mhurhangee/ep-ind-claims huggingface dataset:
An auxiliary transport unit particularly for pallets (20, 25), wherein the pallets (20, 25) exhibit a loading deck aligned substantially horizontal during transport, comprising a supporting device which extends substantially vertical during transport and has two or more support spars, in particular four support spars, which are configured as L-Beam with inner sides, a connecting device (4, 4a, 4b) which connects said supporting device to at least one first, particularly lower pallet, and a retaining device (5, 5a, 16, 16a) which is connected to said supporting device and which is provided to hold at least one second pallet at a vertical distance from said at least one first pallet, wherein the auxiliary transport unit comprises at least one support spar connecting device (33, 33a) and the support spars are provided to connect with the support spar connecting device (33, 33a), wherein the support spar connecting device (33, 33a) comprises two ends each with an end region, which is adapted to bear against the inner sides of the support spars, wherein each end region comprises a respective first connecting part and a second connecting part, wherein the support spars comprise at least one first connecting part receiving element to receive the first connecting part and at least one second connecting part receiving element to receive the second connecting part, characterized in that the first connecting part and the second connecting part are arranged on different contact surfaces of the end regions.
Method for producing an electrical sheet pack, comprising the steps of: a) providing electrical sheet strip as starting material for the sheet laminations for the electrical sheet pack, b) coating the electrical sheet strip with an insulation layer on one or both sides, c) coating the electrical sheet strip on one side with an anaerobically curing adhesive, d) rubbing the electrical sheet strip with a rubbing device which comprises beryllium-containing and/or transition metal-containing surface structures, e) separating the individual laminations for the electrical sheet pack from the electrical sheet strip, f) contacting the laminations for the electrical sheet pack in each case by contacting one side of one lamination with the other side of the next lamination, and g) curing the adhesive. a) providing electrical sheet strip as starting material for the sheet laminations for the electrical sheet pack, b) coating the electrical sheet strip with an insulation layer on one or both sides, c) coating the electrical sheet strip on one side with an anaerobically curing adhesive, d) rubbing the electrical sheet strip with a rubbing device which comprises beryllium-containing and/or transition metal-containing surface structures, e) separating the individual laminations for the electrical sheet pack from the electrical sheet strip, f) contacting the laminations for the electrical sheet pack in each case by contacting one side of one lamination with the other side of the next lamination, and g) curing the adhesive.
A method for collecting data for diagnosing extrahepatic bile duct carcinoma, intrahepatic bile duct carcinoma, or gallbladder carcinoma, comprising a step of detecting a concentration of CEACAM1 in a blood sample collected from a test subject, wherein: when collecting data for diagnosing extrahepatic bile duct carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 65.9 ±5 ng/mL indicates that the test subject has a high possibility of having extrahepatic bile duct carcinoma; when collecting data for diagnosing intrahepatic bile duct carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 57.0 ±5 ng/mL indicates that the test subject has a high possibility of having intrahepatic bile duct carcinoma; and when collecting data for diagnosing gallbladder carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 51.9 ±5 ng/mL indicates that the test subject has a high possibility of having gallbladder carcinoma. when collecting data for diagnosing extrahepatic bile duct carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 65.9 ±5 ng/mL indicates that the test subject has a high possibility of having extrahepatic bile duct carcinoma; when collecting data for diagnosing intrahepatic bile duct carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 57.0 ±5 ng/mL indicates that the test subject has a high possibility of having intrahepatic bile duct carcinoma; and when collecting data for diagnosing gallbladder carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 51.9 ±5 ng/mL indicates that the test subject has a high possibility of having gallbladder carcinoma.
Lightweight mortar incorporating cork granulate, characterized in that it comprises the following components, in percentage in weight of the components relatively to the total weight of the composition: a) 20 to 55% of limestone or siliceous aggregate; b) 30 to 70% of hydraulic binders; c) 5 to 15% of cork granulate; d) 0.5 to 10% of a hydroxide selected between calcium hydroxide and magnesium hydroxide; e) 0.05 to 1.0% of a cellulose derivative; f) 1 to 5% of re-dispersible powder; g) 0.01 to 2% of a hydrophobic powder; h) 0.005 to 0.5% of an air introducing agent; and k) 0 to 0.5% of an air introducing and retraction control agent. a) 20 to 55% of limestone or siliceous aggregate; b) 30 to 70% of hydraulic binders; c) 5 to 15% of cork granulate; d) 0.5 to 10% of a hydroxide selected between calcium hydroxide and magnesium hydroxide; e) 0.05 to 1.0% of a cellulose derivative; f) 1 to 5% of re-dispersible powder; g) 0.01 to 2% of a hydrophobic powder; h) 0.005 to 0.5% of an air introducing agent; and k) 0 to 0.5% of an air introducing and retraction control agent.
