In each passage that I read, "Energy Story", "Conducting Solutions", and the video "Hands on Science with squishy Circuits" there are many similarities and differences within the information I have gained in the articles and the video. The main idea of this video is to mainly inform you about electricity, the main principles of it, and some different ways to make electricity.
Squish circuits bridge the gap between professional engineers and young, aspiring, minds. One of the Perot Museum’s main concepts is exposure; Squishy Circuits provides children, who normally wouldn’t be exposed to electrical engineering in school, a chance to broaden their horizons. Squishy circuits, utilizes Play-Doh-like-clay as conductors and insulators in order to build small circuits. Using something familiar like clay, allows kids to easily grasp the concept. It also allows for people of all age groups to be able to expand their knowledge of electrical engineering with varying levels of complication. The patrons can make circuits with LED lights, motors, buzzers, and much more.
In the present generation, almost every devices run through batteries. Batteries are a collection of cells where their chemical reactions create a flow of electricity in a circuit. Every battery consists of three essential components, which are an anode, a cathode, and an electrolyte that chemically reacts with the other two components. In the 17th and 18th century, electricity was just a curiosity, but as time passed by, it became one of the most important and required tools. For instance, any kind of remotes in order to have an access to any kind of devices requires batteries. Alessandro Volta was the one to make the crucial invention that caused the transformation in our lives. Our lives wouldn’t be like now, with no laptops, phones, and
Batteries are extremely important. But most people don’t know the science behind it or how imperative they really are. Today, I will tell you about this, the items they power, they’re importance, and how they really work.
This one had red wires which transmitted current to two LEDs in parallel in order to light them up. Each LED had two 220Ω resistors through which the current exited the LED and green wires that led the current to ground. After calculating this circuit’s values, we used both the resistance equation and Ohm’s Law the same way we had for the first circuit (separating the two LEDs into different circuits and for Ohm’s Law using only the current which passed through the branch). This gave us 106Ω as the resistance of the red LED and 107Ω as the resistance of the green
In two articles, "Energy Story" and "Conducting Solutions", I learned about electrical charges, ions, conducting energy, and what atoms are like when they are broken down. In a video, Hands-On Science with Squishy Circuits, I learned about conducting electricity using simple things, which, in this case, was Play-doh. One thing these two articles and this video share in common are that they all have something to do with energy and electricity.
An incorporated circuit or solid coordinated circuit (additionally alluded to as an IC, a chip, or a microchip) is a situated of electronic circuits on one little plate ("chip") of semiconductor material, typically silicon. This could be made much more diminutive than a discrete circuit produced using free segments. Ics could be made exceptionally minimal, having up to a few billion transistors and other electronic segments in a range the span of a fingernail. The width of each one directing line in a circuit might be made littler and more diminutive as the innovation propels; in 2008 it dropped beneath 100 nanometer, and now it is many nanometer.
Basically it is a sensing device by which a physical, mechanical or optical quantity to be measured is transformed directly into an electrical signal (such as current, voltage and frequency) with a suitable mechanism,. The production of these signals is based upon electrical effects which may be resistive, inductive, capacitive etc. in nature. The input versus output energy relationship takes a definite reproducible function. The output to input and the output to time behavior are predictable to a known degree of accuracy, sensitivity and response, within the specified environmental conditions. Modern digital computers have made use of electrical transducers absolutely