As the altitude or elevation increases the temperature decreases. The temperature drops about 6.5 degree Celsius for every I km increase.
density
Gender ratio, rate of viable eggs white vs. brown. Temperature variation vs gender Note Higher temperature (101F) in the incubator will produce less hens and more cockerels).
Homographs are words that are spelled the same but have different meanings and sometimes different pronunciations. Here are ten examples: Lead (to guide) vs. Lead (a type of metal) Tear (to rip) vs. Tear (a drop of liquid from the eye) Bow (to bend forward) vs. Bow (a weapon for shooting arrows) Wind (moving air) vs. Wind (to twist or turn) Row (a line of things) vs. Row (to paddle a boat) Bat (a flying mammal) vs. Bat (a sports equipment) Bass (a type of fish) vs. Bass (low, deep voice) Close (to shut) vs. Close (near) Minute (60 seconds) vs. Minute (very small) Object (a thing) vs. Object (to express disapproval)
It's all about how your body reacts to relative temperatures. The truth is that the pool temperature is not likely to be the culprit. It's more about how your body perceives the difference between the outside temperature vs the pool temperature. The transition from standing in the hot sun to getting into your pool makes the water feel colder than it might feel than if you are standing in cold rain before entering the pool.
The two broad types of variables in scientific experimentation are dependent and independent variables. Independent variables are variables (ideally only one or very few) that the experimenter manipulates in the experiment. For example, if you were testing the effect of temperature on plant growth rates, you would likely have similar plants in similar conditions but in areas with different temperatures. The experimenter is changing the temperature between the groups of plants, so the temperature would be the independent variable. The dependent variables are the effects the independent variable has on the experimental subjects. They are changes not being directly controlled or manipulated by the experimenter. In the above temperature vs. plant growth example, the rate of plant growth would be the dependent variable; it depends on the temperature.
Florida (average elevation 98 feet vs Arkansas average elevation 650 feet)
The relationship depicted in the temperature vs viscosity graph is that as temperature increases, viscosity decreases.
Elevation will be the one that moves it up and down. Windage will be the one that moves it from side to side.
The viscosity vs temperature graph shows how the viscosity of a substance changes as the temperature changes. It typically shows that viscosity decreases as temperature increases.
The entropy vs temperature graph shows that entropy generally increases with temperature. This indicates that as temperature rises, the disorder or randomness in a system also increases.
The resistance vs temperature graph shows how the resistance of the material changes as the temperature increases. It helps to understand the material's behavior in response to temperature changes.
The enthalpy vs temperature graph shows how enthalpy changes with temperature. It reveals that as temperature increases, enthalpy also tends to increase. This indicates a positive relationship between enthalpy and temperature.
The slope of a temperature vs time graph shows the rate of change of temperature. The slope will be positive if the temperature is increasing with time and negative if it is decreasing.
Temperature differences are primarily caused by variations in the amount of solar energy received at different locations on Earth due to factors such as latitude and elevation. Additionally, differences in surface characteristics, such as land cover (e.g. forests vs urban areas) and water bodies, can also influence temperature by affecting the absorption and reflection of solar radiation.
The pressure vs temperature graph shows that there is a direct relationship between pressure and temperature in the system. As temperature increases, pressure also increases, and vice versa. This relationship is known as the ideal gas law.
The slope of a resistance vs. temperature curve gives the temperature coefficient of resistance, which quantifies how much the resistance of a material changes with temperature. Positive values indicate the resistance increases with temperature (e.g., in most metals), while negative values indicate the resistance decreases with temperature (e.g., in semiconductors).
The vapor pressure vs temperature graph shows that as temperature increases, the vapor pressure also increases. This indicates that there is a direct relationship between vapor pressure and temperature, where higher temperatures lead to higher vapor pressures.