mhurhangee/ep-ind-claims huggingface dataset:
Reed for weaving looms having a maximum pitch of 1/8 mm having the following features a) at least two dents, wherein the dents extend predominantly in their longitudinal direction and are arranged next to one another in their width direction, which runs perpendicular to the longitudinal direction to form a dent intermediate space, b) wherein the at least two dents each have two end faces which delimit the respective dent in its height direction which runs perpendicular to its longitudinal direction and its width direction and which are spaced apart from one another in this height direction, c) at least two profile rods, which form a functional pair which abut against the at least two end faces and are located opposite one another in pairs in the height direction, d) at least one binding means which at least partially wraps around and draws together the at least two opposite profile rods forming a functional pair, e) wherein the binding means runs at least in sections in the dent intermediate space between the at least two dents, f) and the binding means is a textile yarn comprising a plurality of filaments, g) wherein at at least one point at which it comes in direct contact with at least one of the profile rods the textile yarn has a greater width in the width direction than in the regions which lie between the profile rods in the height direction. a) at least two dents, wherein the dents extend predominantly in their longitudinal direction and are arranged next to one another in their width direction, which runs perpendicular to the longitudinal direction to form a dent intermediate space, b) wherein the at least two dents each have two end faces which delimit the respective dent in its height direction which runs perpendicular to its longitudinal direction and its width direction and which are spaced apart from one another in this height direction, c) at least two profile rods, which form a functional pair which abut against the at least two end faces and are located opposite one another in pairs in the height direction, d) at least one binding means which at least partially wraps around and draws together the at least two opposite profile rods forming a functional pair, e) wherein the binding means runs at least in sections in the dent intermediate space between the at least two dents, f) and the binding means is a textile yarn comprising a plurality of filaments, g) wherein at at least one point at which it comes in direct contact with at least one of the profile rods the textile yarn has a greater width in the width direction than in the regions which lie between the profile rods in the height direction.
A shield (121, 300, 421, 521) configured to be rotatably coupled to a chamber body of a process chamber (100, 400, 500) of an apparatus for processing substrates in the process chamber (100, 400, 500), the shield (121, 300, 421, 521) having at least one hole (352, 552) and at least one shunt (354, 454), wherein the at least one hole (352, 552) is configured to expose at least one of a plurality of targets (110, 112, 660) to be sputtered, and wherein the at least one shunt (354, 454) is configured to shield at least one of a plurality of targets (110, 112, 660) not to be sputtered, and made of a material that inhibits magnetic radiation from permeating an interior volume of the chamber body, wherein the shield (121, 300, 421, 521) is configured to rotate about and linearly move along a central axis of the process chamber (100, 400, 500). the shield (121, 300, 421, 521) having at least one hole (352, 552) and at least one shunt (354, 454), wherein the at least one hole (352, 552) is configured to expose at least one of a plurality of targets (110, 112, 660) to be sputtered, and wherein the at least one shunt (354, 454) is configured to shield at least one of a plurality of targets (110, 112, 660) not to be sputtered, and made of a material that inhibits magnetic radiation from permeating an interior volume of the chamber body, wherein the shield (121, 300, 421, 521) is configured to rotate about and linearly move along a central axis of the process chamber (100, 400, 500).
A pressure reducing valve that reduces a pressure of a fluid at an input port and then delivers the fluid to an output port, the pressure reducing valve comprising: a housing having the input port, an input channel connected to the input port, a pressure reducing chamber connected to the input channel, a delivery channel connected to the pressure reducing chamber, an output channel and auxiliary channels including a first auxiliary channel and a second auxiliary channel branched off from the delivery channel, the output port connected to the output channel, and auxiliary ports connected to the auxiliary channels; and a valve mechanism which is provided inside the pressure reducing chamber connected to the delivery channel and of which an amount of opening is changed to regulate a pressure inside the pressure reducing chamber, wherein centerlines of the delivery channel, the output channel, and the first auxiliary channel are arranged in the same plane (X-Y PLANE), and centerlines of the output channel, the first auxiliary channel and the second auxiliary channel are arranged in the same plane (Y-Z PLANE) orthogonal to the plane (X-Y PLANE) of the centerlines of the delivery channel, the output channel, and the first auxiliary channel. a housing having the input port, an input channel connected to the input port, a pressure reducing chamber connected to the input channel, a delivery channel connected to the pressure reducing chamber, an output channel and auxiliary channels including a first auxiliary channel and a second auxiliary channel branched off from the delivery channel, the output port connected to the output channel, and auxiliary ports connected to the auxiliary channels; and a valve mechanism which is provided inside the pressure reducing chamber connected to the delivery channel and of which an amount of opening is changed to regulate a pressure inside the pressure reducing chamber, wherein centerlines of the delivery channel, the output channel, and the first auxiliary channel are arranged in the same plane (X-Y PLANE), and centerlines of the output channel, the first auxiliary channel and the second auxiliary channel are arranged in the same plane (Y-Z PLANE) orthogonal to the plane (X-Y PLANE) of the centerlines of the delivery channel, the output channel, and the first auxiliary channel.
