Not really. The energy requirement of each light-bulb (or whatever you want to drive) wouldn't change, and you can't get energy out of nothing.
In parallell.
the connection in a series circuit would be a most it can be given in safety places
That is described as a circuit in series, as opposed to a circuit in parallel, in which there is more than one loop.
A parallel circuit
in a series circuit or it will not work. Put it after the bulb
An ammeter is always connected in series in the circuit.
In a series circuit, if another bulb is added, it is going to dim.
In a series circuit, the voltage is divided among the components, so the highest voltage is at the beginning of the circuit. In a parallel circuit, each component receives the full voltage of the source, so the voltage is the same across all components. Therefore, the circuit with the highest voltage would be in a series circuit.
The voltmeter is connected parallel to the circuit in order to measure the voltage drop across that circuit or sub-circuit. If you were to connect the volmeter series to the circuit, since it is a high impedance device, it would represent an effective open-circuit condition. You would see the voltage available to the circuit, but the circuit would not receive its intended current and it would not function. Contrast this with the ammeter, which you do place series to the circuit in order to measure the current flow through the circuit.
In a series circuit, all bulbs are necessary to complete the circuit. If one bulb goes out, the circuit is broken, so none of the bulbs would light up.
In a parallel circuit, each light bulb would receive the full voltage of the power source, allowing them to burn brighter compared to a series circuit where the voltage is divided among the bulbs.
A relay race would be an example of a series circuit. Since every runner relies on the runner before him/her to continue on, if one runner fails the rest of them fail. With a series circuit, if one part of the circuit fails, all of the parts before and after it fails. A parallel circuit does not completely fail if one or more of the parts fail.