mhurhangee/ep-ind-claims huggingface dataset:
Hydrodynamic coupling arrangement having a housing which is rotatable about a central axis and which is connected to pressure medium lines (71 to 73) of the hydrodynamic coupling arrangement for the introduction or discharge of pressure medium at least into a pressure chamber of the hydrodynamic coupling arrangement, which pressure chamber is sealed off by means of a piston of a clutch device of the hydrodynamic coupling arrangement with respect to a dead space, which is likewise provided in the housing, of a hydrodynamic circuit of the hydrodynamic coupling arrangement, wherein a receiving region, which is rotatable relative to the housing, of the hydrodynamic coupling arrangement is provided for axially displaceably receiving a radially inner piston hub of the piston of the clutch device, and at least one passage, which is rotatable relative to the housing, in a passage region of the hydrodynamic coupling arrangement is provided for producing at least one flow connection between at least one pressure medium line and the pressure chamber, characterized in that at least one passage mouth of the at least one passage of the passage region projects radially further outwards in relation to the central axis than an inner diameter, surrounding the receiving region, of the radially inner piston hub of the piston, wherein the passage mouth, at least at one position, projects radially further outwards than the inner diameter of the piston hub by a distance X, wherein the distance X at the position is greater than a radial distance between inner diameter of the piston hub and an outer diameter of the piston hub.
A vehicle seat holder, with - a main body connectable to the vehicle floor, and - a holder body connectable to a vehicle seat, especially a rail pair of a vehicle seat, preferably a floor rail of a vehicle seat, - wherein the holder body (3, 3a, 3b) is releasably fixed in a normal position relative to the main body, characterized in that an adjusting unit (4, 4a, 4b, 4c) is designed and arranged such that activating the adjusting unit (4, 4a, 4b, 4c) causes a displacement of the holder body (3, 3a, 3b) relative to the main body in the direction of a crash position. - a main body connectable to the vehicle floor, and - a holder body connectable to a vehicle seat, especially a rail pair of a vehicle seat, preferably a floor rail of a vehicle seat, - wherein the holder body (3, 3a, 3b) is releasably fixed in a normal position relative to the main body, characterized in that an adjusting unit (4, 4a, 4b, 4c) is designed and arranged such that activating the adjusting unit (4, 4a, 4b, 4c) causes a displacement of the holder body (3, 3a, 3b) relative to the main body in the direction of a crash position.
A security element for securing security papers, value documents and other data carriers, having a magnet code composed of a plurality of magnet regions that are arranged spaced apart along a longitudinal direction, the sequence of magnet regions and gaps lying between the magnet regions forming a first code of the magnet code, characterized in that the magnet regions are formed by a magnetic material applied in even thickness (d), but the magnet regions have different quantities of magnetic material in a transverse direction that is perpendicular to the longitudinal direction, the sequence of magnet regions of different material quantities (24-H, 24-M, 24-L) forming a second code of the magnet code.
A radiation protection device for shielding radiation, in particular X-ray radiation, emitted by a radiation source, comprising a first radiation protection panel (1; 10), wherein the first radiation protection panel (1; 10) comprises at least one first recess (14, 15; 140), and at least one second radiation protection panel, which is adjustable relative to the first radiation protection panel (1; 10) in such a way that at least one recess (14, 15; 140) can be covered by the second radiation protection panel, and comprising a connection element for attachment to a holding element, wherein the holding element can be attached to a stationary means in a room or to an examination device or to a support of an examination table, characterized in that the first radiation protection panel (1; 10) and the second radiation protection panel are attached to the connection element and the second radiation protection panel is attached to the connection element in a rotatable manner.
A method of manufacturing a solar cell, the method comprising: forming a protective-film layer (201, 202) on a semiconductor substrate; depositing an intrinsic polycrystalline semiconductor layer (301, 302), having a first grain size, on the protective-film layer (201, 202); forming a doping layer, including a second conductive dopant, on the polycrystalline semiconductor layer; and forming a first conductive area by irradiating the doping layer with a laser so that the polycrystalline semiconductor layer is doped with the second conductive dopant included in the doping layer and is re-crystallized. forming a protective-film layer (201, 202) on a semiconductor substrate; depositing an intrinsic polycrystalline semiconductor layer (301, 302), having a first grain size, on the protective-film layer (201, 202); forming a doping layer, including a second conductive dopant, on the polycrystalline semiconductor layer; and forming a first conductive area by irradiating the doping layer with a laser so that the polycrystalline semiconductor layer is doped with the second conductive dopant included in the doping layer and is re-crystallized.
