To find the height of the candle over time, you can use the equation ( h(t) = 6 - 12t ), where ( h(t) ) is the height of the candle in inches and ( t ) is the time in hours. This equation reflects that the candle starts at 6 inches and decreases by 12 inches for each hour it burns. Keep in mind that the candle will completely burn out when ( h(t) = 0 ).
0.666 ^^^^ his answer mine 3 in 8 i believe. which is 0.375 you can get h,h,h h,t,h h,t,t h,h,t t,h,h t,t,h t,h,t t,t,t the ones you are looking for are h,h,t t,h,h h,t,h
There are 8 permutations of three coins ... T T T T T H T H T T H H H T T H T H H H T H H H ... counting heads and sorting by count, you get ... 0 - T T T 1 - T T H 1 - T H T 1 - H T T 2 - T H H 2 - H T H 2 - H H T 3 - H H H ... so, the probability of each possible number of heads is 0: 1 in 8, 1: 3 in 8, 2: 3 in 8, and 3: 1 in 8.
4 : Each coin toss multiplies the generated outcome by two. The outcome for two tosses can be Heads (H) Tails (T), H H, T T or T H. As such, with three tosses the outcome can be H H H, H H T, H T H, T H H, T T H, T T T, T H T, H T T. We can define the number of outcomes as 2^n, where n is the amount of tosses.
There is no simple formula to determine the half life of every single radioactive isotope. However, y = A(.5)^t/h, where A=staring amount, t=time, and h= half life, is a general equation that usually works well.
h(t)= -g*t^2 + V*t +h where h(t) is the periodic time, t is the overall time, V is the initial velocity, h is the initial hieght, and g is the gravitational constant either 16 or 4.9. This equation will trace the path taken by a projected object.
The change in entropy between products and reactants in a reaction.
The change in entropy between products and reactants in a reaction.
In the equation ( gh - t = s ), the variable ( t ) represents a quantity that, when subtracted from the product of ( g ) and ( h ), results in ( s ). To isolate ( t ), you can rearrange the equation to ( t = gh - s ). This means ( t ) is the difference between the product ( gh ) and ( s ).
T = 101.3 eH/26,200eH/26,200 = T / 101.3H/26,200 = ln(T/101.3)H = 26,200 ln(T/101.3)
The change in entropy between products and reactants in a reaction.
The first recorded ascent of Glittertind, the highest peak in mainland Norway, was accomplished by the Norwegian explorer and mountaineer J. H. Munthe in 1880. Glittertind stands at 2,465 meters (8,100 feet) and is known for its glacier-capped summit. Munthe's expedition marked an important moment in the history of Norwegian mountaineering.
To find the height of the candle over time, you can use the equation ( h(t) = 6 - 12t ), where ( h(t) ) is the height of the candle in inches and ( t ) is the time in hours. This equation reflects that the candle starts at 6 inches and decreases by 12 inches for each hour it burns. Keep in mind that the candle will completely burn out when ( h(t) = 0 ).
Thats a simple question it gets higher...
1 2 3 4 h h h h h h h t h h t h h h t t h t h h h t h t h t t h h t t t t h h h t h h t t h t h t h t t t t h h t t h t t t t h t t t t
The change in enthalpy between products and reactants in a reaction
Well the equation is: 6CO2 + 6H2O + -s-u-n-l-i-g-h-t--> C6H12O6 + 6O2.