It depends on how high and long the incline is. you need to use cos, sin, and tan to figure it out
An often cited figure is 96% to 97% of the population.
Subtract the budget from the number that was actually spent. Divide that number by the budget.The budget was 10, the actual expenditure was 13.13 - 10 = 33 divided by 10 is 30 per cent
figure of speech is a kind of a style. the credit of this is point of figure.
the strongest figure is Joe Zombie
Energy pyramid Energy pyramid.
Sunlight is the initial source of energy for most ecosystems. The producers convert light energy into chemical energy through photosynthesis. Energy transformations are yet never fully efficient and energy will escape from the ecosystem.The chemical energy then passes through the trophic levels of the ecosystem, where herbivores obtain energy from eating plants and carnivores obtain their energy from eating other animals. As for decomposers, they obtain their energy from waste products. Energy cannot be fully transferred between the trophic levels and it is only around 10% efficient as some energy is lost as heat through respiration.
World wide the figure is about 16 percent
Energy flows from one trophic level to the next (Producer->Primary Consumer->Secondary Consumer). Energy transfer becomes less efficient as it's being transferred; seeing as it is partly used by the organism for metabolic processes.
only 8 percent of women have an 'hourglass' figure.
245 is what percent of 980?
Multiply the figure by 1.15
59.99-15 percent = 44.99
I do I get the percent of something? Example I have 650 students and 156 are hispanic, how do I figure out the percent?
Figure 1: Trophic levels.The Transfer of Energy to Higher Trophic LevelsWhat happens to the NPP that is produced and then stored as plant biomass? On average, it is consumed or decomposed. You already know the equation for aerobic respiration: C6H12O6 + 6 O2 -------- 6 CO2 + 6 H2OIn the process, metabolic work is done and energy in chemical bonds is converted to heat energy. If NPP was not consumed, it would pile up somewhere. Usually this doesn't happen, but during periods of earth history such as the Carboniferous and Pennsylvanian, enormous amounts of NPP in excess of consumption accumulated in swamps. It was buried and compressed to form the coal and oil deposits that we mine today. When we burn these deposits (same chemical reaction as above except that there is greater energy produced) we release the energy to drive the machines of industry, and of course the CO2 goes into the atmosphere as a greenhouse gas. This is the situation that we have today, where the excess CO2 from burning these deposits (past excess NPP) is going into the atmosphere and building up over time.But let's get back to an ecosystem that is balanced, or in "steady state" ("equilibrium"), where annual total respiration balances annual total GPP. As energy passes from trophic level to trophic level, the following rules apply:Only a fraction of the energy available at one trophic level is transferred to the next trophic level. The rule of thumb is 10%, but this is very approximate.Typically the numbers and biomass of organisms decrease as one ascends the food chain.
3.3
You figure what two tenths of one percent of an amount is by multiplying that original amount by 0.002 The result is two tenths of a percent of that amount.