So, imagine you have a really long pipe that you can send messages through, but the pipe is too long for the message to go all the way through at once. You have to break the message up into little pieces and send them through the pipe one at a time. That's kind of like how telegrapher's equations work.
You see, when you send a message through a long wire (like a telegraph wire), it doesn't just go straight to the other end. Instead, it has to travel along the wire, and that wire has resistance (kind of like friction). This means that some of the message's energy gets lost as it travels down the wire.
But that's not all. The wire itself also has capacitance (which is like how a battery stores electric energy) and inductance (which is like a magnetism that resists changes in electric current). All of these things together can affect how the message travels down the wire.
So, the telegrapher's equations help us figure out how to send a message through a long wire by taking into account all of these things that affect the message's journey. They use math to help us figure out things like how much energy the message will lose and how fast it will travel down the wire.
It's kind of like a map for the message to follow as it makes its way through the wire. And just like a map can help you get from one place to another, the telegrapher's equations help messages get from one end of a wire to the other.