mhurhangee/ep-ind-claims huggingface dataset:
Cleaning device of an exhaust-gas turbine, comprising at least one nozzle body for injecting cleaning liquid into the flow channel of an exhaust-gas turbine, wherein the nozzle body comprises multiple nozzle openings (51, 52), wherein the multiple nozzle openings (51, 52) are divided into at least one first nozzle opening and at least one second nozzle opening, wherein a first throttle point (53, 532) is arranged in a feed line for supplying the cleaning liquid to the at least one first nozzle opening, characterized in that the at least one second nozzle opening is arranged in the feed line for supplying the cleaning liquid upstream of the throttle point, such that, owing to the throttle point in the feed line for supplying the cleaning liquid, two different pressure levels are set.
A loading and unloading elevator for an autoclave sterilizer in a radioactive environment, the loading and unloading elevator comprising: a table top separating a processing space from a maintenance space; an elevation system positioned within the maintenance space; at least two elevator cart rails configured to support a cart, the elevator cart rails positioned within the processing space; and a plurality of elevator guide rails coupled to the elevator cart rails, the elevator guide rails extend from the elevation system within the maintenance space through the table top to the processing space, wherein the elevator guide rails are configured to adjust the height of the elevator cart rails. a table top separating a processing space from a maintenance space; an elevation system positioned within the maintenance space; at least two elevator cart rails configured to support a cart, the elevator cart rails positioned within the processing space; and a plurality of elevator guide rails coupled to the elevator cart rails, the elevator guide rails extend from the elevation system within the maintenance space through the table top to the processing space, wherein the elevator guide rails are configured to adjust the height of the elevator cart rails.
An electrochemical cell comprising: a first oxidant electrode for absorbing gaseous oxidant and comprising one or more active materials for reducing the gaseous oxidant; a fuel electrode for receiving a metal fuel; and a liquid ionically conductive medium, that is contained by the first oxidant electrode, for conducting ions for supporting electrochemical reactions at the fuel electrode and the first oxidant electrode, wherein the first oxidant electrode and the fuel electrode are each configured in annular form, and wherein the fuel electrode and the oxidant electrode are nested; characterized in that the cell further comprises a second oxidant electrode, the second oxidant electrode being in annular form and nested within the fuel electrode, and wherein the liquid ionically conductive medium is contained between the first oxidant electrode and the second oxidant electrode. a first oxidant electrode for absorbing gaseous oxidant and comprising one or more active materials for reducing the gaseous oxidant; a fuel electrode for receiving a metal fuel; and a liquid ionically conductive medium, that is contained by the first oxidant electrode, for conducting ions for supporting electrochemical reactions at the fuel electrode and the first oxidant electrode, wherein the first oxidant electrode and the fuel electrode are each configured in annular form, and wherein the fuel electrode and the oxidant electrode are nested; characterized in that the cell further comprises a second oxidant electrode, the second oxidant electrode being in annular form and nested within the fuel electrode, and wherein the liquid ionically conductive medium is contained between the first oxidant electrode and the second oxidant electrode.