Coffee brewing apparatus, comprising an entrance opening for receiving coffee beans, a grinder for grinding coffee beans which have entered the coffee brewing apparatus via the entrance opening, a ground coffee transportation path for transporting ground coffee from the grinder to a brewing device, a brewing device for brewing coffee on the basis of the delivered ground coffee, and an air ventilation system, characterized in that the air ventilation system is in fluid connection with the grinder for providing at least one air stream comprising at least a coffee grinding aroma to the outside of the coffee brewing apparatus and preferably in the direction of a user of the apparatus, and in that the air ventilation system comprises at least one fan and at least one air stream guiding element, which is at least partially providing a flow path for the air stream from the grinder to the fan.
A method for preparing rutile TiO 2 nanoparticles which are aggregates of elongated TiO 2 crystallites comprising: (a) forming an aqueous solution of a soluble titanium compound at a titanium concentration of from 0.5 to 1.0 moles per liter, optionally in the presence of a mineral acid; (b) introducing a morphology controlling agent or a mixture thereof selected from (i) an α-hydroxy carboxylic acid of the formula R-CH COOH, (ii) an α-hydroxy carboxamide of the formula R-CH CONH 2 or (iii) an α-amino acid of the formula R-CH(NH 2)COOH, wherein R is an alkane, alkene, alkyne, arene, or cycloalkane group having 6 or more carbon atoms, into the solution at an acid- or carboxamide-to-titanium molar ratio of from 0.02 to 0.2 while simultaneously heating the solution to a temperature in the range of from 60°C to 80°C with constant stirring; (d) introducing TiO 2 seeds into the stirred solution at a seed-to-TiO 2 molar ratio of from 0.0005 to 0.0015 and maintaining the stirred solution at a temperature in the range of from 60°C to 80°C for a period of from one to 3 hours; (e) elevating the temperature of the stirred solution to a value of from 100°C to the refluxing temperature and maintaining said temperature for a period of from 2 hours to 4 hours to form a reaction product; (f) cooling the reaction mixture which results from step (e) to room or ambient temperature; (g) optionally neutralizing the reaction mixture; and (h) separating and drying the reaction product. (a) forming an aqueous solution of a soluble titanium compound at a titanium concentration of from 0.5 to 1.0 moles per liter, optionally in the presence of a mineral acid; (b) introducing a morphology controlling agent or a mixture thereof selected from (i) an α-hydroxy carboxylic acid of the formula R-CH COOH, (ii) an α-hydroxy carboxamide of the formula R-CH CONH 2 or (iii) an α-amino acid of the formula R-CH(NH 2)COOH, wherein R is an alkane, alkene, alkyne, arene, or cycloalkane group having 6 or more carbon atoms, into the solution at an acid- or carboxamide-to-titanium molar ratio of from 0.02 to 0.2 while simultaneously heating the solution to a temperature in the range of from 60°C to 80°C with constant stirring; (d) introducing TiO 2 seeds into the stirred solution at a seed-to-TiO 2 molar ratio of from 0.0005 to 0.0015 and maintaining the stirred solution at a temperature in the range of from 60°C to 80°C for a period of from one to 3 hours; (e) elevating the temperature of the stirred solution to a value of from 100°C to the refluxing temperature and maintaining said temperature for a period of from 2 hours to 4 hours to form a reaction product; (f) cooling the reaction mixture which results from step (e) to room or ambient temperature; (g) optionally neutralizing the reaction mixture; and (h) separating and drying the reaction product.
Method for determining at least one amount of energy of an individual vehicle, which one of several vehicles has taken from a power supply network outside of the vehicle by way of a contact wire, characterised in that the amount of energy is determined by measurements on the power supply network side.
