mhurhangee/ep-ind-claims huggingface dataset:
An impact tool comprising: a motor; a housing accommodating therein the motor; a hammer rotatable by the motor; an anvil against which the hammer strikes in a rotational direction of the hammer; a hammer case covering the hammer and the anvil; and, an end tool holding unit connected to the anvil and protruding from the hammer case in a first direction, wherein the housing supports the hammer case at at least two locations, characterized in that, the hammer case has a large-diameter part at the rear portion thereof, a step part provided with a tapered step at the front side of the large-diameter part, a small-diameter part whose diameter is smaller than that of the large-diameter part and located at the front side of the step part, and wherein the housing has a front part which integrally extended frontward and supports the small-diameter part to restrain movement of the hammer case in the radial direction. a motor; a housing accommodating therein the motor; a hammer rotatable by the motor; an anvil against which the hammer strikes in a rotational direction of the hammer; a hammer case covering the hammer and the anvil; and, an end tool holding unit connected to the anvil and protruding from the hammer case in a first direction, wherein the housing supports the hammer case at at least two locations, characterized in that, the hammer case has a large-diameter part at the rear portion thereof, a step part provided with a tapered step at the front side of the large-diameter part, a small-diameter part whose diameter is smaller than that of the large-diameter part and located at the front side of the step part, and wherein the housing has a front part which integrally extended frontward and supports the small-diameter part to restrain movement of the hammer case in the radial direction.
A movable object control system including a movable object movable in a room with a person riding thereon, and a movable object control unit that controls an operation of the movable object, the movable object control system comprising: an air conditioner configured to perform air conditioning in the room; and an air conditioning control unit configured to control an operation of the air conditioner such that a plurality of thermal areas (11a, 11b, 11c, and 11d) different in at least the temperature are formed in the room, a comfort determination unit configured to determine comfort of the person riding on the movable object in a thermal environment in the room based on at least the temperature, a biological information acquisition unit configured to acquire biological information of the person riding on the movable object, wherein the comfort determination unit is configured to determine comfort on the basis of the biological information acquired by the biological information acquisition unit, wherein the movable object control unit is configured to control the operation of the movable object to move the movable object to a thermal area (11a, 11b, 11c, or 11d) where the person feels comfortable when the comfort determination unit determines discomfort. an air conditioner configured to perform air conditioning in the room; and an air conditioning control unit configured to control an operation of the air conditioner such that a plurality of thermal areas (11a, 11b, 11c, and 11d) different in at least the temperature are formed in the room, a comfort determination unit configured to determine comfort of the person riding on the movable object in a thermal environment in the room based on at least the temperature, a biological information acquisition unit configured to acquire biological information of the person riding on the movable object, wherein the comfort determination unit is configured to determine comfort on the basis of the biological information acquired by the biological information acquisition unit, wherein the movable object control unit is configured to control the operation of the movable object to move the movable object to a thermal area (11a, 11b, 11c, or 11d) where the person feels comfortable when the comfort determination unit determines discomfort.
A sealing device for banjo fittings, the sealing device comprising: a first sealing means; a second sealing means; wherein the first sealing means differs from the second sealing means and one or more straps attach the first sealing means to the second sealing means, characterised in that at least one of the straps includes an orientation indicator. a first sealing means; a second sealing means; wherein the first sealing means differs from the second sealing means and one or more straps attach the first sealing means to the second sealing means, characterised in that at least one of the straps includes an orientation indicator.
An anti-reflection film comprising a high refractive index layer comprising a first binder including a crosslinked polymer of a multifunctional (meth)acrylate compound, and nano silica particles dispersed in the first binder; and a low refractive index layer laminated on the high refractive index layer, and comprising a second binder including a crosslinked copolymer of a multifunctional (meth)acrylate compound and a fluorine-based (meth)acrylate compound, and hollow silica particles and hollow silica particles coated with a fluorine-based compound on the surface, which are dispersed in the second binder, wherein the weight ratio of the hollow silica particles coated with the fluorine-based compound to the hollow silica particles in the low refractive index layer is 1:1∼10, wherein the hollow silica particles coated with a fluorine-based compound on the surface in the low refractive index layer has a distribution gradient increasing toward a direction away from the high refractive index layer.
