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If on a certain year, an estimated amount of 4 million metric tons ( 1 metric ton \(=1000 \mathrm{~kg}\) ) of nitrous oxide \(\left(\mathrm{N}_{2} \mathrm{O}\right)\) was emitted worldwide due to agricultural activities, express this mass of \(\mathrm{N}_{2} \mathrm{O}\) in grams without exponential notation, using an appropriate metric prefix.

Short Answer

Expert verified
The mass of nitrous oxide emitted worldwide due to agricultural activities in the given year can be expressed as 4 Tg (tera grams).

Step by step solution

01

Convert million metric tons to metric tons

First, we need to convert the given amount from million metric tons to metric tons. As 1 million = \(10^6\), we can multiply the given amount (4 million) by \(10^6\). 4 million metric tons = 4 × \(10^6\) metric tons
02

Convert metric tons to kilograms

Now, we need to convert metric tons to kilograms. Given that 1 metric ton = 1000 kg, we can multiply the result from Step 1 by 1000. 4 × \(10^6\) metric tons × 1000 kg/metric ton
03

Convert kilograms to grams

Finally, we need to convert the result from Step 2 to grams. As 1 kg = 1000 grams, we can multiply the result by 1000. 4 × \(10^6\) metric tons × 1000 kg/metric ton × 1000 g/kg
04

Calculate and express using an appropriate metric prefix

Now, we can calculate the result and express it using an appropriate metric prefix. 4 × \(10^6\) × 1000 × 1000 g = 4 × \(10^{12}\) g The metric prefix for \(10^{12}\) is "tera," represented by the letter "T." Therefore, we can express the given mass of nitrous oxide as: 4 Tg (tera grams)

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Metric Conversions
In science, especially in chemistry, converting between different units of measurement is crucial. When faced with a large number of units, like moving from metric tons to grams, understanding the method of conversion simplifies the process. In the example given, we used several conversions. First, converting millions to single units, and then systematically transitioning through metric ton to kilogram, and kilogram to gram conversions.
  • The first step involved recognizing that 1 million is equivalent to \(10^6\). So, 4 million metric tons becomes 4 \(\times\) \(10^6\) metric tons.
  • Next, noting that 1 metric ton equals 1000 kilograms helps in now multiplying the quantity by 1000 to switch units from tons to kilograms.
  • Finally, with the knowledge that 1 kilogram is 1000 grams, we conclude with a final multiplication by 1000, achieving the desired unit of grams.
Each conversion multiplies by powers of 10, facilitating the expression in larger or smaller units as needed.
Mass Calculations
Mass calculations often require the systematic use of conversion factors to bridge different units. In this example, we start with 4 million metric tons of nitrous oxide, which we wish to express in grams.
By setting up our chain of multiplications using conversion factors, we effectively change each unit precisely:
  • Given: 4 million metric tons.
  • Convert metric tons to kilograms: Multiply by 1000 (since 1 metric ton = 1000 kg).
  • Convert kilograms to grams: Multiply by another 1000 (because 1 kg = 1000 g).
Our final expression becomes 4 \(\times\) \(10^{12}\) grams. This calculated result signifies the enormity of the amount in grams, illustrating the importance of precise conversions in scientific calculations.
Metric Prefixes
Metric prefixes are shortcuts used to express very large or very small quantities succinctly. Each prefix correlates to a specific power of ten, simplifying tangible comprehension of vast numbers. In the context of our example, \(10^{12}\) grams is expressed as 4 teragrams.
The prefix 'tera' (T) stands for \(10^{12}\), offering a more digestible value without lengthy numerical expressions.
  • 1 kilobyte (kB) equals \(10^3\) bytes.
  • 1 megabyte (MB) equals \(10^6\) bytes.
  • 1 gigabyte (GB) equals \(10^9\) bytes.
  • 1 terabyte (TB) equals \(10^{12}\) bytes.
Understanding prefixes helps convert unwieldy numbers into manageable sizes quickly, aiding clearer communication in science and mathematics.

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Most popular questions from this chapter

(a) Calculate the kinetic energy, in joules, of a 15-g bullet moving at \(120 \mathrm{~m} / \mathrm{s}\). (b) Convert this energy to calories. (c) When the bullet is stopped by a bulletproof vest, which form of energy does the kinetic energy of the bullet convert to?

(a) A baseball weighs \(145.4 \mathrm{~g}\). What is the kinetic energy, in joules, of this baseball when it is thrown by a major league pitcher at \(150 \mathrm{~km} / \mathrm{h} ?\) (b) By what factor will the kinetic energy change if the speed of the baseball is decreased to \(90 \mathrm{~km} / \mathrm{h} ?\) (c) What happens to the kinetic energy when the baseball is caught by the catcher? Is it converted mostly to heat or to some form of potential energy?

(a) If an electric car is capable of going \(225 \mathrm{~km}\) on a single charge, how many charges will it need to travel from Seattle, Washington, to San Diego, California, a distance of \(1257 \mathrm{mi}\), assuming that the trip begins with a full charge? (b) If a migrating loon flies at an average speed of \(14 \mathrm{~m} / \mathrm{s}\), what is its average speed in mi/hr? (c) What is the engine piston displacement in liters of an engine whose displacement is listed as 450 in. \({ }^{3} ?(\mathbf{d})\) In March \(1989,\) the Exxon Valdezranagroundand spilled 240,000 barrels of crude petroleum off the coast of Alaska. One barrel of petroleum is equal to 42 gal. How many liters of netroleum were spilled?

Classify each of the following as a pure substance, a solution, or a heterogeneous mixture: \((\mathbf{a})\) a leaf, \((\mathbf{b})\) a 999 gold bar, (c) stainless steel.

(a) To identify a liquid substance, a student determined its density, Using a graduated cylinder, she measured out a \(45-\mathrm{mL}\). sample of the substance. She then measured the mass of the sample, finding that it weighed \(38.5 \mathrm{~g}\). She knew that the substance had to be either isopropyl alcohol (density \(0.785 \mathrm{~g} / \mathrm{mL}\) ) or toluene (density \(0.866 \mathrm{~g} / \mathrm{mL}\) ). What are the calculated density and the probable identity of the substance? (b) An experiment requires \(45.0 \mathrm{~g}\) of ethylene glycol, a liquid whose density is \(1.114 \mathrm{~g} / \mathrm{mL}\). Rather than weigh the sample on a balance, a chemist chooses to dispense the liquid using a graduated cylinder. What volume of the liquid should he use? (c) Is a graduated cylinder such as that shown in Figure 1.21 likely to afford the (d) A cubic piece of metal accuracy of measurement needed? measures \(5.00 \mathrm{~cm}\) on each edge. If the metal is nickel, whose density is \(8.90 \mathrm{~g} / \mathrm{cm}^{3}\), what is the mass of the cube?

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