2,739,726,027.39726027397260273972602739726027 (repeating decimal)
2,739,726,027.3973
12345678909876543212345678987654323456789876543234567898765432346789098765432345678987654321230
Using the US reconing of one trillion, a 1 followed by 12 zeros, and using the Julian year of 365.25 days, there are 114,077,116.131 years, roughly, in one trillion hours. Even an accumulated library fine would be a handsome sum at this rate.
1 decade or 10 years is greater than 3000 days
I solve this problem in two steps: Step 1: How much space does one pea take up? Step 2: How much space does 1 trillion peas take up? 1) How much space does one pea take up? I will assume one pea would occupy a square area 5 mm by 5 mm, which equals 25 mm2. 2) A trillion peas, requires me to use scientific notation, 1 trillion = 10^12. So our trillion peas takes up 25 *1012 mm2. Now 1 m = 1000 mm, so 1 m2 = 10^6 mm2, and 1 km = 1000 m, so 1 km2 = 10^6 m2, so 10^12 mm2 = 1 km2. Now, 25 * 1012 mm (1 km2/1012 mm2) = 25 km2 is the area on earth that one trillion peas would cover. Remember: One thousand = 103, One million = 106, one billion = 109, one trillion = 1012 Also, when you find a problem that seems too big to solve, try finding a small problem to solve, which will help you to solve the bigger one.
No heads means that every toss lands tails. (0.5)30= 9.3 x 10-10 Note that 109 = 1 trillion, so the probability can be stated this event is likely to occur about 9 times in 10 trillion tosses.
Let me give you a simple answer first and two deep answers next.Simple answer is, assuming that all months have the same number of days (which is very approximately true), 1/12.If you want a slightly deeper answer, then 31/365 or 31/366 is correct, depending upon whether the year is a normal year or a leap year.The correct answer, which might be argued as "philosophical", is as follows:The Gregorian calender, the current standard calender in most of the world, adds a 29th day to February, 97 years out of 400, a closer approximation than once every four years. This would be implemented by making a leap year every year divisible by 4 unless that year is divisible by 100. If it is divisible by 100 it would only be a leap year if that year was also divisible by 400.So, in the last millennium, 1600 and 2000 were leap years, but 1700, 1800, and 1900 were not. In this millennium, 2100, 2200, 2300, 2500, 2600, 2700, 2900 and 3000 will not be leap years, but 2400 and 2800 will be. The years that are divisible by 100 but not 400 are known as "exceptional common years". By this rule, the average number of days per year will be 365 + 1/4 - 1/100 + 1/400 = 365.2425.In 400 years, thereforethere are 303 normal years and97 leap yearsTotal number of days in 303 years110,595 days(normal years)Total number of days in 97 years35,502 days(leap years)Total number of days146,097 daysTotal number of August months400(in 400 years)Total number of days in August in12,400400 yearsProbability that a person is 0.084875 or 1 in11.78202born in August (=12,400 / 146,097) or 31 in365.24251 / 12 =0.08333331 / 365 =0.08493231 / 366 =0.084699There are assumptions in the above answer as well. These are1. That all days in a year have the equal probability (which is not strictly true, as records of births will be required for verification)2. The Gregorian calender has been in effect since 1700s. The probability as above will only work for years after the introduction of Gregorian calender.
There are 1 trillion years in 1 trillion years!
A trillion is a million million, so it would take one million days at $1 million a day to spend a trillion. One million days is about 2737.85 years .
1 trillion seconds = 11.6 million days (approx)
1 trillion seconds / 60 seconds/minute / 60 minutes/hour / 24 hours/day = 11574074 days should be about 31,710 years
1 trillion years
1 trillion minutes/60minutes/hour/24hours/day = 694444444.4 days
1 trillion years = 3.1556926 × 10^19 seconds1 000 000 000 000 * 365.25 * 24 * 60 * 60 31557600000000000000 seconds == 1 trillion*days in a year*hours in a day*minutes in an hour*second in a minute.
Using the US reconing of one trillion, a 1 followed by 12 zeros, and using the Julian year of 365.25 days, there are 114,077,116.131 years, roughly, in one trillion hours. Even an accumulated library fine would be a handsome sum at this rate.
11,574,074.1 days.
1 trillion light years = 5.87849981 × 1024 miles.
A little over 31688 years.
31,688 years.