An optical film comprising: a film layer including a fine structure having a light-directing property; a coating layer coated on the fine structure having the same shape as that of the fine structure and having an infrared ray scattering property; a matching layer laminated above or below the film layer and having a refractive index matching a refractive index of the film layer within a predetermined error range; and dot patterns printed on the film layer or the matching layer for absorbing infrared rays, and the coating layer is partially formed along the fine structure, characterized in that the fine structure is formed in a portion in which marks of dot patterns are not formed. a film layer including a fine structure having a light-directing property; a coating layer coated on the fine structure having the same shape as that of the fine structure and having an infrared ray scattering property; a matching layer laminated above or below the film layer and having a refractive index matching a refractive index of the film layer within a predetermined error range; and dot patterns printed on the film layer or the matching layer for absorbing infrared rays, and the coating layer is partially formed along the fine structure, characterized in that the fine structure is formed in a portion in which marks of dot patterns are not formed.
A control device for a vehicle in which a shift range is switched in accordance with a shift signal outputted from a sensor detecting shift operation by a driver, said shift range including a drive range for causing said vehicle to run, said control device comprising: an abnormality determination unit that determines whether or not said shift signal is abnormal; and characterised by further comprising: a running control unit (820, 830) that, when it is determined that said shift signal is abnormal, determines whether or not a first condition that said shift signal has changed into a state in which said shift signal normally indicates said drive range after it is determined that said shift signal is abnormal, a second condition that a driver is pressing a brake pedal and said vehicle is in a stop state, and a third condition that an amount of operation of an accelerator pedal is equal to or smaller than a threshold value are all satisfied, and when said first to third conditions are all satisfied, permits startup of said vehicle in said drive range indicated by said shift signal, and when at least any one of said first to third conditions is not satisfied, does not permit startup of said vehicle in said drive range indicated by said shift signal. an abnormality determination unit that determines whether or not said shift signal is abnormal; and characterised by further comprising: a running control unit (820, 830) that, when it is determined that said shift signal is abnormal, determines whether or not a first condition that said shift signal has changed into a state in which said shift signal normally indicates said drive range after it is determined that said shift signal is abnormal, a second condition that a driver is pressing a brake pedal and said vehicle is in a stop state, and a third condition that an amount of operation of an accelerator pedal is equal to or smaller than a threshold value are all satisfied, and when said first to third conditions are all satisfied, permits startup of said vehicle in said drive range indicated by said shift signal, and when at least any one of said first to third conditions is not satisfied, does not permit startup of said vehicle in said drive range indicated by said shift signal. a running control unit (820, 830) that, when it is determined that said shift signal is abnormal, determines whether or not a first condition that said shift signal has changed into a state in which said shift signal normally indicates said drive range after it is determined that said shift signal is abnormal, a second condition that a driver is pressing a brake pedal and said vehicle is in a stop state, and a third condition that an amount of operation of an accelerator pedal is equal to or smaller than a threshold value are all satisfied, and when said first to third conditions are all satisfied, permits startup of said vehicle in said drive range indicated by said shift signal, and when at least any one of said first to third conditions is not satisfied, does not permit startup of said vehicle in said drive range indicated by said shift signal.
A device comprising, an oscillator configured to provide an oscillation signal (X(t)); a divider component configured to divide dividing the frequency of the oscillation signal (X(t)); a mirror which is configured to oscillate in response to the divided oscillation signal (X(t)); one or more magnets arranged on the device and at least one coil fixed to the mirror such that the divided oscillation signal passing through the coil causes the mirror to oscillate, wherein movement of the at least one coil within the magnetic field of the one or more magnets causes generation of an induced current/voltage signal (Y(t)) in the at least one coil; a comparator circuit configured to compare the phase of the induced signal (Y(t)) with the phase of the divided oscillation signal (X(t)), and to provide a control signal (Z(t)) to control the oscillator such that the oscillator provides an oscillation signal (X(t)) to adjust the oscillation of the mirror so that the mirror oscillates at the resonant frequency of the mirror; and a laser modulation circuit arranged to receive the oscillation signal (X(t)) from the oscillator as a clock signal; wherein the mirror, the comparator circuit and the oscillator define an operational loop and the divider component is included in the operational loop.