An air purifier for purifying air in an environment comprising a body; an air inlet opening provided on the body for receiving air from the environment; a fan which enables the received air to be directed through the air inlet opening into the body; an air outlet opening which enables the air purified in the body to be released out of the body; a CO 2 absorbing unit into which the received air is sucked; a base dosing unit and an acid dosing unit, both being connected to the CO 2 absorbing unit and which supply respectively a base solution and an acid solution into the CO 2 absorbing unit; a CO 2 tube enabling the CO 2 retained in the CO 2 absorbing unit to be discharged out of the environment; an electrodialysis unit to which salt created in the CO 2 absorbing unit is delivered and resolved back to form acid and base, and hydrogen gas is released; a condenser which condenses the humidity in the environment into water; and a water electrolysis unit connected to the condenser such that condensed water is received from the condenser by the electrolysis unit, wherein the water received from the condenser is electrolyzed, the electrolysis unit comprising an anode receptacle where O 2 is released and a cathode receptacle where H 2 is released, characterized by a combustion chamber which is connected to the water electrolysis unit and the electrodialysis unit to receive hydrogen gas from the water electrolysis unit and the electrodialysis unit, and wherein the hydrogen generated during the water electrolysis and electrodialysis processes is combusted.
A method for preventing a non-trusted virtual machine from reading the graphical output of a trusted virtual machine, comprising: receiving, by a graphics manager executed by a processor of a computing device, a request from a trusted virtual machine executed by the computing device to render graphical data using a graphics processing unit of the computing device, the method characterized by: assigning, by the graphics manager to the trusted virtual machine, a secure section of a memory of the graphics processing unit; rendering, by the graphics manager, graphics from the trusted virtual machine graphical data to the secure section of the graphics processing unit memory; receiving, by the graphics manager, a request from a non-trusted virtual machine executed by the computing device to read graphics rendered from the trusted virtual machine graphical data and stored in the secure section of the graphics processing unit memory; and preventing, by the graphics manager, the non-trusted virtual machine from reading the trusted virtual machine rendered graphics stored in the secure section of the graphics processing unit memory. receiving, by a graphics manager executed by a processor of a computing device, a request from a trusted virtual machine executed by the computing device to render graphical data using a graphics processing unit of the computing device, the method characterized by: assigning, by the graphics manager to the trusted virtual machine, a secure section of a memory of the graphics processing unit; rendering, by the graphics manager, graphics from the trusted virtual machine graphical data to the secure section of the graphics processing unit memory; receiving, by the graphics manager, a request from a non-trusted virtual machine executed by the computing device to read graphics rendered from the trusted virtual machine graphical data and stored in the secure section of the graphics processing unit memory; and preventing, by the graphics manager, the non-trusted virtual machine from reading the trusted virtual machine rendered graphics stored in the secure section of the graphics processing unit memory. assigning, by the graphics manager to the trusted virtual machine, a secure section of a memory of the graphics processing unit; rendering, by the graphics manager, graphics from the trusted virtual machine graphical data to the secure section of the graphics processing unit memory; receiving, by the graphics manager, a request from a non-trusted virtual machine executed by the computing device to read graphics rendered from the trusted virtual machine graphical data and stored in the secure section of the graphics processing unit memory; and preventing, by the graphics manager, the non-trusted virtual machine from reading the trusted virtual machine rendered graphics stored in the secure section of the graphics processing unit memory.
A method of preparing a brominated elastomer, the method comprising: a. polymerizing a C 4 to C 7 isomonoolefin and at least one polymerizable unit to obtain a C 4 to C 7 isomonoolefin derived elastomer; b. adding a first portion of a Mooney stabilizer to the C 4 to C 7 isomonoolefin derived elastomer, wherein the Mooney stabilizer is a free-radical stabilizer, a free radical scavenger, or an antioxidant; c. contacting the C 4 to C 7 isomonoolefin derived elastomer with a brominating agent and an emulsion in a bromination unit to form a brominated elastomer effluent, wherein an optional portion of the Mooney stabilizer is added to the bromination unit wherein the emulsion comprises an oxidizing agent, water, solvent, and surfactant; d. adding a portion of the Mooney stabilizer to the brominated elastomer effluent; e. neutralizing the brominated elastomer effluent with a neutralizing agent and water to form a neutralized effluent, wherein an optional portion of the Mooney stabilizer is added to the neutralized effluent; f. volatizing a hydrocarbon solvent from the neutralizing effluent to form a brominated elastomer slurry; g. recovering a brominated elastomer from the brominated elastomer slurry, wherein an optional portion of the Mooney stabilizer is added to the brominated elastomer. a. polymerizing a C 4 to C 7 isomonoolefin and at least one polymerizable unit to obtain a C 4 to C 7 isomonoolefin derived elastomer; b. adding a first portion of a Mooney stabilizer to the C 4 to C 7 isomonoolefin derived elastomer, wherein the Mooney stabilizer is a free-radical stabilizer, a free radical scavenger, or an antioxidant; c. contacting the C 4 to C 7 isomonoolefin derived elastomer with a brominating agent and an emulsion in a bromination unit to form a brominated elastomer effluent, wherein an optional portion of the Mooney stabilizer is added to the bromination unit wherein the emulsion comprises an oxidizing agent, water, solvent, and surfactant; d. adding a portion of the Mooney stabilizer to the brominated elastomer effluent; e. neutralizing the brominated elastomer effluent with a neutralizing agent and water to form a neutralized effluent, wherein an optional portion of the Mooney stabilizer is added to the neutralized effluent; f. volatizing a hydrocarbon solvent from the neutralizing effluent to form a brominated elastomer slurry; g. recovering a brominated elastomer from the brominated elastomer slurry, wherein an optional portion of the Mooney stabilizer is added to the brominated elastomer.
