Technology is now a fundamental portion of education inside recent times. With the advance of digital microscopes implementing various kinds of laboratory experiments has grown to be simpler than ever before. Digital microscopes were earlier utilized only by scientists for research purposes. However, fractional treatments have effectively been implemented in the education system as well. Before such technology may be shown the scholars, it’s imperative that teachers too know the benefits of using digital microscopes. This would ensure a smooth flow of instruction allowing the teachers to go on from concept to actual application.
For instance, explaining cell multiplication or plant growth is not good if students cannot visualize it. Even if the teacher draws a diagram to describe the concept in a better manner, actually viewing a phenomenon features a far more lasting effect. Students are extremely interested in knowing new ideas and elements of a subject matter. However, lectures don’t have to be lengthy and boring rhetoric of technical words. With instruments like the digital microscope, learning has become more interactive, where students can immediately view the theory being taught. For instance, while teaching structures of rock or sand, the teacher can immediately show the structures by displaying the picture using the pc monitor or by connecting from the projector. This enables the whole class to view what exactly is being trained, thus enhancing the capability to be aware of the subject as a whole.
To ensure the digital microscope is as useful as is possible for classroom implementation, several factors should be considered:
Magnification: Level and flexibility of magnification are critical. The magnification starting from 10x to 200x gives a clear look at the object being studied, maybe it’s a rock sample or structure of the cell.
Resolution: Resolution is an additional big factor. If the images will probably be viewed on the large computer monitor or via a data projector, high definition is crucial so the look quality does not distract students. A resolution of 1280×1024 is suggested.
Flexibility: A digital microscope needs to be durable and flexible. The handheld digital microscope is incredibly useful as it can be moved to the specimen instead of the specimen being gone to live in it. It allows students to explore soil and rock specimens in an investigative manner. It also allows students to press the scope against their arm or hand to watch sweat seeping through the pores. This can not easily (if at all) be observed having a traditional microscope.
Price: Cost-effectiveness is very important in education. A quality handheld digital microscope can be obtained for just $200.
Software: Software suitable for education use is another must. The software should allow students to zoom in to view greater detail, should allow students to take time-lapse videos also as still images and regular videos, and may allow students to measure specimens. Captured images may then be printed and along with the lab report or be used in a PowerPoint presentation.
Students tend to be receptive to the theory when it’s taught alongside the actual application. For instance, students may not be capable to visualize the life cycle of the insect, since they haven’t seen it intangible. Some digital microscopes are packaged as part of an educational kit to make implementation less difficult. The SmartScope may be packaged with a Life Cycle specimen kit displaying the life cycle of a moth in four stages, eggs, caterpillar, pupae and moth. This is a very good method of making the scholars see the basic stage, the location where the teacher can explain how they’re similar or different from other insects.
The digital microscope has truly empowered teachers and students alike. Teachers have become doubly equipped to describe different concepts while easily relating it to the down to earth. The implementation of which technology with the school level, has given education a much more research-based approach than being instructional.