphery of each ring; · a first non-porous wall of shape and dimensions identical to the shape and dimensions of the porous preforms for densifying, said first non-porous wall being arranged on the support tray inside the bottom rings of the first stack and extending between the support tray and the top ring situated at the base of the second stack; and · a second non-porous wall of shape and dimensions identical to the shape and dimensions of the porous preforms for densifying, said second non-porous wall extending between the bottom ring situated at the top of the first stack and the top ring situated at the top of the second stack.
A fatty acid according to formula I: where n is greater than or equal to 4, R 1 = (CH 2) k -CH 3 where k = 0, 1, 2 or 3, R 2 = (CH 2) m -CH 3 where m = 0, 1, 2, 3 or 4, R 3 = hydrogen or (CH 2) p -CH 3 where p = 0, 1, 2, 3 or 4 and R 4 = OH, SH, NH, coenzyme A (thioester), phosphatidylcholine, phosphatidylethanolamine, phosphatidylglycerol, phosphatidylserine, phosphatidylinositol, sphingobases, substituted or unsubstituted, unsaturated or saturated, branched or unbranched C 1 -C 10 -alkyl, a residue of formula II: or a residue of formula III: where R 5 = hydrogen, phosphatidylcholine, phosphatidylethanolamine, phosphatidylglycerol, phosphatidylserine, phosphatidylinositol, or saturated or unsaturated C 2 -C 24 -alkylcarbonyl, R 6 = hydrogen, saturated or unsaturated C 2 -C 24 -alkylcarbonyl, R 7 = hydrogen, phosphatidylcholine, phosphatidylethanolamine, phosphatidylglycerol, phosphatidylserine, phosphatidylinositol, or saturated or unsaturated C 2 -C 24 -alkylcarbonyl. where n is greater than or equal to 4, R 1 = (CH 2) k -CH 3 where k = 0, 1, 2 or 3, R 2 = (CH 2) m -CH 3 where m = 0, 1, 2, 3 or 4, R 3 = hydrogen or (CH 2) p -CH 3 where p = 0, 1, 2, 3 or 4 and R 4 = OH, SH, NH, coenzyme A (thioester), phosphatidylcholine, phosphatidylethanolamine, phosphatidylglycerol, phosphatidylserine, phosphatidylinositol, sphingobases, substituted or unsubstituted, unsaturated or saturated, branched or unbranched C 1 -C 10 -alkyl, a residue of formula II: or a residue of formula III: where R 5 = hydrogen, phosphatidylcholine, phosphatidylethanolamine, phosphatidylglycerol, phosphatidylserine, phosphatidylinositol, or saturated or unsaturated C 2 -C 24 -alkylcarbonyl, R 6 = hydrogen, saturated or unsaturated C 2 -C 24 -alkylcarbonyl, R 7 = hydrogen, phosphatidylcholine, phosphatidylethanolamine, phosphatidylglycerol, phosphatidylserine, phosphatidylinositol, or saturated or unsaturated C 2 -C 24 -alkylcarbonyl.
A method for producing a SiC single crystal in which a seed crystal substrate is contacted with a Si-C solution that is placed in a crucible and has a temperature gradient such that the temperature decreases from the interior toward the liquid surface level to cause crystal growth of the SiC single crystal, wherein: the crucible has a cover at the top of the crucible and the depth/inner diameter ratio of the crucible is 0.3 to 1.14, the side wall of the crucible is heated by a heater situated surrounding the crucible, the crucible is a graphite crucible, characterized in that the temperature gradient in the range from the liquid surface level of the Si-C solution to 10 mm below the liquid surface level is 47°C/cm to 70°C/cm, and Cr and Ni are loaded into the crucible in addition to Si. the crucible has a cover at the top of the crucible and the depth/inner diameter ratio of the crucible is 0.3 to 1.14, the side wall of the crucible is heated by a heater situated surrounding the crucible, the crucible is a graphite crucible, characterized in that the temperature gradient in the range from the liquid surface level of the Si-C solution to 10 mm below the liquid surface level is 47°C/cm to 70°C/cm, and Cr and Ni are loaded into the crucible in addition to Si.
