37results about How to "Solve debugging difficulties" patented technology

The invention discloses a shutter integrated device, a control system and a time sequence control method. The shutter integrated device comprises an integrated device bottom plate, a first CCD camera, a second CCD camera, a first shutter switch, a second shutter switch and a light splitting device. The first CCD camera, the second CCD camera and the light splitting device are all installed on the integrated device bottom plate. The first shutter switch is arranged on the first CCD camera, and the second shutter switch is arranged on the second CCD camera; and the first shutter switch and the second shutter switch are respectively connected with the control system. According to the invention, the debugging difficulty caused by the position and state difference of the camera is avoided, the efficiency is improved, the system error is eliminated, the MHz exposure is realized, the exposure images do not interfere with each other and influence each other, and the overall precision and stability of the system are improved.

The invention discloses a coupled resonant filter and a debugging method thereof, comprising a resonant rod, a coaxial transmission line, a metal diaphragm and an outer conductor of the filter, the resonant rod is located in the outer conductor of the filter, and the two ends of the coaxial transmission line respectively pass through the filter The outer conductor and the two ends of the coaxial transmission line are respectively movably connected to the outer conductor of the filter; the two ends of the coaxial transmission line are respectively connected with a metal diaphragm, and the metal diaphragm is facing the resonant rod; In some cases, the distance between the cross-coupled metal diaphragm and the resonant rod is adjusted by pulling the coaxial transmission line, thereby adjusting the coupling size, which is a good solution to the problem that the cross-coupling structure filter in the traditional cavity can only be adjusted by opening the filter shell. The problem of difficult debugging brought about by the cross-coupling structure can achieve the technical effect of balancing multiple indicators at the same time.

The invention discloses a micro-processing device, an on-line debugging system and method. The on-line debugging method includes the first step that a micro-processing unit receives first data on a bus through an input interface; the second step that the micro-processing unit decodes the first data to obtain the data type of the first data and carries out corresponding processing on the data type of the first data or the micro-processing unit receives the first data from an input functional module through the input interface; the third step that the micro-processing unit codes the first data and sends the first data to an output functional module through an output interface. According to the on-line debugging method, the problem that a behavior-based robot is difficult to debug is solved, data information of a behavior-based robot system in the running process is collected and local functional modules are debugged, so reasons for problems can be conveniently analyzed and the problems can reappear conveniently.

The invention discloses a farmland vehicle. The farmland vehicle comprises a frame and the like; a brake pedal assembly and an accelerator pedal assembly are assembled on the two sides of an accelerator brake seat in a swinging manner, wherein a pin shaft is formed in each of the two sides of the accelerator brake seat; one end of the brake pedal assembly and one end of the accelerator pedal assembly sleeve and are transversely positioned on the two pin shafts respectively; a distance is reserved among the brake pedal assembly, the accelerator pedal assembly and the accelerator brake seat; the pin shafts arranged in the distance are sleeved with torsion springs and torsion spring locking pattern baffles; one ends of the torsion springs are arranged on the accelerator brake seat and the other ends of the torsion springs are arranged on the torsion spring locking pattern baffles; the two torsion spring locking pattern baffles are arranged on the brake pedal assembly and the accelerator pedal assembly respectively. The farmland vehicle adopts a manner of integrally mounting a brake pedal and an accelerator pedal, and the brake pedal and the accelerator pedal are arranged on the two sides of the accelerator brake seat respectively and are provided with the torsion spring locking pattern baffles respectively; a brake torsion spring and an accelerator torsion spring are mounted on the corresponding pin shafts respectively and are connected with the torsion spring locking pattern baffles and the pedals; limiting devices are arranged on the brake pedal and the accelerator pedal respectively and the height of the pedals is convenient to adjust.