A helicopter, comprising: at least one flight instrument collecting flight instrument data; a hard landing indicator; and a processor coupled to the at least one flight instrument and the hard landing indicator, the processor configured to: determine if the helicopter is in the landing phase based upon the flight instrument data; determine, when the helicopter is in a landing phase, a descent condition of the helicopter based upon the flight instrument data and a position of a rotor of the helicopter; and issue a hard landing warning via the hard landing indicator if the descent condition indicates a potential hard landing before the helicopter has landed. at least one flight instrument collecting flight instrument data; a hard landing indicator; and a processor coupled to the at least one flight instrument and the hard landing indicator, the processor configured to: determine if the helicopter is in the landing phase based upon the flight instrument data; determine, when the helicopter is in a landing phase, a descent condition of the helicopter based upon the flight instrument data and a position of a rotor of the helicopter; and issue a hard landing warning via the hard landing indicator if the descent condition indicates a potential hard landing before the helicopter has landed. determine if the helicopter is in the landing phase based upon the flight instrument data; determine, when the helicopter is in a landing phase, a descent condition of the helicopter based upon the flight instrument data and a position of a rotor of the helicopter; and issue a hard landing warning via the hard landing indicator if the descent condition indicates a potential hard landing before the helicopter has landed.
An apparatus for the use of controlling a puppet, comprising: a mounting plate defining at least one aperture; at least one ball with a through hole, disposed to rest within the aperture of the mounting plate; at least one rod having a first end, extending through the mounting plate and the ball to a second end thereof; a ball brace defining at least one aperture, configured to engage the ball and the rod, engaging the rod between the first end and the second end; at least one screw, disposed to engage the mounting plate, configured to be tightened to lock the ball brace and the ball in a desired position, and configured to be loosened to enable movement of the ball and the rod; wherein the rod is configured to extend through the ball brace, the ball, and the aperture of the mounting plate and to engage with an inside of a puppet with the first end; and wherein the rod, when engaged with the inside of the puppet, moves the inside of the puppet when moved from the second end. a mounting plate defining at least one aperture; at least one ball with a through hole, disposed to rest within the aperture of the mounting plate; at least one rod having a first end, extending through the mounting plate and the ball to a second end thereof; a ball brace defining at least one aperture, configured to engage the ball and the rod, engaging the rod between the first end and the second end; at least one screw, disposed to engage the mounting plate, configured to be tightened to lock the ball brace and the ball in a desired position, and configured to be loosened to enable movement of the ball and the rod; wherein the rod is configured to extend through the ball brace, the ball, and the aperture of the mounting plate and to engage with an inside of a puppet with the first end; and wherein the rod, when engaged with the inside of the puppet, moves the inside of the puppet when moved from the second end.
A packaged light emitting diode die comprising: an LED die comprising a plurality of epitaxially grown layers and at least one metal electrode (26,28) on a bottom surface of the LED die, the LED die having a top surface for emitting light and side surfaces, and wherein the at least one metal electrode (26,28) on the bottom surface of the LED die is not bonded to a submount; and a package for the LED die comprising an integral molded material that encapsulates at least the top surface and side surfaces of the LED die and forms a lens over the top surface of the LED die, the molded material not covering the bottom surface of the at least one metal electrode (26, 28) of the LED die, characterised in that the packaged LED die further comprises a reflective layer on a bottom surface of the package. an LED die comprising a plurality of epitaxially grown layers and at least one metal electrode (26,28) on a bottom surface of the LED die, the LED die having a top surface for emitting light and side surfaces, and wherein the at least one metal electrode (26,28) on the bottom surface of the LED die is not bonded to a submount; and a package for the LED die comprising an integral molded material that encapsulates at least the top surface and side surfaces of the LED die and forms a lens over the top surface of the LED die, the molded material not covering the bottom surface of the at least one metal electrode (26, 28) of the LED die, characterised in that the packaged LED die further comprises a reflective layer on a bottom surface of the package.