A method of preparing a specimen in a dual-beam charged particle microscope having: - an ion beam column, that can produce an ion beam that propagates along an ion axis; - an electron beam column, that can produce an electron beam that propagates along an electron axis, comprising the following steps: - Providing a precursor sample on a sample holder; - Using said ion beam to cut a furrow around a selected portion of said sample; - Attaching a manipulator needle to said portion, severing said portion from the rest of said sample, and using the needle to perform a lift-out of the portion away from the rest of the sample, characterized by: - Configuring the manipulator needle to have multiple degrees of motional freedom, comprising at least: • Eucentric tilt θ about a tilt axis that passes through an intersection point of said ion and electron axes (33', 3') and is perpendicular to said electron axis; • Rotation φ about a longitudinal axis (41") of the needle; - Whilst maintaining said portion on said needle, using said ion beam to machine at least one surface of said portion, so as to create said specimen; - Whilst maintaining said portion on said needle, inspecting it with said electron beam, for at least two different values of said φ rotation. - an ion beam column, that can produce an ion beam that propagates along an ion axis; - an electron beam column, that can produce an electron beam that propagates along an electron axis, - Providing a precursor sample on a sample holder; - Using said ion beam to cut a furrow around a selected portion of said sample; - Attaching a manipulator needle to said portion, severing said portion from the rest of said sample, and using the needle to perform a lift-out of the portion away from the rest of the sample, - Configuring the manipulator needle to have multiple degrees of motional freedom, comprising at least: • Eucentric tilt θ about a tilt axis that passes through an intersection point of said ion and electron axes (33', 3') and is perpendicular to said electron axis; • Rotation φ about a longitudinal axis (41") of the needle; • Eucentric tilt θ about a tilt axis that passes through an intersection point of said ion and electron axes (33', 3') and is perpendicular to said electron axis; • Rotation φ about a longitudinal axis (41") of the needle; - Whilst maintaining said portion on said needle, using said ion beam to machine at least one surface of said portion, so as to create said specimen; - Whilst maintaining said portion on said needle, inspecting it with said electron beam, for at least two different values of said φ rotation.
A method of filling level measurement in a container having a medium and at least one interference layer arranged thereabove, in particular a foam layer, wherein an electromagnetic signal is transmitted along a probe arranged in the container and a signal course of the signal reflected in the container is recorded, a first measurement pulse corresponding to the interface to the medium and a second measurement pulse corresponding to the interference layer are identified in the signal course and the filling level of the medium is determined from the first measurement pulse and/or the filling level of the interference layer is determined from the second measurement pulse, wherein an expectation value A 2 E of the amplitude A 2 of the first measurement pulse and an expectation value A 1 E of the amplitude A 1 of the second measurement pulse are first calculated and the first measurement pulse and the second measurement pulse are identified using the expectation values A 1 E, A 2E, characterized in that the expectation values are calculated from a reference amplitude A end of an artifact pulse arising at the probe end with an empty container, namely, the expectation value A 1 E for the amplitude of the second measurement pulse A 1 using the formula A 1 E = A end 1 − ε r min 1 + ε r min and the expectation value A 2 E for the amplitude A 2 of the first measurement pulse using the formula A 2 E = A end 2 − A 1 2 A end ⋅ A end − A 1 − ε r A end + A 1 A end − A 1 + ε r A end + A 1, wherein ε r is a known relative dielectric constant of the medium and ε r min is an at least assumed relative dielectric constant of the interference layer.
An optical transmitter, comprising a digital signal processor coupled to a digital-to-analog converter (11, 12) for generating multi-level drive signals; and an I/Q modulator for modulating an optical carrier signal with the drive signals to generate a quadrature amplitude modulated optical signal; wherein the digital signal processor is adapted to perform a digital filter function on data elements to be transmitted to pre-compensate for a characteristic of at least one circuit component of the optical transmitter causing distortions in the quadrature amplitude modulated optical signal, characterized in that the digital filter function comprises a combination of a finite impulse response filter (FIR1, FIR2) and a filter with non-linear characteristics to pre-compensate for a non-linear characteristic of the at least one circuit component, wherein the digital filter function comprises a function performed on a sequence of consecutive data elements (x1-x7), wherein the non-linear characteristics filter is applied to one or more inner data elements (x3-x5) of the sequence and wherein the finite impulse response filter (FIR1, FIR2) is applied to two or more outer data elements (x1, x2, x6, x7) of the sequence.