A main-load bearing skin shell for a structural component of a flow body, wherein the skin shell is constructed as a sandwich and comprises an inner skin section (11, 31, 51), an outer skin section (12, 32, 52) and a shear-force-absorbing core layer which is situated between said skin sections and which areally connects the inner and the outer skin section (11, 31, 51; 12, 32, 52), wherein in the skin shell in the core layer several reinforcement devices (10; 10a, 10b, 10c, 10d; 10e, 10f) are integrated which in each case project through at least 85% of the shear-force-absorbing core layer in their thickness direction in order to improve the crack resistance of the skin shell and/or to achieve a limitation of existing or arising damage, characterized in that the shear-force-absorbing core layer comprises several core layer sections that are arranged one beside the other in the longitudinal extension of the foam layer, which core layer sections in each case on the contacting sides are interconnected by a core layer reinforcement region that extends across the longitudinal direction of the core layer through said core layer, wherein the reinforcement region comprises a material that provides at least twice the stiffness of the shear-force-absorbing core layer, and several reinforcement components (10; 10a, 10b, 10c, 10d; 10e, 10f) each at least partially project through the reinforcement region.
A workpiece processing system comprising: a robot arm to which a tool for processing a food product as a workpiece is attached; an imaging device for capturing an image of the workpiece, the robot arm being configured to process the workpiece by the tool based on results of image analysis of the captured image of the workpiece; and a tool checking device for checking the tool attached to the robot arm, the tool checking device comprising: an image control unit for controlling the imaging device so as to capture an image of the tool attached to the robot arm; an image processing unit configured to perform, on the captured image of the tool attached to the robot arm, image processing associated with a tool condition regarding a tool type or tool state that needs to be satisfied by the tool, and generate a processed image in which a related area associated with the tool condition is extracted; and a determination unit configured to determine whether the tool attached to the robot arm satisfies the tool condition, on the basis of the processed image. a robot arm to which a tool for processing a food product as a workpiece is attached; an imaging device for capturing an image of the workpiece, the robot arm being configured to process the workpiece by the tool based on results of image analysis of the captured image of the workpiece; and a tool checking device for checking the tool attached to the robot arm, the tool checking device comprising: an image control unit for controlling the imaging device so as to capture an image of the tool attached to the robot arm; an image processing unit configured to perform, on the captured image of the tool attached to the robot arm, image processing associated with a tool condition regarding a tool type or tool state that needs to be satisfied by the tool, and generate a processed image in which a related area associated with the tool condition is extracted; and a determination unit configured to determine whether the tool attached to the robot arm satisfies the tool condition, on the basis of the processed image. an image control unit for controlling the imaging device so as to capture an image of the tool attached to the robot arm; an image processing unit configured to perform, on the captured image of the tool attached to the robot arm, image processing associated with a tool condition regarding a tool type or tool state that needs to be satisfied by the tool, and generate a processed image in which a related area associated with the tool condition is extracted; and a determination unit configured to determine whether the tool attached to the robot arm satisfies the tool condition, on the basis of the processed image.
