You will have 24 volts DC.
Ohms are the unit of resistance you find in Ohms LAw which says Volts = Amps x Ohms. You can get a voltage drop across a resistance, but would have to know what current is being used and you would have a potentiometer in effect. You are not "converting 12V" to 10V, your are essentially loosing two volts through a resistor.
Electric Iron by far.
The formula you are looking for is V = IR where V = Voltage I = Current R = Resistance With some formula manipulation and numbers plugged in you get I = 120V / 9.6Ω I = 12.5A The kettle would have 12.5 volts of current running through it.
That depends on the total current flow and resistance of body at the time of contact.
The volt.The volt.The volt.The volt.
4.5 volts in series; 1.5 volts in parallel.
15 voltsThe result would only be 15 volts if they were connected in series. If in parallel, a 10v and a 5v battery would probably come out with a voltage of either 10 volts or 7.5 volts, there's no way to tell for sure though.
Depends on the cell chemistry, which determines the cell voltage. And the degree of charging. Can be anything from 3x1.2 to 3x3.6.
That would depend how they are connected. Are all Eight 6 volt batteries connected in series giving a total output voltage of 48V. Or are they connected with 2 sets of 4 batteries in parallel then connected in series to give a 24V output.
It is the nature of most batteries to put out 1.5 volts per cell. A 9 volt battery will have 6 cells and the size of each cell will relate to it's capacity for energy storage. To make a 9 volt battery from six 1.5 cells, you would hook one wire to all the - post and one wire to all the + post. The end of each wire would now be the + and - wires or post for a battery with 6 cells and 9 volts. If you want to use batterys that have other voltages, just add the volts of each to get the totaled volts. You will need to use like cells.
An AA battery is nominally 1.5 volts, so if the four batteries are wired in series (+ of one to - of the next), the voltage is nominally 6 volts. However, the batteries could also be wired in parallel, with all four positive terminals connected together and all four negative terminals connected together. Then the voltage would be 1.5 volts. To make it even more complicated, you could also wire two pairs, with each battery wired in series to its twin, but with the two pairs wired in parallel to each other. Then the voltage is 3.0 volts.
Not in a single containment case. If ten 12 volt batteries were connected in series with each other they would give you a total of 120 volts DC.
30 volts.
It depends how they are connected. If the terminals of two 12 volt batteries batteries are connected to the same circuit (in parallel) then there is no change in the flow of current- it will just last for twice as long a time. But if two opposing terminals of the batteries are connected to each other first and the free terminals then connected to the circuit (in series) then there would be a total voltage of 24 volts and twice as much current would flow. The two batteries would last for the same length of time as one battery on its own.
4 amperes. The voltage adds when batteries are connected in series. If they are the same voltage then the voltage doubles. Using Ohm's law: V = I*R with the voltage doubling and resistance being the same you get I = 2V/R and where V/R was your initial current you get I = 2*2ampers = 4 ampreres
Depends on the chemistry. A standard D cell has 1.5 VDC. Oxy Nickel Hydroxide and Lithium cells have a slightly higher voltage of 1.7 VDC NiCd or NiMH rechargeable then 1.2 VDC at full charge.
An ammeter is always connected in series in the circuit.