Technically speaking, boiling is when the pressure inside the system is equal to that of the surroundings. That means that you can boil water at room temperature if you have a vacuum pump.
If you mean just to the heat that it starts to boil at STP, then no, it doesn't. Boiling point at STP is and always will be 100 degrees Celsius.
If the temperature is less than the temoerature requ ired for reaction to proceed,higher co slip will result.Decreasing the inlet temperature to optimum inlet temperature will result in more conversion.
Temperature is a measure of the average kinetic energy of the particles within a substance. When these particles move faster, they have higher kinetic energy and therefore a higher temperature. This movement is a result of the energy transfer between particles in response to differences in temperature, causing heat to flow from hotter regions to cooler regions.
If gneiss undergoes metamorphism at a higher temperature, it has a higher grade of metamorphism. This indicates that it has been subjected to more intense conditions of heat and pressure compared to lower-grade metamorphic rocks. As a result, the mineral composition and texture of the gneiss may change, leading to the formation of new minerals and a more pronounced foliation.
Yes, the solar constant affects temperature by determining the amount of solar energy reaching the Earth's atmosphere. A higher solar constant can lead to an increase in temperature, while a lower solar constant can result in cooler temperatures.
An increase in temperature would lead to an increase in the kinetic energy of the particles, causing them to move faster. This would result in a higher rate of diffusion as the particles would spread out more quickly due to their increased speed.
If a quantity of kilograms is added to another quantity of kilograms, the result is a larger quantity of kilograms.If a quantity of kilograms is multiplied by another quantity of kilograms, the result has no physical significance,which is lucky, because it's not at all clear how you might go about doing that.
To calculate how many times bigger one quantity is compared to another, divide the larger quantity by the smaller one. For example, if you have two numbers, A and B, where A is the larger number, you would calculate A ÷ B. The result tells you how many times larger A is compared to B. If the result is 3, then A is three times bigger than B.
To find the difference in temperature between two values, subtract the smaller temperature from the larger temperature. The result will give you the difference in temperature.
a change in quantity supplied is the result of
Yes, size and temperature both affect thermal energy. Larger objects typically have more thermal energy due to the increased number of particles in the object. Higher temperatures also result in higher thermal energy as particles have more kinetic energy.
The momentum of an object is determined by its mass and speed. Momentum is the product of an object's mass and its velocity, and it is a vector quantity indicating the direction of the object's motion. A larger mass or higher speed will result in a greater momentum.
Higher temperatures result in faster reactions.
The amount of heat radiated by a body depends on factors such as its temperature, surface area, and emissivity. Higher temperatures, larger surface areas, and higher emissivity values generally result in greater heat radiation.
Stars with larger masses have stronger gravity; this results in more pressure; which in turn makes the star hotter. As a result of the higher temperature, they will shine brighter, and burn their fuel much faster.
Kinetic energy is directly related to the speed of molecules, not their size. In general, larger molecules tend to have higher potential energy due to their higher mass, which can result in higher kinetic energy when they are moving.
The amount of particles in an object affects temperature by influencing the object's internal energy. More particles typically result in a higher internal energy, leading to a higher temperature. Conversely, fewer particles usually result in lower internal energy and a lower temperature.
Division is a magnified decrease in quantity by separating one larger quantity into groups of smaller quantities. It is used to find out how many times one quantity is contained in another. It is the inverse of multiplication and is indicated by the ratio symbol (/). The result of division is known as the quotient.