Answer:
It is (1/5)th as much.
Explanation:
If we apply the equation
F = G*m*M / r²
where
m = mass of a man 
M₀ = mass of the planet Driff
M = mass of the Earth
r₀ = radius of the planet Driff
r = radius of the Earth
G = The gravitational constant
F = The gravitational force on the Earth
F₀ = The gravitational force on the planet Driff
g = the gravitational acceleration on the surface of the earth
g₀ = the gravitational acceleration on the surface of the planet Driff
we have
F₀ = G*m*M₀ / r₀² = G*m*(5*M) / (5*r)²    
⇒  F₀ = G*m*M / (5*r²) = (1/5)*F
If 
F₀ = (1/5)*F
then
W₀ = (1/5)*W   ⇒  m*g₀ = (1/5)*m*g   ⇒   g₀ = (1/5)*g
It is (1/5)th as much.
 
        
             
        
        
        
As we know that power is defined as rate of work done
so we will have

so in order to increase the power as per above formula we know that either we need to increase the work or we need to decrease the time to complete that work
So here the correct answer will be
increase the work being done or decrease the time in which the work is completed.
 
        
                    
             
        
        
        
Ionic bonding is the bonding between a positive metal with a negative nonmetal (metals are always positive while non metals are opposite). The meeting of a metal with a non metal creates an ionic bond.
        
                    
             
        
        
        
Every electrical outlet in your house, and every device or appliance that's 
plugged into an outlet, are all in parallel.  It's also most likely that all of yours 
are in parallel with all the outlets, devices, and appliances in the homes or 
apartments of a few of your neighbors. 
The only things in your home that are connected in series are the switches 
that turn things on and off.
        
                    
             
        
        
        
The strong nuclear force holds the nucleus of an atom together.  
Somehow, it overcomes the electrical force of repulsion between protons in the nucleus, which all have the same charge but still stay close together somehow. (b)