A method for installing an electric system into an aircraft fuselage, said method comprising the steps of: a. providing a fuselage element extending along an aircraft longitudinal axis and comprising an outer skin and an interior surface, b. providing a foil sheet of an electrically insulating substrate material, c. attaching said foil sheet on the inner side of said fuselage element, d. applying particles of electrically conductive material onto the inner surface of said attached foil sheet opposite the outer skin in a predetermined pattern, such that the accumulated particles of electrically conductive material form electric conductor elements along said inner surface of said foil sheet, characterized in that prior to the step of attaching said foil sheet on the inner side of said fuselage element, at least one power supply cable and/or at least one data transmission cable is attached to the inner side of said fuselage element at such a position, that the power supply cable and/or the data transmission cable is sandwiched between said foil sheet and the inner side of the fuselage element, and means are provided on said foil sheet to couple the power supply cable and/or the data transmission cable to one of said electric conductor elements on said foil sheet. a. providing a fuselage element extending along an aircraft longitudinal axis and comprising an outer skin and an interior surface, b. providing a foil sheet of an electrically insulating substrate material, c. attaching said foil sheet on the inner side of said fuselage element, d. applying particles of electrically conductive material onto the inner surface of said attached foil sheet opposite the outer skin in a predetermined pattern, such that the accumulated particles of electrically conductive material form electric conductor elements along said inner surface of said foil sheet,
System for gas phase deposition of at least one material to a substrate having a first and a second surface (11, 12) opposite to the first surface, wherein the system comprises: a holding member configured to hold the substrate; a deposition member configured to apply the at least one material to the substrate from at least one direction; and a heater located at a distance from the substrate and being configured to apply heat to the substrate from the side of the first surface and from the side of the second surface of the substrate, wherein the deposition member and the heater are located in accordance to each other for applying heat and gas from the same direction. a holding member configured to hold the substrate; a deposition member configured to apply the at least one material to the substrate from at least one direction; and a heater located at a distance from the substrate and being configured to apply heat to the substrate from the side of the first surface and from the side of the second surface of the substrate, wherein the deposition member and the heater are located in accordance to each other for applying heat and gas from the same direction.
A two-dimensional photonic-crystal surface-emitting laser comprising: a) a two-dimensional photonic-crystal layer in which modified refractive index regions having a refractive index different from a refractive index of a plate-like base material are periodically disposed in the base material; b) an active layer provided on one surface side of the two-dimensional photonic-crystal layer; and c) a reflection layer provided on another surface side of the two-dimensional photonic-crystal layer or on a side of the active layer opposite to the two-dimensional photonic-crystal layer so as to be separated from the two-dimensional photonic-crystal layer, characterized in that, a distance between surfaces of the two-dimensional photonic-crystal layer and the reflection layer facing each other is set such that a radiation coefficient difference Δα v = (α v1 - α v0), which is a value obtained by subtracting a radiation coefficient α v0 of a fundamental mode having a smallest loss from a radiation coefficient α v1 of a first higher order mode having a second smallest loss among light amplified in the two-dimensional photonic-crystal layer, is 1 cm -1 or more. a) a two-dimensional photonic-crystal layer in which modified refractive index regions having a refractive index different from a refractive index of a plate-like base material are periodically disposed in the base material; b) an active layer provided on one surface side of the two-dimensional photonic-crystal layer; and c) a reflection layer provided on another surface side of the two-dimensional photonic-crystal layer or on a side of the active layer opposite to the two-dimensional photonic-crystal layer so as to be separated from the two-dimensional photonic-crystal layer,
A foam discharging device, including: a storage portion that stores a liquid agent; a foamer mechanism that changes the liquid agent into foam to generate a foam body; and a discharging portion that discharges the foam body, wherein the discharging portion includes: a foam passing chamber that allows the foam body to pass; and one or a plurality of ejection-port forming wall portions that: extend downward below the foam passing chamber; have a planar shape formed into a closed-loop shape; have an inner space communicating with the foam passing chamber; and have a lower end having an ejection port formed thereon, and a bottom end portion of at least part of the one or plurality of ejection-port forming wall portions is formed into a shape that has a thickness reduced toward the lower side; the one or plurality of ejection-port forming wall portions includes a first portion and a second portion; and the height position of a lower edge of the first portion is higher than the height position of a lower edge of the second portion, and a lower edge of the one or plurality of ejection-port forming wall portions has a portion that extends horizontally. a storage portion that stores a liquid agent; a foamer mechanism that changes the liquid agent into foam to generate a foam body; and a discharging portion that discharges the foam body, wherein the discharging portion includes: a foam passing chamber that allows the foam body to pass; and one or a plurality of ejection-port forming wall portions that: extend downward below the foam passing chamber; have a planar shape formed into a closed-loop shape; have an inner space communicating with the foam passing chamber; and have a lower end having an ejection port formed thereon, and a foam passing chamber that allows the foam body to pass; and one or a plurality of ejection-port forming wall portions that: extend downward below the foam passing chamber; have a planar shape formed into a closed-loop shape; have an inner space communicating with the foam passing chamber; and have a lower end having an ejection port formed thereon, and a bottom end portion of at least part of the one or plurality of ejection-port forming wall portions is formed into a shape that has a thickness reduced toward the lower side; the one or plurality of ejection-port forming wall portions includes a first portion and a second portion; and the height position of a lower edge of the first portion is higher than the height position of a lower edge of the second portion, and a lower edge of the one or plurality of ejection-port forming wall portions has a portion that extends horizontally.