A tensioner for strap, comprising: a housing; a local power supply; a motor; a tension head; a tension wheel positioned in the tension head, the tension wheel operably connected to the motor; a nosepiece operably mounted to the tension head for movement relative to the tension wheel, the nosepiece including a pinch element, the nosepiece being biasedly mounted to bias the pinch element toward the tension wheel; an actuator handle operably connected to the nosepiece to move the pinch element toward and away from the tension wheel, characterized by the tensioner further comprising: a strap sensor positioned to sense the presence and/or absence of strap between the tension wheel and the pinch element; a home position switch; a home position switch engaging element for engaging the home position switch when the pinch element is in proximity to the tension wheel; and a controller, wherein when the nosepiece is moved away from the tension head to introduce strap between the tension wheel and the pinch element, the home position switch engaging element disengages from the home position switch changing the state of the home position switch to signal the controller to permit actuation of the motor when the strap sensor senses the presence of strap between the pinch element and the tension wheel. a housing; a local power supply; a motor; a tension head; a tension wheel positioned in the tension head, the tension wheel operably connected to the motor; a nosepiece operably mounted to the tension head for movement relative to the tension wheel, the nosepiece including a pinch element, the nosepiece being biasedly mounted to bias the pinch element toward the tension wheel; an actuator handle operably connected to the nosepiece to move the pinch element toward and away from the tension wheel, a strap sensor positioned to sense the presence and/or absence of strap between the tension wheel and the pinch element; a home position switch; a home position switch engaging element for engaging the home position switch when the pinch element is in proximity to the tension wheel; and a controller,
An impeller for a centrifugal pump, the impeller having a front shroud, a rear shroud, and one or more working vanes therebetween, the front shroud having a front face opposite to the face having the working vanes, the rear shroud having a rear face opposite to the face having the working vanes, the front shroud having an outer circumference and a plurality of front pump-out vanes attached to the front face of the shroud, the rear shroud having a plurality of rear pump-out vanes attached to the rear face of the shroud, characterized in that the front pump-out vanes are dimensioned in accordance with an equation: ∑ i = 1 z l i / D > 8, where Z is the number of front pump-out vanes, l is the vane length measured along the leading surface of each front pump-out vane, D is the outer diameter of the front shroud. Z is the number of front pump-out vanes, l is the vane length measured along the leading surface of each front pump-out vane, D is the outer diameter of the front shroud.
A cutter blade (10, 30, 40, 50, 60, 70) for a deburring apparatus for cutting out burr of a work that has a cutting edge portion (10A, 30A, 40A, 50A, 60A, 70A) corresponding to the root of burr; and a copying portion (10B, 30B, 40B, 508, 60B, 70B) which corresponds to a face portion of the work and does not constitute a cutting edge, wherein the tip position of the cutting edge (10A1, 30A1) of the cutting edge portion is located at the same position as a copying face constituting the copying portion or located to be farther away from the work than the copying face; and wherein a smoothing portion (10A2, 30A2, 70B1, 70B2, 70B3) for smoothing a portion deburred by the cutting edge portion is provided at a rear side of the cutting edge portion in a feeding direction of the cutter blade, characterized in that a lower face (10C1) of the cutting edge portion which is located at a rear side of the smoothing portion in the feeding direction is configured to be separated from the work by a predetermined angle θ.
A method for producing an episulfide compound, the method comprising thiating epoxy groups of an epoxy compound by a reaction with a thiating agent in the presence of a polyhydric hydroxyl compound selected from the group consisting of a polyhydric hydroxyl compound having two hydroxyl groups and 3 to 20 carbon atoms and having a hydroxyl value of 500 mg/g to 1870 mg/g, a polyhydric hydroxyl compound having three hydroxyl groups and 4 to 20 carbon atoms and having a hydroxyl value of 500 mg/g to 1870 mg/g, and a polyhydric hydroxyl compound having four or more hydroxyl groups and 3 to 20 carbon atoms and having a hydroxyl value of 500 mg/g to 1870 mg/g, wherein the mixing index β of the polyhydric hydroxyl compound and the thiating agent, which is represented by the following formula, is 0.020 to 0.420: Mixing index β = βt / βo wherein βt: mass (g) of the thiating agent; and βo: mass (g) of the polyhydric hydroxyl compound; and wherein the mixing index α of the epoxy compound and the thiating agent, which is represented by the following formula, is 1.5 to 4: Mixing index α = αt / αe wherein αt: amount of substance (mol) of sulfur atoms contained in the thiating agent, which atoms can be used in the production of episulfide groups; and αe: amount of substance (mol) of epoxy groups contained in the epoxy compound. wherein βt: mass (g) of the thiating agent; and βo: mass (g) of the polyhydric hydroxyl compound; and wherein αt: amount of substance (mol) of sulfur atoms contained in the thiating agent, which atoms can be used in the production of episulfide groups; and αe: amount of substance (mol) of epoxy groups contained in the epoxy compound.