A pharmaceutical composition comprising a therapeutic effective amount of Compound 1 and a pharmaceutically acceptable carrier or excipient, wherein Compound 1 is represented by the following structural formula: and further wherein at least 30% of Compound 1 is present as a co-crystal comprising Compound 1 and a triglyceride, wherein the triglyceride is chosen from the following structural formula: wherein R 1, R 2, and R 3 are independently C 1-29 aliphatic.
A lock comprising an accessory for security locking of said lock, said accessory enabling the locking of the door lock such that the lock cannot be opened with a key or a picklock, the lock including a lock body, a lock mechanism inside the lock body for moving the lock bolt, a rotary knob, a key cylinder and a first rotary spindle (5a, 5b), which is between the rotary knob and the lock mechanism and the spindle head of which is in engagement with the lock mechanism, the accessory further containing a safety latch and a transfer mechanism (7, 8a, 14, 14a), by which the safety latch is to be transferred from a security locking release position into a security locking position, characterized in that the lock mechanism includes a first rotary ring, with which the spindle head is in engagement, and a second rotary ring, with which a second rotary spindle to be rotated by a key is in engagement, as well as a bolt shifter, which is shifted by the first and second rotary rings (16, 17) as they rotate, wherein the spindle head is equipped with an extension part, which is dimensioned and shaped to extend through the first rotary ring into engagement with the second rotary ring, wherein, as the first rotary spindle (5a 5b) is being locked as non-rotatable in the security locking position of the safety latch, the extension part of the spindle head prevents the second rotary ring from rotating by means of the second rotary spindle.
An apparatus for reducing self-sealing flow in a combined cycle double flow steam turbine, the apparatus comprising: a turbine housing; a rotor rotatably disposed within said turbine housing; characterized in a first brush seal for reducing clearance between a packing ring and a rotor at a first location, the first location being a vent ring on a first end of a low-pressure turbine; a second brush seal for reducing clearance between another packing ring and the rotor at a second location, the second location being a seal ring adjacent to the first location; a third brush seal for reducing clearance between yet another packing ring and the rotor at a third location, the third location being a vent ring on a second end of low-pressure turbine; and a fourth brush seal for reducing clearance between yet another packing ring and the rotor at a fourth location, the fourth location being a seal ring adjacent to the third location; whereby overall efficiency of the steam turbine is improved by the combined action of the four specifically positioned seals, thereby reducing higher pressure steam source requirements for self sealing of the steam turbine. a turbine housing; a rotor rotatably disposed within said turbine housing; characterized in a first brush seal for reducing clearance between a packing ring and a rotor at a first location, the first location being a vent ring on a first end of a low-pressure turbine; a second brush seal for reducing clearance between another packing ring and the rotor at a second location, the second location being a seal ring adjacent to the first location; a third brush seal for reducing clearance between yet another packing ring and the rotor at a third location, the third location being a vent ring on a second end of low-pressure turbine; and a fourth brush seal for reducing clearance between yet another packing ring and the rotor at a fourth location, the fourth location being a seal ring adjacent to the third location; whereby overall efficiency of the steam turbine is improved by the combined action of the four specifically positioned seals, thereby reducing higher pressure steam source requirements for self sealing of the steam turbine.
A process for active compensation of reflection-caused interference signals in optical frequency domain reflectometry, the method comprising: - providing a fiber optic measurement system for incoherent optical frequency domain reflectometry; - irradiating an intensity-modulated sine-wave signal into the measurement system; - detecting an interference signal within the measurement system; - producing an opposite-phase suppression signal which is in phase opposition to the interference signal; and - coupling the opposite-phase suppression signal into the measurement system to extinguish the interference signal. - providing a fiber optic measurement system for incoherent optical frequency domain reflectometry; - irradiating an intensity-modulated sine-wave signal into the measurement system; - detecting an interference signal within the measurement system; - producing an opposite-phase suppression signal which is in phase opposition to the interference signal; and - coupling the opposite-phase suppression signal into the measurement system to extinguish the interference signal.