A rotational cutting blade configured to rotate about an axis of rotation, the rotational cutting blade comprising: a hub defining the axis of rotation, a first arm extending radially from the hub to define a first distal end, wherein the first arm includes a first blade mounting point configured to at least partially receive a cutting element therein, wherein the first blade mounting point includes a first cutting boundary (150a, 150b), and wherein the first cutting boundary (150a, 150b) is subdivided into at least one access slot and at least one guard; and a second arm extending radially from the hub to define a second distal end, wherein the second arm includes a second blade mounting point configured to at least partially receive a cutting element, therein, wherein the second blade mounting point includes a second cutting boundary (150a, 150b), and wherein the second cutting boundary (150a, 150b) includes at least one access slot and at least one guard, wherein the at least one guard of the first blade mounting point is positioned at a first radial distance from the axis of rotation, wherein the at least one guard of the second blade mounting point is positioned at a second radial distance from the axis of rotation, and wherein the first radial distance is different than the second radial distance, characterized in that the guards of the blade mounting points of the blade are positioned so that where the guard is present in the first arm at least one access slot is present in the second arm over an entire radial cutting region. a hub defining the axis of rotation, a first arm extending radially from the hub to define a first distal end, wherein the first arm includes a first blade mounting point configured to at least partially receive a cutting element therein, wherein the first blade mounting point includes a first cutting boundary (150a, 150b), and wherein the first cutting boundary (150a, 150b) is subdivided into at least one access slot and at least one guard; and a second arm extending radially from the hub to define a second distal end, wherein the second arm includes a second blade mounting point configured to at least partially receive a cutting element, therein, wherein the second blade mounting point includes a second cutting boundary (150a, 150b), and wherein the second cutting boundary (150a, 150b) includes at least one access slot and at least one guard, wherein the at least one guard of the first blade mounting point is positioned at a first radial distance from the axis of rotation, wherein the at least one guard of the second blade mounting point is positioned at a second radial distance from the axis of rotation, and wherein the first radial distance is different than the second radial distance, characterized in that the guards of the blade mounting points of the blade are positioned so that where the guard is present in the first arm at least one access slot is present in the second arm over an entire radial cutting region.
Sales and transport container having mutually opposite longitudinal and transverse lateral walls (110, 120) which are disposed so as to be replaceable on the corner posts of a frame, wherein furthermore a horizontal base wall is disposed on the longitudinal and transverse lateral walls (110, 120), wherein the frame has two longitudinal bars which connected the corner posts to one another and furthermore has two transverse bars which are disposed on the longitudinal bars, and wherein provided is a retrofitting kit which has castors and is disposed so as to be replaceable on the frame, wherein the retrofitting kit is disposed on the transverse bars of the container; wherein the retrofitting kit for disposal on the two transverse bars has four holding eyelets, wherein the holding eyelets are embodied so as to be U-shaped, and wherein furthermore the holding eyelets in terms of size and shape are shaped so as to correspond to the transverse bars and are, therefore, embodied so as to be able to be disposed on the transverse bars of the container, and wherein furthermore the holding eyelets are attached so as to be stationary on the corners of a frame part.
