46results about How to "Guaranteed coupling" patented technology

The device (27) can be housed coaxially inside a sleeve (25) in which the supplies are situated, and comprises:a hollow cylindrical body (30) that fits inside the sleeve and accepts the mechanism (22) in the housing of the hollow body, with passages (33, 34, 36) for respectively connecting the supplies to said mechanism (22); anda cover (31) which is integrated or fixed, removably, on the front side of the cylindrical body and connects the hidden supplies to the respective passages of the body.

A device can be housed coaxially inside a sleeve in which the supplies are situated, and includes: a hollow cylindrical body that fits inside the sleeve and accepts the mechanism in the housing of the hollow body, with passages for respectively connecting the supplies to said mechanism; and a cover which is integrated or fixed, removably, on the front side of the cylindrical body and connects the hidden supplies to the respective passages of the body.

The invention provides a large-divergence-angle laser coupling single-mode optical fiber device and method, wherein the device is simple in structure, small in size and capable of saving resources. According to the invention, light emitted by a laser device is collimated by a collimating mirror and then is divided into transmission light and reflection light through a beam splitter prism; the reflection light is incident to a pyramid prism and then is absorbed by an industrial camera to form a reference light spot after being reflected in the original path; the transmission light split by thebeam splitter prism enters a microscope objective, is converged and then enters optical fiber, the coupling end surface of the optical fiber reflects a part of the incident light, and the part of thereflection light returns to the beam splitter prism along the original path, is reflected by the reflecting surface of the beam splitter prism and then is absorbed by the industrial camera to form a coupling light spot; and when the coupling light spot is completely overlapped with the reference light spot, the optical fiber emitted by the laser device is coupled into the optical fiber, otherwise,the pose of the optical fiber is adjusted until the coupling light spot is completely overlapped with the reference light spot. The device and the method of the invention can be applied to the fieldof fibers.

The invention provides a laser beam coupling detecting and debugging structure and a detecting and debugging method. The detecting and debugging structure comprises a laser emitter used for emitting lasers, a coupling mirror positioned on a laser optical path emitted by the laser emitter and used for gathering the lasers to form a laser beam, an adjusting rack used for placing the coupling mirror and adjusting the position of the coupling mirror, an optical fiber positioned on a laser beam optical path, and an optical fiber joint at the connection between the coupling mirror and the optical fiber. The coupling mirror is positioned between the optical fiber and the laser emitter. The end surface of the optical fiber is provided with a light spot reception layer, and the light spot reception layer has a central area. The center of the central area is superposed with the center of the end surface of the optical fiber. The invention can determine whether the position of the coupling mirror is qualified or not and adjust the coupling mirror to a quailed position, and thus the coupling efficiency of coupling the laser beam in the optical fiber is raised.

The invention provides an exoskeleton mixed control system and method for a lower limb walking assisting machine. The system comprises a track generation module and the like. A master controller module comprises a high impedance controller module and a self-adaptation control module. The track generation module generates lower limb exoskeleton joint track information and guides the lower limb exoskeleton joint track information into the master controller module. A position and speed feedback module collects position and speed information of joints of exoskeletons and feeds back the position and speed information to the master controller module. An FSR circuit module detects the contact force information of soles and the ground through FSR pressure sensors installed at the soles of the exoskeletons and sends the information to a controller decision module in the form of voltage. The controller decision module judges whether the leg swinging period exists or the standing period exists according to the voltage information and sends the judgment result to a 51 single chip microcomputer module. The exoskeleton mixed control system and method are feasible, and the control effect and user experience of the machine exoskeleton system can be improved through mixed bottom layer controllers.

The invention relates to an ultrasonic phased array detection system for a transitional circular arc inside a cavity. The system comprises an ultrasonic phased array detector, a detection probe and a positioning device. The system is characterized in that a probe propelling device consisting of an auxiliary operating frame, a balancing weight, a probe clamping block, a fine steel wire and the like is designed. The ultrasonic phased array detection system for the transitional circular arc inside the cavity provided by the invention has the advantages of: 1, ensuring that the centre of curvature of an arc-shaped wafer of the detection probe is concentric with the circular arc detected so that an ultrasonic wave is vertically incident to corner parts of the circular arc detected so as to realize detection with high sensitivity of all parts of the circular arc; 2, ensuring that the probe operates stably in the cavity structure clings to the side wall of the circular arc detected; 3, ensuring coupling of detection by forming a sealed water cavity between the detection wafer of the probe and the circular arc detected through the detection probe and the front and back clamping blocks; and 4, precisely positioning the movement position of the detection probe through the probe positioning device so as to position the defect horizontal position precisely.

The invention discloses a combined casing pipe suitable for tunnel tsp forecast, a system, and a method. The casing pipe is easy to assemble, is convenient to recycle, and is simple in measurement. An inner casing pipe and an outer casing pipe are in threaded connection, thereby achieving a function of protecting a sensor. Surrounding rocks, the sensor and the casing pipes are tightly coupled together, thereby guaranteeing the collection efficiency of signals. Meanwhile, the threaded connection can enable a part of components of the casing pipe to be recycled, thereby reducing the consumption of the casing pipe and improving the economic benefits. An angle measurer completes the measurement of the azimuth and inclination angle of the casing pipe through a built-in gyroscope. Most of parts are made of resin material with certain plasticity and steel, and the components are combined in a separated or segmented manner. The casing pipe can effectively protect the coupling among the sensor, the casing pipe and the surrounding rocks, and guarantee that the sensor can achieve the effective receiving of a TSP detection signal. Meanwhile, a part of components of the casing pipe can be recycled, thereby reducing the consumption of the casing pipe and improving the economic benefits.

The invention provides an ultrasonic vibration device for coaxial ultrasonic-assisted laser shot peening, which mainly includes a vibration rod, a horn, a piezoelectric ceramic, a first optical glass, a second optical glass, a vibration rod and a horn A through hole is machined in the axial center, and the lower end of the vibration rod is fixedly connected with the upper end of the horn; the first optical glass is located on the top of the vibration rod, and the second optical glass is located at the bottom of the horn. The upper end of the vibrating rod extends out of the upper surface of the upper casing and is fixedly connected with it, and the piezoelectric ceramic is mounted on the vibrating rod. In the ultrasonic vibration device, after the piezoelectric ceramic is energized, the electrical energy is converted into mechanical energy to generate ultrasonic waves, and the amplitude of the mechanical vibration is amplified through the horn. A through hole is machined in the axial center of the vibrating rod and the horn, which provides a propagation channel for the laser, and realizes the coaxial propagation of the ultrasonic vibration wave and the laser shock wave. To ensure the coupling of the two during the propagation process, to promote the dynamic recrystallization behavior of the material, and to prepare metal parts with ultra-fine grain surfaces.