A lower limb prosthesis (1, 3), comprising: a knee chassis (10, 310); a shin carrier (20, 320) pivotally connected to the knee chassis (10, 310); and a piston and cylinder assembly pivotally connected to the knee chassis (10, 310) and the shin carrier (20, 320), the piston and cylinder assembly comprising: a piston assembly (40, 340) comprising a piston (44, 344) mounted on a piston rod (42, 342); and a cylinder body (32, 332) having a cavity defining a cylinder within which the piston (44, 344) is arranged to reciprocate; wherein: the knee chassis (10, 310) is pivotally connected to the shin carrier (20, 320) to pivot around an anterior knee pivot axis; the knee chassis (10, 310) is pivotally connected to the piston and cylinder assembly to pivot around a posterior knee pivot axis; and the shin carrier (20, 320) is pivotally connected to the piston and cylinder assembly to pivot around a distal pivot axis, wherein the piston and cylinder assembly further comprises, distal to the distal pivot axis, a foot component having a lower surface, characterised in that the distance from the anterior knee pivot axis to the distal pivot axis is more than 20% of the distance from the anterior knee pivot axis to the lower surface of the foot component. a knee chassis (10, 310); a shin carrier (20, 320) pivotally connected to the knee chassis (10, 310); and a piston and cylinder assembly pivotally connected to the knee chassis (10, 310) and the shin carrier (20, 320), the piston and cylinder assembly comprising: a piston assembly (40, 340) comprising a piston (44, 344) mounted on a piston rod (42, 342); and a cylinder body (32, 332) having a cavity defining a cylinder within which the piston (44, 344) is arranged to reciprocate; a piston assembly (40, 340) comprising a piston (44, 344) mounted on a piston rod (42, 342); and a cylinder body (32, 332) having a cavity defining a cylinder within which the piston (44, 344) is arranged to reciprocate; wherein: the knee chassis (10, 310) is pivotally connected to the shin carrier (20, 320) to pivot around an anterior knee pivot axis; the knee chassis (10, 310) is pivotally connected to the piston and cylinder assembly to pivot around a posterior knee pivot axis; and the shin carrier (20, 320) is pivotally connected to the piston and cylinder assembly to pivot around a distal pivot axis, the knee chassis (10, 310) is pivotally connected to the shin carrier (20, 320) to pivot around an anterior knee pivot axis; the knee chassis (10, 310) is pivotally connected to the piston and cylinder assembly to pivot around a posterior knee pivot axis; and the shin carrier (20, 320) is pivotally connected to the piston and cylinder assembly to pivot around a distal pivot axis, wherein the piston and cylinder assembly further comprises, distal to the distal pivot axis, a foot component having a lower surface, characterised in that the distance from the anterior knee pivot axis to the distal pivot axis is more than 20% of the distance from the anterior knee pivot axis to the lower surface of the foot component.
An X-ray CT radiographing apparatus, the apparatus comprising: means for receiving a FOV (field of view) input; a rotation supporter rotating based on a rotation shaft by a rotation driver; a generating unit disposed in a first side of the rotation supporter, and including an X-ray generator emitting X-rays and a collimator to radiate a collimated X-ray beam; an X-ray sensor disposed in a second side of the rotation supporter to face the generating unit with a maximum FOV (field of view) in between, and detecting X-ray beam penetrated on parts within the input FOV and moving in a tangential direction of a rotation trajectory when the rotation supporter rotates, wherein the input FOV is smaller than and within the maximum FOV; and a controller configured to control the generating unit for blocking the X-rays radiated toward parts other than the input FOV when performing X-ray radiographing, wherein the width of the X-ray sensor is less than a magnification ratio * a first width w1 / 2, the first width w1 is the size of the maximum field of view in a direction perpendicular to the rotation shaft, and the magnification ratio is the ratio of the distance between the X-ray generator and the examinee to the distance between the X-ray generator and the X-ray sensor. means for receiving a FOV (field of view) input; a rotation supporter rotating based on a rotation shaft by a rotation driver; a generating unit disposed in a first side of the rotation supporter, and including an X-ray generator emitting X-rays and a collimator to radiate a collimated X-ray beam; an X-ray sensor disposed in a second side of the rotation supporter to face the generating unit with a maximum FOV (field of view) in between, and detecting X-ray beam penetrated on parts within the input FOV and moving in a tangential direction of a rotation trajectory when the rotation supporter rotates, wherein the input FOV is smaller than and within the maximum FOV; and a controller configured to control the generating unit for blocking the X-rays radiated toward parts other than the input FOV when performing X-ray radiographing, wherein the width of the X-ray sensor is less than a magnification ratio * a first width w1 / 2, the first width w1 is the size of the maximum field of view in a direction perpendicular to the rotation shaft, and the magnification ratio is the ratio of the distance between the X-ray generator and the examinee to the distance between the X-ray generator and the X-ray sensor.
An oral matrix-based storage stable pharmaceutical preparation comprising oxycodone hydrochloride and naloxone hydrochloride, wherein the preparation provides sustained release of oxycodone hydrochloride and of naloxone hydrochloride, wherein the preparation comprises oxycodone hydrochloride in a weight ratio of 2:1 to naloxone hydrochloride, and wherein the preparation comprises oxycodone hydrochloride in an amount range of 10 to 150 mg and naloxone hydrochloride in an amount range of 1 to 50 mg.