You might think it’s a bunch of formulas like V = W / Q and V = I × R and all that junk
But no
Erase math from your mind for only a moment
Ionic Compounds molecules have charges, you have negatively charged anions and positively charged cations. This stuff exists everywhere: NH+, O-, Ag+, etc. Best way to identify them is to first set up a periodic table, probably pretty difficult for a layman to remember the rules, and then you can test to identify materials placement on the table with flame tests (different metals burn a different color when placed in a flame). Positive materials or the positive end of a polarized material are commonly referred to as Cathodes, and negatives are Anodes.
Magnetism is important, but you don’t need to know about the specifics of electron valence or orbitals to understand electricity. Magnets are naturally occurring and you can make most ferrous metals into magnets just by heating them to their curie point or by hitting or stroking them.
Once you have some copper, a magnet, and some positively (P) and negatively (N) charged materials you can set up some simple circuits. The materials can be oriented in large PN junctions to work as batteries, in small PN junctions to work as diodes which control the direction of flow of electricity, and in small PNP junctions with a glass plate at the end to create Light Emitting Diodes. Small capacitors can also be made with metallic conductive material sheets layered with non conductive dialectic components like glass or paper.
One of the earliest and most common battery formulas would be Lead Acid batteries. By layering Lead Dioxide as a Cathode and solid metal Lead as an Anode in an Electrolyte solution, ideally 1.25 to 1.28 kg of sulfur per liter of water makes a good battery acid. You can create sulfuric acid by burning naturally occurring sulfur and directing the resulting gasses into a container of water.
Once you have your rechargeable battery, you can charge it by spinning a magnet around inside of big coil of copper wire attached to the positive and negative end of your battery. The copper has its own electromagnetic field through which electron excitation is dispersed, and by moving the magnetic field of the copper with your magnet’s magnetic field you’re inducing flow through the copper in a specific direction.
I’m not going to get into the details of Alternating vs Direct currents, but I will add the concept of a Transformer which is where you place two conductive and charged materials in close proximity allowing it to Arc and jump over on its own, which would naturally convert AC to DC, useful in current cleaning and regulation.
Congratulations, you’ve just brought turbines, lights, batteries and electric engines to Rome. Now, kindly return to your present to promptly discover the horrible eternal empire you’ve created and suffer the rest of your meaningless peasant life.
You might think it’s a bunch of formulas like V = W / Q and V = I × R and all that junk
But no
Erase math from your mind for only a moment
Ionic Compounds molecules have charges, you have negatively charged anions and positively charged cations. This stuff exists everywhere: NH+, O-, Ag+, etc. Best way to identify them is to first set up a periodic table, probably pretty difficult for a layman to remember the rules, and then you can test to identify materials placement on the table with flame tests (different metals burn a different color when placed in a flame). Positive materials or the positive end of a polarized material are commonly referred to as Cathodes, and negatives are Anodes.
Magnetism is important, but you don’t need to know about the specifics of electron valence or orbitals to understand electricity. Magnets are naturally occurring and you can make most ferrous metals into magnets just by heating them to their curie point or by hitting or stroking them.
Once you have some copper, a magnet, and some positively (P) and negatively (N) charged materials you can set up some simple circuits. The materials can be oriented in large PN junctions to work as batteries, in small PN junctions to work as diodes which control the direction of flow of electricity, and in small PNP junctions with a glass plate at the end to create Light Emitting Diodes. Small capacitors can also be made with metallic conductive material sheets layered with non conductive dialectic components like glass or paper.
One of the earliest and most common battery formulas would be Lead Acid batteries. By layering Lead Dioxide as a Cathode and solid metal Lead as an Anode in an Electrolyte solution, ideally 1.25 to 1.28 kg of sulfur per liter of water makes a good battery acid. You can create sulfuric acid by burning naturally occurring sulfur and directing the resulting gasses into a container of water.
Once you have your rechargeable battery, you can charge it by spinning a magnet around inside of big coil of copper wire attached to the positive and negative end of your battery. The copper has its own electromagnetic field through which electron excitation is dispersed, and by moving the magnetic field of the copper with your magnet’s magnetic field you’re inducing flow through the copper in a specific direction.
I’m not going to get into the details of Alternating vs Direct currents, but I will add the concept of a Transformer which is where you place two conductive and charged materials in close proximity allowing it to Arc and jump over on its own, which would naturally convert AC to DC, useful in current cleaning and regulation.
Congratulations, you’ve just brought turbines, lights, batteries and electric engines to Rome. Now, kindly return to your present to promptly discover the horrible eternal empire you’ve created and suffer the rest of your meaningless peasant life.
If I get sent back I’m bring this person
I loved how they laid that out all matter of fact like, as if I had any idea WTF they were talking about. Definitely a case of: