mhurhangee/ep-ind-claims huggingface dataset:
Mobile lifting column for lifting a vehicle, the lifting column comprising: - a frame with a moveable carrier configured for carrying the vehicle; - a drive which acts on the carrier and is configured for raising and/or lowering the carrier relative to the frame; - a displacement mechanism configured for positioning the lifting column; and - a controller configured for controlling movement of the carrier, wherein the displacement mechanism comprises: - a displacement frame comprising a housing, and a wheel that is provided at a first end of the housing, wherein the wheel is moveable relative to the frame between a displacement position wherein the lifting column can be displaced and a stationary position wherein the lifting column is in a stationary position; - a counter force element that is providing in or on the frame; and - a steering handle that is operatively coupled to the wheel with a linkage mechanism that is configured for moving the wheel relative to the frame, and wherein the steering handle is connected to the displacement frame at a second end of the housing, characterized in that the counter force element is a spring element substantially extending along a displacement frame axis between the wheel and the steering handle. - a frame with a moveable carrier configured for carrying the vehicle; - a drive which acts on the carrier and is configured for raising and/or lowering the carrier relative to the frame; - a displacement mechanism configured for positioning the lifting column; and - a controller configured for controlling movement of the carrier, - a displacement frame comprising a housing, and a wheel that is provided at a first end of the housing, wherein the wheel is moveable relative to the frame between a displacement position wherein the lifting column can be displaced and a stationary position wherein the lifting column is in a stationary position; - a counter force element that is providing in or on the frame; and - a steering handle that is operatively coupled to the wheel with a linkage mechanism that is configured for moving the wheel relative to the frame, and wherein the steering handle is connected to the displacement frame at a second end of the housing, characterized in that the counter force element is a spring element substantially extending along a displacement frame axis between the wheel and the steering handle.
A crane comprising: a carrier; a superstructure coupled to the carrier, the superstructure including a boom; a counterweight assembly movable or repositionable on the crane; and an optical detection system according to claim 11. a carrier; a superstructure coupled to the carrier, the superstructure including a boom; a counterweight assembly movable or repositionable on the crane; and an optical detection system according to claim 11.
An abrasion sensing device sensing abrasion of one of a gear and a bearing of a gearbox provided in a wind turbine generation apparatus, said wind turbine generation apparatus including a blade converting wind force into rotary force, a main shaft receiving said rotary force from said blade, said gearbox speeding up rotation of said main shaft, a power generator connected to an output shaft of said gearbox, and a nacelle storing said main shaft, said gearbox and said power generator, and being rotatably supported at an upper part of a support, said abrasion sensing device being characterized by: a braking device for holding the output shaft of said gearbox in a non-rotating state; a rotation angle sensor for detecting a rotation angle of said main shaft; a control unit (220, 260) for reversing, by changing a wind receiving state by said blade, the direction of the rotary force exerted on said main shaft by wind force; and a determination unit (230, 230A, 230B) determining presence/absence of abrasion of one of said gear and said bearing by comparing a first detected value of said rotation angle sensor before reversing the direction of said rotary force by said control unit and a second detected value of said rotation angle sensor after reversing the direction of said rotary force by said control unit while said braking device is being operated. a braking device for holding the output shaft of said gearbox in a non-rotating state; a rotation angle sensor for detecting a rotation angle of said main shaft; a control unit (220, 260) for reversing, by changing a wind receiving state by said blade, the direction of the rotary force exerted on said main shaft by wind force; and a determination unit (230, 230A, 230B) determining presence/absence of abrasion of one of said gear and said bearing by comparing a first detected value of said rotation angle sensor before reversing the direction of said rotary force by said control unit and a second detected value of said rotation angle sensor after reversing the direction of said rotary force by said control unit while said braking device is being operated.
A stent graft delivery system (100, 1100) comprising: a tapered tip comprising a control release sleeve (116, 116A, 116B, 116C), said control release sleeve comprising: a cylindrical wall portion (302, 302A, 302B, 302C); and a control release portion (304, 304A, 304B, 304C) attached to said cylindrical wall portion, said control release portion comprising a hollow cylinder having an opening (314, 314A, 314B, 314C) formed therein; a spindle comprising spindle pins (132, 1148, 1149-1) comprising: a first spindle pin; and a second spindle pin, wherein prior to advancement of said tapered tip relative to said spindle pins, a first distance between said first spindle pin and said opening is less than a second distance between said second spindle pin and a proximal end (312, 312A, 312B, 312C) of said control release portion. a tapered tip comprising a control release sleeve (116, 116A, 116B, 116C), said control release sleeve comprising: a cylindrical wall portion (302, 302A, 302B, 302C); and a control release portion (304, 304A, 304B, 304C) attached to said cylindrical wall portion, said control release portion comprising a hollow cylinder having an opening (314, 314A, 314B, 314C) formed therein; a spindle comprising spindle pins (132, 1148, 1149-1) comprising: a first spindle pin; and a second spindle pin, wherein prior to advancement of said tapered tip relative to said spindle pins, a first distance between said first spindle pin and said opening is less than a second distance between said second spindle pin and a proximal end (312, 312A, 312B, 312C) of said control release portion. a cylindrical wall portion (302, 302A, 302B, 302C); and a control release portion (304, 304A, 304B, 304C) attached to said cylindrical wall portion, said control release portion comprising a hollow cylinder having an opening (314, 314A, 314B, 314C) formed therein; a spindle comprising spindle pins (132, 1148, 1149-1) comprising: a first spindle pin; and a second spindle pin, wherein prior to advancement of said tapered tip relative to said spindle pins, a first distance between said first spindle pin and said opening is less than a second distance between said second spindle pin and a proximal end (312, 312A, 312B, 312C) of said control release portion. a first spindle pin; and a second spindle pin, wherein prior to advancement of said tapered tip relative to said spindle pins, a first distance between said first spindle pin and said opening is less than a second distance between said second spindle pin and a proximal end (312, 312A, 312B, 312C) of said control release portion.
A pacifier which has a shield or a ring and means for mounting the ring in a pivotable manner around a horizontal rotational axis on the shield, characterised in that the ring has a locking projection at a distance from the means for mounting, which is lockable behind a locking element of the shield.
An apparatus for casting a concrete product in a mold, said apparatus comprising a concrete mix container to be moved above the casting mold, a nozzle attached to the mix container bottom for feeding concrete mix from the concrete container in a casting mold, and a vertically movable closing element extending through the concrete mix container in the area of the nozzle, wherein the width of the nozzle in first horizontal direction is substantially greater than the width of the nozzle in second horizontal direction, which second direction is perpendicular in relation to the said first direction, and characterized in that said concrete mix container is fixed rotatably around its vertical central axis for changing the orientation of the nozzle during casting.
A color-treated substrate which has the intrinsic texture of metals, comprising: a metal matrix containing magnesium; a film formed on the matrix and containing a compound represented by the following Chemical Formula 1; a wavelength conversion layer formed on the film; and a top coat formed on the wavelength conversion layer, wherein the wavelength conversion layer includes one or more selected from the group consisting of metals including aluminum (Al), chromium (Cr), titanium (Ti), gold (Au), molybdenum (Mo), silver (Ag), manganese (Mn), zirconium (Zr), palladium (Pd), platinum (Pt), cobalt (Co), cadmium (Cd) or copper (Cu) and ions thereof, wherein an average thickness of the film is in a range of 50 nm to 2 μm, wherein an average thickness of the wavelength conversion layer is in a range of 5 to 200 nm: [Chemical Formula 1] M m where M includes one or more selected from the group consisting of Na, K, Mg, Ca and Ba, and m is 1 or 2. a metal matrix containing magnesium; a film formed on the matrix and containing a compound represented by the following Chemical Formula 1; a wavelength conversion layer formed on the film; and a top coat formed on the wavelength conversion layer, wherein the wavelength conversion layer includes one or more selected from the group consisting of metals including aluminum (Al), chromium (Cr), titanium (Ti), gold (Au), molybdenum (Mo), silver (Ag), manganese (Mn), zirconium (Zr), palladium (Pd), platinum (Pt), cobalt (Co), cadmium (Cd) or copper (Cu) and ions thereof, wherein an average thickness of the film is in a range of 50 nm to 2 μm, wherein an average thickness of the wavelength conversion layer is in a range of 5 to 200 nm: [Chemical Formula 1] M m where M includes one or more selected from the group consisting of Na, K, Mg, Ca and Ba, and m is 1 or 2.
A system for supplying LNG fuel, the system comprising: a fuel supplying line connected from an LNG storage tank to an engine; a pump provided on the fuel supplying line and configured to pressurize LNG outputted from the LNG storage tank to high pressure; a heat exchanger provided on the fuel supplying line between the engine and the pump, configured to heat-exchange the LNG supplied from the pump with glycol water and supply the exchanged LNG to the engine; a glycol tank configured to store the glycol water; a glycol heater configured to heat the glycol water outputted from the glycol tank and supply the heated glycol water to the heat exchanger; characterized by an LNG inflow sensor configured to sense LNG leaked from the heat exchanger to the glycol tank; and an LNG removal line connected to the glycol tank and configured to emit LNG flowed to the glycol tank when inflow of the LNG is sensed by the LNG inflow sensor. a fuel supplying line connected from an LNG storage tank to an engine; a pump provided on the fuel supplying line and configured to pressurize LNG outputted from the LNG storage tank to high pressure; a heat exchanger provided on the fuel supplying line between the engine and the pump, configured to heat-exchange the LNG supplied from the pump with glycol water and supply the exchanged LNG to the engine; a glycol tank configured to store the glycol water; a glycol heater configured to heat the glycol water outputted from the glycol tank and supply the heated glycol water to the heat exchanger; characterized by an LNG inflow sensor configured to sense LNG leaked from the heat exchanger to the glycol tank; and an LNG removal line connected to the glycol tank and configured to emit LNG flowed to the glycol tank when inflow of the LNG is sensed by the LNG inflow sensor.
Dosing valve comprising a housing and an electromagnet, wherein a stepped bore is formed in the housing, wherein the stepped bore delimits a low-pressure space, characterized in that a pump sleeve is guided sealingly in one section (34.4) of the stepped bore, in that a hollow-bored piston is guided sealingly in a central bore of the pump sleeve, in that a magnet sleeve is fastened to the housing in the low-pressure space, in that a stop sleeve is arranged on an opposite side of the low-pressure space from the magnet sleeve, and in that a stroke of the piston is limited by the magnet sleeve and/or by the stop sleeve.
A method for transmitting a physical layer protocol data unit, comprising: generating a physical layer protocol data unit PPDU, wherein the PPDU comprises a long training field, a length of a frequency-domain sequence of the long training field is greater than a first length, and the first length is a length of a frequency-domain sequence of a long training field of a PPDU transmitted over a channel whose bandwidth is 160 MHz; and sending the PPDU over a target channel, wherein a bandwidth of the target channel is greater than 160 MHz; wherein the bandwidth of the target channel is 320 MHz, and the frequency-domain sequence of the long training field is any one of the following: [LTF1x80M 0 23 LTF1x80M 0 23 -LTF1x80M 0 23 -LTF1x80M]; or [LTF1x80MHz left 0 LTF1x80MHz right 0 23 LTF1x80MHz left 0 LTF1x80MHz right 0 23 -LTF1x80MHz left 0 - LTF1x80MHz right 0 23 -LTF1x80MHz left 0 -LTF1x80MHz right], wherein LTF1x80MHz left is an 80MHz left 1x LTF sequence in 802.11ax standard, LTF1x80MHz right is an 80MHz right 1x LTF sequence in the 802.11ax standard. generating a physical layer protocol data unit PPDU, wherein the PPDU comprises a long training field, a length of a frequency-domain sequence of the long training field is greater than a first length, and the first length is a length of a frequency-domain sequence of a long training field of a PPDU transmitted over a channel whose bandwidth is 160 MHz; and sending the PPDU over a target channel, wherein a bandwidth of the target channel is greater than 160 MHz; wherein the bandwidth of the target channel is 320 MHz, and the frequency-domain sequence of the long training field is any one of the following: [LTF1x80M 0 23 LTF1x80M 0 23 -LTF1x80M 0 23 -LTF1x80M]; or [LTF1x80MHz left 0 LTF1x80MHz right 0 23 LTF1x80MHz left 0 LTF1x80MHz right 0 23 -LTF1x80MHz left 0 - LTF1x80MHz right 0 23 -LTF1x80MHz left 0 -LTF1x80MHz right], wherein LTF1x80MHz left is an 80MHz left 1x LTF sequence in 802.11ax standard, LTF1x80MHz right is an 80MHz right 1x LTF sequence in the 802.11ax standard. [LTF1x80M 0 23 LTF1x80M 0 23 -LTF1x80M 0 23 -LTF1x80M]; or [LTF1x80MHz left 0 LTF1x80MHz right 0 23 LTF1x80MHz left 0 LTF1x80MHz right 0 23 -LTF1x80MHz left 0 - LTF1x80MHz right 0 23 -LTF1x80MHz left 0 -LTF1x80MHz right], wherein LTF1x80MHz left is an 80MHz left 1x LTF sequence in 802.11ax standard, LTF1x80MHz right is an 80MHz right 1x LTF sequence in the 802.11ax standard.
Method for preparation of raw kaolin in a milling and separating device which has a milling section and a first separating section, wherein the raw kaolin is a material mixture of at least kaolin as a first fraction and a second fraction comprising at least quartz, the raw kaolin is fed to the milling section, in which the first fraction is extracted at least in part from the raw kaolin by pulverising, and the first fraction is subsequently separated from the second fraction in the first separating section, characterised in that the preparation is carried out without production of a suspension of the raw kaolin. the raw kaolin is a material mixture of at least kaolin as a first fraction and a second fraction comprising at least quartz, the raw kaolin is fed to the milling section, in which the first fraction is extracted at least in part from the raw kaolin by pulverising, and the first fraction is subsequently separated from the second fraction in the first separating section, characterised in that the preparation is carried out without production of a suspension of the raw kaolin.
A casting method, comprising: supplying molten metal to a casting mold and forming an embryonic ingot comprising an external solid shell and an internal molten core, wherein the molten metal is a 7xxx series aluminum alloy; advancing the embryonic ingot in a direction of advancement away from the casting mold while supplying additional molten metal to the casting mold; extracting heat from the embryonic ingot between the casting mold and a transition location by directing a supply of liquid coolant to an outer surface of the external solid shell; reheating the embryonic ingot at the transition location such that at least a portion of the external solid shell of the embryonic ingot at the transition location reaches a temperature suitable for precipitating dispersoids and lower than a homogenizing temperature of the molten metal, wherein the transition location lies in a plane that is perpendicular to the direction of advancement and that intersects the internal molten core, wherein the temperature is between 410 °C and 420 °C; and wherein the method further comprises maintaining the temperature at the portion of the external solid shell for at least 3 hours. supplying molten metal to a casting mold and forming an embryonic ingot comprising an external solid shell and an internal molten core, wherein the molten metal is a 7xxx series aluminum alloy; advancing the embryonic ingot in a direction of advancement away from the casting mold while supplying additional molten metal to the casting mold; extracting heat from the embryonic ingot between the casting mold and a transition location by directing a supply of liquid coolant to an outer surface of the external solid shell; reheating the embryonic ingot at the transition location such that at least a portion of the external solid shell of the embryonic ingot at the transition location reaches a temperature suitable for precipitating dispersoids and lower than a homogenizing temperature of the molten metal, wherein the transition location lies in a plane that is perpendicular to the direction of advancement and that intersects the internal molten core, wherein the temperature is between 410 °C and 420 °C; and wherein the method further comprises maintaining the temperature at the portion of the external solid shell for at least 3 hours.