An image processing apparatus, comprising: an image processor configured to enhance an edge of an input image, remove noise from the input image, synthesize the edge-enhanced image and the noise-removed image, and remove a high frequency from the synthesized image; and an encoder configured to pre-encode a downsized synthesized image using a predetermined quantization parameter value to obtain a pre-bit rate which is a bit rate of the pre-encoded image, set a quantization parameter value based on a comparison result of a reference bit rate and the pre-bit rate, and compress the high-frequency removed, synthesized image based on the quantization parameter value, wherein in response to determining that the pre-bit rate is greater than a downsized reference bit rate, the encoder is configured to set the quantization parameter value to be greater than the previously set predetermined quantization parameter value, the downsized reference bit rate being the reference bit rate reduced by a rate in which the synthesized image is downsized to the downsized synthesized image, wherein the encoder is configured to obtain a current bit rate of the compressed image, and in response to determining that the current bit rate is greater than the reference bit rate, the image processor is configured to increase an edge enhancement level and a noise removal level with respect to a next input image. an image processor configured to enhance an edge of an input image, remove noise from the input image, synthesize the edge-enhanced image and the noise-removed image, and remove a high frequency from the synthesized image; and an encoder configured to pre-encode a downsized synthesized image using a predetermined quantization parameter value to obtain a pre-bit rate which is a bit rate of the pre-encoded image, set a quantization parameter value based on a comparison result of a reference bit rate and the pre-bit rate, and compress the high-frequency removed, synthesized image based on the quantization parameter value, wherein in response to determining that the pre-bit rate is greater than a downsized reference bit rate, the encoder is configured to set the quantization parameter value to be greater than the previously set predetermined quantization parameter value, the downsized reference bit rate being the reference bit rate reduced by a rate in which the synthesized image is downsized to the downsized synthesized image, wherein the encoder is configured to obtain a current bit rate of the compressed image, and in response to determining that the current bit rate is greater than the reference bit rate, the image processor is configured to increase an edge enhancement level and a noise removal level with respect to a next input image.
A corona igniter, comprising: a central electrode for receiving a radio frequency voltage and emitting a radio frequency electric field to ionize a fuel-air mixture and provide a corona discharge; a shell formed of metal surrounding said central electrode and extending longitudinally along a center axis from a shell upper end to a shell lower end; an insulator disposed between said central electrode and said shell; said insulator extending longitudinally along said center axis and including an insulator nose region extending outwardly of said shell lower end; said insulator and said shell presenting a gap therebetween, said gap extending longitudinally along said center axis; a ceramic combustion seal sealing said gap between said shell and said insulator, wherein said central electrode extends longitudinally along the center axis from a terminal end to an an electrode firing end which is disposed axially outwardly of said insulator nose region, the central electrode including a corona enhancing tip at said electrode firing end, characterized in that said corona enhancing tip includes a plurality of prongs; and in that a glass material or a mixture of glass and ceramic adheres said ceramic combustion seal to at least one of said insulator and said shell. a central electrode for receiving a radio frequency voltage and emitting a radio frequency electric field to ionize a fuel-air mixture and provide a corona discharge; a shell formed of metal surrounding said central electrode and extending longitudinally along a center axis from a shell upper end to a shell lower end; an insulator disposed between said central electrode and said shell; said insulator extending longitudinally along said center axis and including an insulator nose region extending outwardly of said shell lower end; said insulator and said shell presenting a gap therebetween, said gap extending longitudinally along said center axis; a ceramic combustion seal sealing said gap between said shell and said insulator,
Method for preventing rollover in motor cycles with an anti-lock brake system in which the steps: - comparing the vehicle deceleration with a vehicle-specific threshold value, - detecting a critical deceleration if the absolute value of the vehicle deceleration is higher than the absolute value of the vehicle-specific threshold value, and - applying a special regulating mode for regulating the brake pressure to the front wheel brake or brakes if a critical deceleration is present, are carried out, and wherein, if a reduction in the normal force at the rear wheel is detected during the special regulating mode, a special regulating operation of the brake pressure, in particular a reduction in the gradient of the build up of brake pressure or maintaining of the brake pressure or a reduction phase of the brake pressure, is carried out at the front wheel brake or brakes, characterized in that the reduction in the normal force at the rear wheel is detected on the basis of a reduction in brake pressure at the rear wheel brake, and in that a reduction in brake pressure at the front wheel brake or brakes is carried out as a function of the reduction in brake pressure at the rear wheel brake. - comparing the vehicle deceleration with a vehicle-specific threshold value, - detecting a critical deceleration if the absolute value of the vehicle deceleration is higher than the absolute value of the vehicle-specific threshold value, and - applying a special regulating mode for regulating the brake pressure to the front wheel brake or brakes if a critical deceleration is present, are carried out, and wherein, if a reduction in the normal force at the rear wheel is detected during the special regulating mode, a special regulating operation of the brake pressure, in particular a reduction in the gradient of the build up of brake pressure or maintaining of the brake pressure or a reduction phase of the brake pressure, is carried out at the front wheel brake or brakes, characterized in that the reduction in the normal force at the rear wheel is detected on the basis of a reduction in brake pressure at the rear wheel brake, and in that a reduction in brake pressure at the front wheel brake or brakes is carried out as a function of the reduction in brake pressure at the rear wheel brake.
