Charges of \( +26 \mu \mathrm{C} \) and \( 1.09 \mu \mathrm{C} \) are o distance of 2.3 cm apart. 10.1 Calculate the electrostatic force be wen the charges. \( \qquad \) \( \qquad \) \( \qquad \) 10.2 The charges are now moved to touch each other. 10.3 If the system is earthed. how many electrons will flow in/out the system? \( \qquad \) \( \qquad \) ....................................... placed back in their original positions, 10.4 If the charges are not eorthed object be now? \( \qquad \) \( \qquad \) \( \qquad \) 10.5 Calculate how many electrons moved from the one charge to the other. \( \qquad \) \( \qquad \) \( \qquad \) \( \qquad \)
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Did you know that the concept of electric charge has roots dating back to ancient Greece? Philosophers like Thales discovered that rubbing amber (fossilized tree resin) with fur caused it to attract lightweight objects, leading to the early principles of electrostatics! The modern understanding of electricity began to crystallize in the 18th century with luminaries like Benjamin Franklin and Charles-Augustin de Coulomb. In the real world, electrostatics is everywhere! From dust sticking to your screen to the shocks you feel after walking on a carpet, these principles govern numerous everyday phenomena. In industries, electrostatics plays a crucial role in spray painting, powders, and electronic component manufacturing, ensuring a cleaner and more efficient process. Understanding these charges can help avoid static-related issues and improve product quality!