The density of water is 1.0 and people are made mostly of water but they do float in water (just) so the density of a person is lust less than 1.0.
I can not give you a precise answer because of cause your density would change as you breath in and out.
No, a person's density would not change on the surface of the Moon; density is a measure of mass per unit volume and remains constant regardless of location. However, a person's weight would decrease significantly on the Moon due to its lower gravitational pull. This means that while they would weigh much less, their overall density would remain the same as it is dependent on their body composition, not the gravitational environment.
yes
A person's body frame is determined by the weight and density of a person's bone structure.
The density would be about 30, based off your weight, muscle and fat.
Yes but to be exact you would need a specific person. Most people have a density of slightly less than 1 because they float in water. If you do not float then your density is slightly greater than 1.
Technically no. You see, if the density of the person sitting on top of the sack of apples were less than the density of water, than it would float, i dount that this would actually be the case. Also it would be able to float if the sack of apples were one of those floating devises used in the water. lol
The weight and density of a persons bond structure
A person's body frame is determined by the weight and density of a person's bone structure.
Actually, the amount of cultivated land per person is known as arable land per capita, not density. Density usually refers to the number of individuals in a given area, such as population density.
A density gradient is a gradual change in density of a substance over a distance. In a liquid, it would appear as layers of varying density, with the highest density at the bottom and lowest density at the top. In a gas, it would result in a gradual decrease or increase in density over distance.
Density-independent deaths are those deaths caused by an event that is not related to the population density in which the deaths occurred. For instance, death by lightning strike would be density-independent because the chance of a lightning strike does not increase when there are more people in that area. An example of density-dependent deaths would be an epidemic of influenza. The influenza virus travels from person to person, so if there are more people in an area there are more that can become infected and therefore more that can die from influenza. In rural areas, where population density is low, influenza tends to be stopped because there aren't enough people to keep the infection going.
Density-independent deaths are those deaths caused by an event that is not related to the population density in which the deaths occurred. For instance, death by lightning strike would be density-independent because the chance of a lightning strike does not increase when there are more people in that area. An example of density-dependent deaths would be an epidemic of influenza. The influenza virus travels from person to person, so if there are more people in an area there are more that can become infected and therefore more that can die from influenza. In rural areas, where population density is low, influenza tends to be stopped because there aren't enough people to keep the infection going.