A hydrogen storage material, comprising: an alloy having a composition represented by the following Formula, [Chem. 1] La a Ce b Sm c Ni d M e where M is Mn or both of Mn and Co, a satisfies 0.60 ≤ a ≤ 0.90, b satisfies 0 ≤ b ≤ 0.30, c satisfies 0.05 ≤ c ≤ 0.25, d satisfies 4.75 ≤ d ≤ 5.20, e satisfies 0.05 ≤ e ≤ 0.40, a + b + c = 1, and d + e satisfies 5.10 ≤ d + e ≤ 5.35. an alloy having a composition represented by the following Formula, [Chem. 1] La a Ce b Sm c Ni d M e where M is Mn or both of Mn and Co, a satisfies 0.60 ≤ a ≤ 0.90, b satisfies 0 ≤ b ≤ 0.30, c satisfies 0.05 ≤ c ≤ 0.25, d satisfies 4.75 ≤ d ≤ 5.20, e satisfies 0.05 ≤ e ≤ 0.40, a + b + c = 1, and d + e satisfies 5.10 ≤ d + e ≤ 5.35.
A wireless terminal, comprising: a body housing; a first folder housing and a second folder housing adapted to pivot away from the body housing in different directions; a folder opening/closing detection module which includes magnets disposed in the wireless terminal and sensors detecting the magnets, adapted to detect opening/closing states of the first folder housing and the second folder housing, and to generate a first folder opening/closing detection signal to a fourth folder opening/closing detection signal; a first rotary-type speaker and a second rotary-type speaker rotatably mounted inside the first folder housing and the second folder housing, respectively; and a control module adapted to control functions of the rotary-type speakers (118, 119) according to the first folder opening/closing signal to the fourth folder opening/closing signal generated from the folder opening/closing detection module, wherein the wireless terminal is a mobile phone. a body housing; a first folder housing and a second folder housing adapted to pivot away from the body housing in different directions; a folder opening/closing detection module which includes magnets disposed in the wireless terminal and sensors detecting the magnets, adapted to detect opening/closing states of the first folder housing and the second folder housing, and to generate a first folder opening/closing detection signal to a fourth folder opening/closing detection signal; a first rotary-type speaker and a second rotary-type speaker rotatably mounted inside the first folder housing and the second folder housing, respectively; and a control module adapted to control functions of the rotary-type speakers (118, 119) according to the first folder opening/closing signal to the fourth folder opening/closing signal generated from the folder opening/closing detection module, wherein the wireless terminal is a mobile phone.
Method for protecting a resource, the method comprising providing a receiver (110,115), the receiver comprising a computer processor, the receiver communicating with a network and having a plurality of receiver ports; providing an initiator (120, 125), comprising a computer processor, the initiator communicating with the resource and the receiver ports (110,115); sending from the initiator to the receiver a first authentication request on the first receiver port, the first authentication request comprising a parameter shared between the receiver and the initiator (120,110); sending from the receiver (110,115) to the initiator (120,125) an identification of the second receiver port in response to a successful first authentication request; sending from the initiator (120,125) to the receiver (110,115) a second authentication request on the second receiver port; - mutually authenticating the initiator and the receiver (120,110; 115,125) via the second receiver port in response to a successful second authentication request; - establishing a streaming connection between the initiator and the receiver (120,110; 115,125) over the second receiver port in response to a successful mutual authentication; - the receiver (110,115) detecting an attempt for an unauthorized access at the second receiver port and severing the streaming connection between the initiator and the receiver (120,110; 115,125) over the second receiver port in response to the detected attempt for unauthorized access. - mutually authenticating the initiator and the receiver (120,110; 115,125) via the second receiver port in response to a successful second authentication request; - establishing a streaming connection between the initiator and the receiver (120,110; 115,125) over the second receiver port in response to a successful mutual authentication; - the receiver (110,115) detecting an attempt for an unauthorized access at the second receiver port and severing the streaming connection between the initiator and the receiver (120,110; 115,125) over the second receiver port in response to the detected attempt for unauthorized access.