A coaxial terminator for securing and terminating a coaxial equipment port of an equipment box, the coaxial equipment port being of the type having a female center conductor adapted to receive a center conductor of a coaxial connector, the coaxial equipment port also being of the type including an externally threaded outer conductor surrounding the female center conductor and spaced apart therefrom by a dielectric, the coaxial terminator comprising: a housing comprising an internal body and an outer body surrounding the internal body and rotatably secured thereover, wherein the housing, the internal body and the outer body each have first and second opposing ends, the first end of the housing having a central bore, and the first end of the housing and of the internal body including an internally threaded region to threadedly engage the outer conductor of the coaxial equipment port through rotation of the internal body relative to the coaxial equipment port, the second end of the outer body having a bore formed therein for allowing the insertion of a tool to rotate the internal body; and an impedance match element mounted within said internal body, said impedance match element comprising: a central conductive pin having first and second opposing ends; a supportive element; and a resistor having first and second opposing ends, wherein the resistor is in electrical communication with the central conductive pin, wherein the coaxial terminator is characterized in that the resistor longitudinally extends in a direction that is not coaxial with the longitudinal axis of the central conductive pin and wherein the housing further comprises a cylindrical cavity between the impedance match element and the second end of the housing, the ratio of the diameter of the cylindrical cavity to the length of the cylindrical cavity ranging from 3:1 to 1.7:1; further characterized in that said supportive element comprises a first area of conductive material in electrical and mechanical communication with said central conductive pin and a second area of conductive material in electrical and mechanical communication with said housing (206, 211),wherein said first area of conductive material and said second area of conductive material are in electrical and mechanical communication with said resistor. a central conductive pin having first and second opposing ends; a supportive element; and
A femoral head center identifying apparatus for identifying, during total knee replacement surgery, a position of a center of a femoral head of a patient undergoing the surgery within a plane parallel to a frontal plane, the apparatus comprising: a marking plate placed so as to cover, in a direction perpendicular to the frontal plane, a site where the femoral head center of a body of the patient is located; a pivotal arm having a pivotal shaft that is arranged so as to extend in a direction perpendicular to the frontal plane, wherein the pivotal shaft is configured to be placed at a distal end of a femur of the patient; and a marker attached to the pivotal arm, for depicting a circular arc on the marking plate according to rotation of the pivotal arm; a distance from the pivotal shaft to the marker in a direction parallel to the frontal plane being equal to a distance from the distal end r (Db) J of the femur to the femoral head center which distance has been measured preliminarily. a marking plate placed so as to cover, in a direction perpendicular to the frontal plane, a site where the femoral head center of a body of the patient is located; a pivotal arm having a pivotal shaft that is arranged so as to extend in a direction perpendicular to the frontal plane, wherein the pivotal shaft is configured to be placed at a distal end of a femur of the patient; and a marker attached to the pivotal arm, for depicting a circular arc on the marking plate according to rotation of the pivotal arm; a distance from the pivotal shaft to the marker in a direction parallel to the frontal plane being equal to a distance from the distal end r (Db) J of the femur to the femoral head center which distance has been measured preliminarily.
Pressure mat for safeguarding an electrically driven installation, comprising a sensor, a rigid supporting body and an evaluation unit, wherein the supporting body has a top side, a rear side and a first and a second side face (52a, 52b), the side faces adjoining the top side and the rear side, wherein the evaluation unit is arranged in the interior of the supporting body and is designed to provide an output signal depending on operation of the sensor, wherein the sensor has an active surface which covers the top side of the supporting body, characterized in that the rear side has an opening for making contact with the evaluation unit in the interior of the supporting body, wherein the first side face has a first cavity and the second side face has a second cavity, and wherein the rear side has a first and a second cable guide (166, 168) and the first cable guide connects the opening to the first cavity and the second cable guide connects the opening to the second cavity.