A glass article formed from a glass containing a total of 10 percent by weight or more of potassium oxide K 2 O and zinc oxide ZnO, substantially containing neither lead oxide PbO nor barium oxide BaO, and having the following glass composition comprising: SiO 2 in a content of 65 percent or more by weight and 70 percent by weight or less; Al 2 O 3 in a content of 1 percent by weight or more and 3 percent by weight or less; Na 2 O in a content of 8 percent by weight or more and less than 10 percent by weight; K 2 O in a content of 8 percent by weight or more and less than 10 percent by weight; MgO in a content of 2 percent by weight or more and 3 percent by weight or less; CaO in a content of 3 percent by weight or more and 4.2 percent by weight or less; SrO in a content of more than 3.2 percent by weight and less than 4.2 percent by weight; ZnO in a content of 0.5 percent by weight or more and 2 percent by weight or less; TiO 2 in a content of 0.5 percent by weight or more and 2 percent by weight or less; Sb 2 O 3 in a content of 0 percent by weight or more and 0.4 percent by weight or less; and one or more of SnO 2, Y 2 O 3, La 2 O 3, and ZrO 2 in a total content of 0 percent by weight or more and 1.2 percent by weight or less. SiO 2 in a content of 65 percent or more by weight and 70 percent by weight or less; Al 2 O 3 in a content of 1 percent by weight or more and 3 percent by weight or less; Na 2 O in a content of 8 percent by weight or more and less than 10 percent by weight; K 2 O in a content of 8 percent by weight or more and less than 10 percent by weight; MgO in a content of 2 percent by weight or more and 3 percent by weight or less; CaO in a content of 3 percent by weight or more and 4.2 percent by weight or less; SrO in a content of more than 3.2 percent by weight and less than 4.2 percent by weight; ZnO in a content of 0.5 percent by weight or more and 2 percent by weight or less; TiO 2 in a content of 0.5 percent by weight or more and 2 percent by weight or less; Sb 2 O 3 in a content of 0 percent by weight or more and 0.4 percent by weight or less; and one or more of SnO 2, Y 2 O 3, La 2 O 3, and ZrO 2 in a total content of 0 percent by weight or more and 1.2 percent by weight or less.
A method for assigning frequency selective and frequency non-selective resources to users in an orthogonal frequency-division multiplexing (OFDM) wireless communication system, the method comprising: assigning, at a scheduling entity, a FS frequency resource to a first user during a time interval, the FS frequency resource assignment includes at least two contiguous sub-channels; assigning a FNS frequency resource to a second user during the same time interval, the FNS frequency resource assignment includes at least two sub-channels non-contiguous in frequency, wherein the FS and FNS frequency resource assignments are part of a common frequency channel and wherein the at least two non-contiguous sub-channels of the FNS frequency resource assignment are separated by not less than one quarter of the common frequency channel. assigning, at a scheduling entity, a FS frequency resource to a first user during a time interval, the FS frequency resource assignment includes at least two contiguous sub-channels; assigning a FNS frequency resource to a second user during the same time interval, the FNS frequency resource assignment includes at least two sub-channels non-contiguous in frequency, wherein the FS and FNS frequency resource assignments are part of a common frequency channel and wherein the at least two non-contiguous sub-channels of the FNS frequency resource assignment are separated by not less than one quarter of the common frequency channel.
Apparatus for enabling a user to interact with movable graphic control elements of a graphical user interface using movement of a hand, and one or more fingers (16, 18) of said hand relative to a thumb on said hand, the apparatus comprising: a camera adapted to be releasably mounted to said hand or thumb of the user, and a processor adapted to receive signals representative of successive images captured by the camera during movement of said hand, and of movement of a finger of said hand relative to said thumb, to analyse said successive images to determine said movement, and to communicate with the GUI to control graphic control elements thereof in accordance with the determined movement, wherein the processor is adapted to divide the field of view of the camera into a plurality of sectors, at least two of which contain at least one high contrast area, to determine at least one vector relating to the movement of each high contrast area between successive images to determine sector movement vectors for at least two sectors, and to combine the sector movement vectors in order to determine movement of the hand in three translational and one rotational dimension, and wherein the processor is adapted to interpret the obscuring of a portion (60, 62) on one side of the field of view (Ia, Ib, Ic, Id) of the camera by a fingertip coming into contact with said thumb as a predetermined instruction to the GUI. a camera adapted to be releasably mounted to said hand or thumb of the user, and a processor adapted to receive signals representative of successive images captured by the camera during movement of said hand, and of movement of a finger of said hand relative to said thumb, to analyse said successive images to determine said movement, and to communicate with the GUI to control graphic control elements thereof in accordance with the determined movement,
A knotless or self-fixing surgical suture material thread (100; 200) comprising a main body (110; 210), and anchoring structures (120; 220) that are formed on the surface of the main body (110; 210) of the thread and are used for anchoring in biological tissues, wherein at least some of the anchoring structures (120; 220) are covered at least partially by a coating (130; 230) of the main body (110; 210) of the thread, which coating (130; 230) can be removed by means of liquids, wherein at least some of the anchoring structures (120; 220) are completely embedded in the coating (130; 230) and the anchoring structures (120; 220) are fixed by the coating, in a certain position on the surface of the main body (110; 210) of the thread (100;200), characterized in that the anchoring structures (120; 220) are hook-shaped, escutcheon-shaped, shield-shaped, scale-shaped, wedge-shaped, thorn-shaped, arrow-shaped, V-shaped and/or W-shaped on the surface of the main body (110; 210) of the thread (100; 200).