Exercising device, comprising a power arm, which is able to be arranged by a first end on a retaining element at a first articulated joint in a way pivotable about a pivot axis or pin, whereby a resistance element is able to be coupled by a first end region at a first coupling point on the power arm, and by a second end region at a second coupling point at a second articulated joint on the retaining element, characterized, in that the exercising device is able to be detachably arranged on a structure by means of an engaging connection, which engaging connection is formed by a hook-shaped recess and a rod-shaped element, whereby one of the elements of the engaging connection is provided on the retaining element and whereby the exercising device is lockable in an engaged position by means of a fixation, and provided for fixing is an elastic clamping means, which enters into a snap connection with a rod-shaped element of the structure. in that the exercising device is able to be detachably arranged on a structure by means of an engaging connection, which engaging connection is formed by a hook-shaped recess and a rod-shaped element, whereby one of the elements of the engaging connection is provided on the retaining element and whereby the exercising device is lockable in an engaged position by means of a fixation, and provided for fixing is an elastic clamping means, which enters into a snap connection with a rod-shaped element of the structure.
A method of recovering gold, and optionally silver, from a gold-bearing, and optionally silver-bearing, double refractory raw material, comprising the steps of (a) leaching the gold-bearing, and optionally silver-bearing, double refractory raw material in a chloride containing leaching solution to dissolve gold, and optionally silver, and to obtain a leach solution comprising gold, and optionally silver, in solution, whereby the redox of leaching solution in the leaching step is above 550 mV vs. Ag/AgCl; and simultaneously contacting the leach solution comprising gold, and optionally silver, in solution with a re-sorptive material to obtain a gold-containing, and optionally silver-containing, re-sorptive material; and (b) recovering gold, and optionally silver, from the gold-containing, and optionally silver-containing, re-sorptive material. (a) leaching the gold-bearing, and optionally silver-bearing, double refractory raw material in a chloride containing leaching solution to dissolve gold, and optionally silver, and to obtain a leach solution comprising gold, and optionally silver, in solution, whereby the redox of leaching solution in the leaching step is above 550 mV vs. Ag/AgCl; and simultaneously contacting the leach solution comprising gold, and optionally silver, in solution with a re-sorptive material to obtain a gold-containing, and optionally silver-containing, re-sorptive material; and (b) recovering gold, and optionally silver, from the gold-containing, and optionally silver-containing, re-sorptive material.
