Usually it gets bigger, if you wanted to do an experement, you would- Measure the spring, put it in water, take it out then measure it again and it would be bigger!
Depending on how you have it rigged up, the spring will either extend, compress, or sag farther than it did with less weight. Gravity is a big part of the reason for that response.
When you add salt to water, the total mass of the water solution increases because the salt also contributes to the total mass. However, the salt dissolves into the water, so the mass of the water molecules themselves remains the same.
If you add more of the same substance to an object, the density of the object will increase. Density is calculated by dividing the mass of an object by its volume, so as you add more substance, the mass increases but the volume does not increase proportionally, resulting in a higher density.
Adding mass to an elastic band increases the tension in the band, causing it to stretch further. This is due to the increase in gravitational force acting on the mass, which the band must counteract to maintain equilibrium. The band stretches until the force exerted by the tension equals the force of gravity acting on the mass.
To change the mass of an object, you would need to add or remove matter from the object. To increase the mass, you can add more matter such as by attaching additional objects or filling it with a denser material. To decrease the mass, you can remove matter from the object such as by cutting or removing parts of it.
When you add a mass to a spring, the spring compresses or stretches depending on the orientation and type of spring. This change occurs due to the gravitational force acting on the mass, which exerts a downward force that causes the spring to deform. The amount of deformation is described by Hooke's Law, which states that the force exerted by the spring is proportional to its displacement from the equilibrium position. As a result, the system reaches a new equilibrium position where the spring force balances the weight of the added mass.
It is a meaningless concept. You cannot add mass to a length.
By unit of mass add time and conversion ,we can say that SI Unit of length mass is kg and SI Unit of time is seconds (sec).
The question is meaningless since you cannot add mass to length.
You will shorten the life of the battery. Only add Distilled water to a battery.
Depending on how you have it rigged up, the spring will either extend, compress, or sag farther than it did with less weight. Gravity is a big part of the reason for that response.
When you add salt to water, the total mass of the water solution increases because the salt also contributes to the total mass. However, the salt dissolves into the water, so the mass of the water molecules themselves remains the same.
If you add more of the same substance to an object, the density of the object will increase. Density is calculated by dividing the mass of an object by its volume, so as you add more substance, the mass increases but the volume does not increase proportionally, resulting in a higher density.
How do you determine area if given density mass and length?Density = Mass ÷ volumeVolume = L * W * HtArea = L * WVolume = Area * HtDensity = Mass ÷ volumeDensity = Mass ÷ (Area * Ht)Multiply both sides by AreaArea * Density = Mass ÷ HtDivide both sides by DensityArea = Mass ÷ (Ht * Density)
well when trying to heat things up one add in celsius but when one reduces temperatur u use Fahrenheit and length in mass is judged by fat around he waist and genital regions and time is the amount of time u spend during opulance.
The mass of an electron is almost entirely negligible compared to the mass of an atom. I'm not sure if that's the question you were asking, but you can essentially ignore electron mass when calculating the mass of an atom; an electron's mass is only about 0.0005 amu, so even for the heaviest elements the total mass of the electrons is still a tiny fraction of an amu.
As you add more protons to an atom, the mass number, which is the total number of protons and neutrons in the nucleus, generally increases. Each added proton contributes one unit to the mass number, while the number of neutrons may also change to maintain stability. Consequently, as the atomic number (number of protons) increases, the mass number typically increases as well, reflecting the larger nucleus.