An extruder with an extruder housing, which has at least two housing parts (12, 13) and which has, for the extruding of a medium, a conveyor tunnel, in which at least one screw conveyor is placed, wherein the extruder housing is removably held on a frame by a first holding device and the screw conveyor is connected to a driving device at a shaft section in a removable manner, wherein the housing parts (12, 13) are fixed relative to each other by a second holding device, and wherein the extruder housing is connected to the frame and is secured against a lengthwise movement by a third holding device, characterized in that a cooling/heating device is mounted on the frame underneath the extruder housing, that the extruder housing is mounted on the cooling/heating device and is held thereon by the first holding device, that the extruder housing is tensioned on the cooling/heating device and contacts it thermically, and that the housing parts (12, 13) can be removed as a unit from the frame and the cooling/heating device when the first and third holding device (20, 25) are released.
Method for manufacturing foil bags, preferably tobacco bags, in which a foil web is welded, in particular ultrasonically, at a welding station, to at least one of two profile strips, which can be releasably connected to one another, of a multi-action pressure closure, preferably while the foil web and the profile strip are being continuously conveyed along the welding station, wherein the profile strip is subjected, during the welding operation, to compressive forces, which act in the longitudinal direction of said profile strip and counteract creasing of the foil web, wherein the compressive forces are applied to the profile strip by means of a force-transmission member (21a, 21b) acting on the profile strip, wherein, in the region of the welding station, the profile strip is guided laterally by a guide means in order to prevent lateral buckling, caused by the compressive forces, of the profile strip, wherein the foil web is pressed against a contact means (22a, 22b) opposite the welding member during the welding process, with the profile strip being carried along by a welding member (23a, 23b) arranged downstream of the force-transmission member (21a, 21b), wherein the contact means (22a, 22b) faces the same side of the profile strip as the force-transmission member (21a, 21b), characterized in that the guide means, in particular a guide roller or a guide rail, is arranged with respect to the longitudinal direction or conveying direction of the profile strip between the force-transmission member (21a, 21b) and the contact means (22a, 22b), preferably in such a manner that it faces the same side of the profile strip as the force-transmission member (21a, 21b) and the contact means (22a, 22b).
An arrangement for controlling a shutdown phase of a WHR-system, wherein the WHR-system comprises a main circuit which comprises a pump, an evaporator, an expander and a condenser, and a compensation tank which is configured to compensate for volume changes of a working fluid in the main circuit during operation of the WHR-system, wherein the arrangement comprises a control unit configured to receive information when the shutdown phase of the WHR-system is to be initiated and flow means able to supply working fluid from the compensation tank to the main circuit, and that the control unit is configured to activate said flow means such that working fluid is supplied from the compensation tank to the main circuit when it receives information indicating that the shutdown phase of the WHR-system is to be initiated, wherein said flow means comprises a flow member arranged to circulate the working fluid in the main circuit during at least a part of the shutdown phase, and wherein the flow member is the pump in the WHR-system, characterized in that said flow means comprises a first connection line and a second connection line connecting the compensation tank and the main circuit, a first valve member configured to direct working fluid from the main circuit to the compensation tank via the first connection line and a second valve member configured to direct working fluid from the compensation tank to the main circuit via the second connection line.
A tool system comprising a tool change carrier having at least two tool receptacles and at least two tool heads (3, 5, 15, 17, 18, 27, 34, 40, 43) that are set up for fixing to the tool receptacles, wherein the tool change carrier is a tool turret having a turret rotation unit which is arranged in a rotatable manner relative to a main turret body and has the tool receptacles, at least one of the tool heads is an optical tool head (3, 15, 17, 18) suitable for irradiating a workpiece with electromagnetic radiation, the optical tool head (3, 15, 17, 18) having a tool optical unit for deflecting and/or shaping the electromagnetic radiation, radiation guiding means for guiding electromagnetic radiation through the tool change carrier are provided, the radiation guiding means comprise a central optical unit (8, 37) which is arranged in the turret rotation unit and directs the electromagnetic radiation in the direction of at least one of the tool receptacles, and at least some of the tool receptacles are transmissive for electromagnetic radiation, characterized in that the electromagnetic radiation is guided through the main turret body at a distance from the longitudinal center axis of the main turret body and the central optical unit is annular or ring-like.
Dynamic nanofocusing system for applications in the field of microscopy or interferometry, wherein the nanofocusing system comprises a lever-transmitted piezo actuator as well as a frictionless guide on the basis of an elastically deformable solid-body joint which is connected to a receiving unit for an objective lens so as to realize a primary coarse adjusting movement at a first frequency and a first adjusting distance for focusing, characterized in that to the receiving unit, which is driven by the lever-transmitted piezo actuator, a first and a second piezo actuator are fixed for realizing a secondary fine adjusting movement at a second, higher frequency and a second, smaller adjusting distance, wherein the first piezo actuator, for its part, is connected the objective lens to be moved and the second piezo actuator with a compensation mass, so that the first and the second piezo actuators (9, 10) form a moment compensating drive.