A process for the production of an ethylene alpha-olefin copolymer comprising: polymerizing ethylene and an alpha-olefin by contacting the ethylene and at least one other alpha-olefin with a supported metallocene catalyst in a gas phase reactor at a reactor pressure of from 0.7 to 70 bar and a reactor temperature of from 20 to 150oC to form an ethylene alpha-olefin copolymer wherein the metallocene is selected from the group consisting of bis(n-propylcyclopentadienyl)hafnium X n, bis(n-butylcyclopentadienyl)hafnium X n, bis(n-pentylcyclopentadienyl)hafnium X n, (n-propyl cyclopentadienyl)(n-butylcyclopentadienyl)hafnium X n, bis[(2-trimethylsilylethyl)cyclopentadienyl]hafnium X n, (bis(trimethylsilylcyclopentadienyl)hafnium X n, dimethylsilylbis(n-propylcyclopentadienyl)hafnium X n, dimethylsilylbis(n-butylcyclopentadienyl)hafnium X n, bis(1-n-propyl-2-methylcyclopentadienyl)hafnium X n, (n-propylcyclopentadienyl)(1-n-propyl-3-n-butylcyclopentadienyl)hafnium X n; wherein X is selected from the group consisting of halogen ions, hydrides, C 1-12 alkyls, C 2-12 alkenyls, C 6-12 aryls, C 7-20 alkylaryls, C 1-12 alkoxys, C 6-16 aryloxys, C 7-18 alkylaryloxys, C 1-12 fluoroalkyls, C 6-12 fluoraryls, and C 1-12 heteroatom-containing hydrocarbons, substituted derivatives thereof, and combinations thereof; and wherein n is zero or an integer from 1 to 4, wherein the ethylene alpha-olefin copolymer satisfies the following conditions: a) a density of from 0.927 to 0.970 g/cc as measured by ASTM-D-4703 and ASTM-D-1505; b) a melt index of from 0.7 to 200 dg/min as measured by ASTM-D-1238-E (190°C, 2.16kg weight); c) a melt flow ratio I 21 /I 2, wherein I 21 is determined by ASTM-D-1238, condition F, (190°C, 2,16 kg weight), from 15 to 25; and d) an ESCR value of 1000 or greater, as measured in accordance with ASTM D-1693, condition B; e) a 1 % secant modulus of 525 MPa (75,000 psi) or greater; and f) a molecular weight distribution of greater than 2.2 and less than 3.5, wherein the copolymer has a differential scanning calorimetry peak melt temperature represented by a single peak. a) a density of from 0.927 to 0.970 g/cc as measured by ASTM-D-4703 and ASTM-D-1505; b) a melt index of from 0.7 to 200 dg/min as measured by ASTM-D-1238-E (190°C, 2.16kg weight); c) a melt flow ratio I 21 /I 2, wherein I 21 is determined by ASTM-D-1238, condition F, (190°C, 2,16 kg weight), from 15 to 25; and d) an ESCR value of 1000 or greater, as measured in accordance with ASTM D-1693, condition B; e) a 1 % secant modulus of 525 MPa (75,000 psi) or greater; and f) a molecular weight distribution of greater than 2.2 and less than 3.5, wherein the copolymer has a differential scanning calorimetry peak melt temperature represented by a single peak.
Method for reclaiming at least one substance from an insulation medium of an electrical apparatus for the generation, transmission, distribution and/or usage of electrical energy, the insulation medium comprising an organofluorine compound and at least one further component in gaseous phase, the method comprising the subsequent steps of: a) transferring an initial gas mixture containing the organofluorine compound and at least one further component of the insulation medium out of an insulation space of the electrical apparatus into a substance reclaiming device, b) liquefying the organofluorine compound in the substance reclaiming device by b1) compressing the initial gas mixture, and b2) cooling the compressed initial gas mixture down to a temperature at which the organofluorine compound liquefies, c) separating the liquefied organofluorine compound from the remaining gas comprising the at least one remaining component of the initial gas mixture, and d) expanding the remaining gas via a balancing valve and reintroducing at least a portion of the remaining gas back into the insulation space, wherein in step b), only the organofluorine compound is liquefied, wherein step b1) is carried out such that the temperature increase resulting from the compression does not reach a decomposition temperature of the organofluorine compound, leaving the integrity of the organofluorine compound unaffected, and wherein after step c), the method comprises the further step of: e) collecting the liquefied organofluorine compound by an organofluorine compound collecting device of the reclaiming device. a) transferring an initial gas mixture containing the organofluorine compound and at least one further component of the insulation medium out of an insulation space of the electrical apparatus into a substance reclaiming device, b) liquefying the organofluorine compound in the substance reclaiming device by b1) compressing the initial gas mixture, and b2) cooling the compressed initial gas mixture down to a temperature at which the organofluorine compound liquefies, b1) compressing the initial gas mixture, and b2) cooling the compressed initial gas mixture down to a temperature at which the organofluorine compound liquefies, c) separating the liquefied organofluorine compound from the remaining gas comprising the at least one remaining component of the initial gas mixture, and d) expanding the remaining gas via a balancing valve and reintroducing at least a portion of the remaining gas back into the insulation space,