The invention provides an unmanned distribution vehicle debugging system, and belongs to the technical field of vehicle debugging. The unmanned distribution vehicle debugging system comprises an unmanned distribution vehicle, a debugging vehicle, a mechanical link and a power module, a cockpit is arranged on the debugging vehicle, and a debugging module and a takeover mechanism located in the cockpit are further arranged on the debugging vehicle. The debugging module is electrically connected with a first electrical system of the unmanned distribution vehicle, a second electrical system of thedebugging vehicle is electrically connected with the first electrical system, the takeover mechanism is mechanically connected with a mechanical system of the unmanned distribution vehicle through the mechanical link, and the power module is electrically connected with the debugging module, the first electrical system and the second electrical system, respectively. By means of the control of thesecond electrical system on the debugging vehicle and by means of the debugging module and the takeover mechanism arranged in the cockpit of the debugging vehicle, the unmanned distribution vehicle debugging system provided by the invention realizes the synchronous movement of the debugging vehicle and the unmanned distribution vehicle, and the debugging personnel can debug and take over the unmanned distribution vehicle in the cockpit of the debugging vehicle, so that the problem of debugging difficulty of the unmanned distribution vehicle is solved.

The invention relates to the technical field of glued film production, in particular to an economical single-drive shaftless surface winding machine. The economical single-drive shaftless surface winding machine comprises a frame; and the frame is provided with a driving roller mechanism for driving paper tubes to rotate for winding, a paper tube feeding mechanism for feeding the paper tubes to the driving roller mechanism, a traction mechanism for conveying films to the paper tubes and a driving mechanism for supplying power for the driving roller mechanism and the traction mechanism. The economical single-drive shaftless surface winding machine realizes direct winding of the films on the paper tubes, simplifies the procedures, and saves the cost.

The invention discloses a development and test system for a micro-application in a mobile terminal. The development and test system comprises the micro-application, a debugging assistant, a web container, a native module and a browser kernel, the micro application is an offline resource set developed on the basis of HTML, JavaScript and CSS technologies, exists independently, and does not depend on mobile terminal App operation. The debugging assistant is used for directly debugging the micro-application / web page at the mobile terminal, positioning problems and debugging performance; the browser kernel is a rendering kernel borne by the Android end and the iOS end, the iOS end uses a webKit kernel of the system, and the Android end uses a private kernel to replace the browser kernel of thesystem; the web container is designed on the basis of a browser kernel, and micro-application loading rendering and native communication are achieved. According to the method, the problems that native heating is inconvenient to update, native webpage loading is slow, user experience is poor, and developers are difficult to debug at a mobile terminal are solved.

The invention discloses an access configuration method for realizing plug-and-play of IEC61850 intelligent devices. The steps are: (1) a monitoring system periodically scans the system network where it is located, and when an intelligent device with a built-in ICD file is found to be connected to the system network, The monitoring system identifies the smart device and obtains its ICD file; (2) The monitoring system uses the ICD file of the smart device to automatically incrementally configure the original SCD file to obtain a new SCD file; (3) The monitoring system uses the new SCD file to generate Aim at the CID file of the smart device and transfer the CID file to the corresponding smart device; (4) The monitoring system and the smart device are re-initialized and a communication connection is established. The method realizes plug-and-play in the true sense, better solves the problem of difficult configuration and debugging of smart substation reconstruction and expansion, and can effectively improve the configuration and commissioning efficiency of smart substation reconstruction and expansion.

The invention discloses a lower cross beam balance device of an ultralarge powder forming machine. The device comprises a first connecting mechanism, a second connecting mechanism, a steering connection head and an extension cylinder; the first connecting mechanism comprises a fixed bracket, a first connecting shaft, a flange end cover, a shaft sleeve, a transition shaft sleeve, a flange shaft sleeve and a first locking nut; the fixed bracket comprises a first mounting plate and a mounting base; one end of the first connecting shaft cooperates with the mounting base; the other end of the firstconnecting shaft is connected into a shaft hole of a steering head at the upper end of a connecting head, and extends out of the shaft hole; a thread is arranged at the shaft hole extension end, andis axially positioned by adopting a first locking nut; a shaft shoulder is arranged on the first connecting shaft between the mounting base and a steering head for axially positioning the first connecting shaft; and a fixed base is fixedly connected to the lower end of the extension cylinder, and is connected to a lower box base through the second connecting mechanism. When the balance device is mounted on equipment, the position can be finely adjusted by the thread depth cooperation and the extension cylinder rotation to realize flexible installation.