In recent years, the transformation of traditional manual microscopes into electric microscopes has become the mainstream choice for laboratory upgrading. This is not a mere pursuit of new tides, but a pragmatic shift that is driven by a combination of automated demand, economic considerations and mature technology. Its core advantage is to upgrade the classical optical system to a programmable automated image-gathering platform at very small financial and time costs to rejuvenate old equipment. Performance leapfrogging is a fundamental attraction for transformation. With the installation of an electro-carrying platform and a focus module, microscopes automatically complete multi-point, multi-focal mass imaging and easily achieve a panoramic collage or micro-pornography of the entire pathology slice — tasks that are almost impossible to imagine manually. A high-precision step feeder or voltage power drive provides a nanoscale Z-axis repositioning, combined with automatic focus algorithms,
In recent years, the transformation of traditional manual microscopes into electric microscopes has become the mainstream choice for laboratory upgrading.
This is not a mere pursuit of new tides, but a pragmatic shift that is driven by a combination of automated demand, economic considerations and mature technology.
Its core advantage is to upgrade the classical optical system to a programmable automated image-gathering platform at very small financial and time costs to rejuvenate old equipment.
Performance leapfrogging is a fundamental attraction for transformation.
With the electro-carrying platform and the focus module, microscopes automatically complete multi-point, multi-focal mass imaging, and easily achieve a panoramic fusion or micro-pornography of the entire pathology slice — tasks that are almost impossible to imagine manually.
High-precision step-by-step machines or voltage power drives can provide the nanoscale Z-axis duplicate positioning, combined with automatic focus algorithms, and each collected focal plane is accurate and consistent, completely eliminating the difference between man-orientated drift and individual, which is essential for long-term tracking of living cells, fluorescent ration, etc.
Through script control, the system is also able to automatically switch fluorescent channels, perform a single-key multi-dimensional collection of X, Y, Z, time and channels, with a time accuracy of milliseconds, and captures a fast dynamic process that was previously physically difficult to access.
The retrofitting of the platform is more economical than the purchase of a fully electric new machine of the same class, with a brand-new electron microscope, which tends to sell at a price of hundreds of thousands to millions of dollars, while the retrofitting requires the installation of components such as an electric-carrying platform, Z-axis drive, and a filter rotor, at a cost of between one third and one fifth of the new machine, or tens of thousands to over 100,000.
This provides an excellent alternative not only for small and medium-sized laboratories with limited budgets, but also for a large number of high-end microscopes that are idle because of manual incompetence, and avoids waste of resources.
At the same time, automation has freed a lot of people, and operators no longer focus for long periods of time.
Eyescopes, spin buttons, fatigue, and the ease with which non-microscope specialists design complex experimental processes through graphical interfaces, transform high-end equipment from “personal skills tools” to “public testing platforms”.