A processor-readable medium, having stored thereon processor-executable instructions which, when executed by a processor, cause the processor to detect physiological movement of a user, the processor-executable instructions comprising: instructions to control producing, via a speaker coupled to an electronic processing device, a sound signal in a vicinity that includes the user; instructions to control sensing, via a microphone coupled to the electronic processing device, a sound signal reflected from the user; instructions to process the sensed sound signal; and instructions to detect a breathing signal from the processed sound signal, wherein the sound signal comprises a continuous wave signal that uses a single continuous sinusoidal tone. instructions to control producing, via a speaker coupled to an electronic processing device, a sound signal in a vicinity that includes the user; instructions to control sensing, via a microphone coupled to the electronic processing device, a sound signal reflected from the user; instructions to process the sensed sound signal; and instructions to detect a breathing signal from the processed sound signal, wherein the sound signal comprises a continuous wave signal that uses a single continuous sinusoidal tone.
A method of aerating a ground surface, comprising: penetrating a ground surface (340, 440) with a curved tine (15, 80, 90, 390, 490), the curved tine having a tip portion (395, 495) that is oriented substantially perpendicular to the ground surface as the tip portion penetrates the ground surface; and imparting compound motions to the curved tine while the curved tine is in the ground surface so as to form an aeration pocket (341, 342) in the ground surface, wherein the compound motions are imparted by a planetary gear system that imparts a translational motion and rotational motion to the curved tine; the translational motion is imparted by counterclockwise movement of a planet gear and the rotational motion is imparted by clockwise movement of a planet gear; and the epicycle orientation of the planet gear is an acute angle of less than 45-degrees from vertical (305, 405) when the tip portion penetrates the ground surface. penetrating a ground surface (340, 440) with a curved tine (15, 80, 90, 390, 490), the curved tine having a tip portion (395, 495) that is oriented substantially perpendicular to the ground surface as the tip portion penetrates the ground surface; and imparting compound motions to the curved tine while the curved tine is in the ground surface so as to form an aeration pocket (341, 342) in the ground surface, wherein the compound motions are imparted by a planetary gear system that imparts a translational motion and rotational motion to the curved tine; the translational motion is imparted by counterclockwise movement of a planet gear and the rotational motion is imparted by clockwise movement of a planet gear; and the epicycle orientation of the planet gear is an acute angle of less than 45-degrees from vertical (305, 405) when the tip portion penetrates the ground surface.
A hot air outdoor advertising structure comprising an envelope having at least one substantially flat surface and an opening for an hot air supply device (2, 15, 17) in its lower part, wherein the envelope is secured to the ground by means of a fixing rope so that the hot air advertising structure forms a buoyant body for flying above the ground, characterized in that, the envelope further comprises at least a second fixing rope and at least one joining rope having their ends connected from inside to the opposite side walls of the envelope, and at least four carrying ropes, having their upper ends connected from inside to the upper wall of the envelope and lower ends connected with at least one elastic coupler, said coupler being connected by means of at least four intermediate ropes with the hot air supply device (2, 15, 17).
An iron-based amorphous alloy as shown in formula, Fe a B b Si c RE d; wherein a, b and c respectively represent an atomic percent of corresponding components; 83.2≤a≤86.8, 11.0<b<15.0,2.0≤c≤4.0, and a+b+c=100; and d is concentration of RE in the iron-based amorphous alloy, and 10ppm≤d≤30ppm; RE is rare earth elements, which is one or more selected from La, Ce, Nd and Yb, wherein the RE concentration is measured with a direct-reading spectrometer. wherein a, b and c respectively represent an atomic percent of corresponding components; 83.2≤a≤86.8, 11.0<b<15.0,2.0≤c≤4.0, and a+b+c=100; and d is concentration of RE in the iron-based amorphous alloy, and 10ppm≤d≤30ppm; RE is rare earth elements, which is one or more selected from La, Ce, Nd and Yb, wherein the RE concentration is measured with a direct-reading spectrometer.
Process for the preparation of D,L-methionine in which an alkali methioninate solution is obtained by alkaline hydrolysis of 5-(2-methylmercaptoethyl)hydantoin, the process comprising the consecutive steps of (a) neutralizing the alkali methioninate solution at a temperature of between 65 °C and 95 °C by turbulent mixing with carbon dioxide in order to obtain a neutralized process solution and (b) crystallizing the D,L-methionine product in the presence of D,L-methionine seed crystals by cooling the process solution to a temperature in the range of 25 °C to 35 °C.