Energy

Your a butt and u no it... Wiki answers suck the spell check doesnt even work

A battery consists of several cells connected together to store and release electrical energy. Each cell produces a voltage, and when multiple cells are combined, their voltages add up to provide a higher total voltage.

The solar constant is an expression of the amount of solar radiation that reaches the Earth's upper atmosphere. It represents the power per unit area received from the Sun at a distance of one astronomical unit (AU) from Earth. It is typically measured to be about 1,366 watts per square meter.

The final velocity of the object would be less than its initial velocity, as some of the kinetic energy has been converted to potential energy. The exact final velocity would depend on the specific amounts of energy involved and the characteristics of the system.

solar The sun releases electromagnetic energy in the entire EM spectrum from radio waves up to Gamma radiation

Most of the energy we use can be traced to the Sun in one way or another, but not all of it. Energy from nuclear sources does not come from the Sun. It comes from the heat produced as a result of decay of radioactive isotopes.

While the Sun does create radioactive isotopes in its interior, that is not the source of the isotopes available to us on the Earth today. Our radioactive isotopes came from other stars that exploded billions of years ago, before the Earth and the Sun were formed.

Gases like water vapor, carbon dioxide, and ozone in the atmosphere can absorb and reflect energy from the sun. Particulate matter, such as dust and pollution, can also play a role in absorbing or reflecting solar energy in the atmosphere.

When we say that light is an electromagnetic wave, we mean that light is made up of electric and magnetic fields that oscillate perpendicular to each other as the wave travels through space. This behavior is described by Maxwell's equations in electromagnetism.

Natural sources of sound include animals vocalizing, wind rustling through trees, waves crashing on the shore, thunder during a storm, and rainfall. Other examples include earthquakes, volcano eruptions, and avalanches.

Short answer: Zacharias Jansen

Long answer: Your question is not valid for 2 reasons:

1. You cannot "discover" something if it does not exist. You should be asking who invented it, not who found it laying around somewhere.

2. A "simple microscope" is not common terminology. Simple compared to an electron microscope? or simple compared to a compound microscope?

What is typically referred to as just "microscope" is technically a compound microscope. A set of multiple lenses mounted in a desktop style that allows the compounding of magnification.

A compound microscope is the standard microscope in any basic lab setting.

Anything more "simple" than a compound microscope would not even really be a microscope, it would either be a telescope, or simpler than that is a magnifying glass (with a single lens)

The inventor of the magnifying glass was: Roger Bacon

The next step up is the telescope invented by: Zacharias Jansen

The next step up is the "compound microscope" which was also invented by: Zacharias Jansen (this is the simplest form of what would be recognized as or named "microscope")

If you wanted to go even "simpler" and define microscope as anything that magnifies, there were reading glasses around for thousands of years prior, and even "reading stones" which were lumps of polished glass used to magnify parchment in Egypt as far back as 7000 B.C. (inventor unknown).

So it really depends on how you wish to refine your meaning of simple. The magnification of anything? There is no known inventor for reading stones, his name is lost to time. Or if you mean the first invented microscope that could examine things too small for a human eye to detect, that's a compound microscope.

Thus if I am guessing your meaning correctly, you meant to ask this question:

Question: Who invented the compound microscope?

Answer: Zacharias Jansen

On the asteroid Ceres, both the hammer and feather would hit the ground at the same time due to the very low gravitational pull compared to Earth. This phenomenon is in line with Galileo's principle that objects of different mass will fall at the same rate in a vacuum.

Solar Sun Rings are safer and are capable of generating more heat that a solar cover. The effect is that Solar Sun Rings with 70% to 80% coverage outperform bubble pack covers with 100% coverage.

cheers

mark tahiliani (jm)

The higher in the sky the sun is the more solar radiation received at the surface. This is because as the sun gets higher in the sky, there is less atmosphere blocking the sun's rays. Imagine the sun going through the atmosphere at a 90 degree angle. The thickness of the atmosphere let say is x thick. As the sun hit the surface at a lower angle, the thickness of the atmosphere has to go through more atmosphere to get to the surface. So the thicker atmosphere blocks more of the sun's rays.

A cirrostratus cloud appears as a thin, wispy veil covering the sky, often producing a halo effect around the sun or moon. These high-altitude clouds are transparent and can sometimes signal incoming precipitation in the near future.

Energy from the sun travels to Earth as electromagnetic radiation, primarily in the form of visible light and infrared radiation. This energy is essential for life on Earth as it provides warmth, powers photosynthesis in plants, and drives the Earth's weather systems.

to burn any material, not only fossil fuel, we need three things:

1. Fuel (any material that can be burned, ex: fossil fuel, wood, paper, etc)

2. Ignition (high temperature, or fire sparks)

3. Air

and now, if you want to burn fossil fuel on the moon you also need these three factors..

the answer is : NO, because there is no air on the moon ( if there is, it's just in a very small volume and can't be used to burn fossil fuel)

~

ANSWER 2.0 BY RUSSIANS

1)there is no fossil fuel on the moon

2)there no oxygen on the moon

however if you bring your own,

like the FUEL AND OXIDIZER for rocket

engines of American space craft

fossil fuel will burn just fine.

i believe the fuel used was hydrogen witch is non petroleum

so technically it was not fossil fuel.

but never the less it was fire in vacuum.

The molecules will begin to oscillate, the more energy they gain the more intense the vibration. when the vibration gets too intense, the water molecule detaches from other water molecules and becomes water vapour.

In the solar sytem there are 9 planets.There is also a milky way. I think that some people found 2 more new planets.

Roughly the average household with two adults and two children would use up somewhere around 18,000kWatt hours per year, but it depends on how big the house is and the amount of electrical appliances you own.

The bubbles are hydrogen and oxygen, formed from the electrolysis of the water by the electric current.

Oxygen gas accumulates at the anode.

Hydrogen gas accumulates at the cathode.

If the sun emitted more energy, global climates would likely become warmer as more solar radiation reaches the Earth's surface. This could lead to increased temperatures, changes in weather patterns, and potentially more extreme weather events such as heatwaves and droughts. It could also contribute to accelerated melting of polar ice caps and rising sea levels.

egan describes the ideal body language for a therapist tlaking to a patien. this being: Sitting "square"on to them Open Posture Lean forward very slightly Alert ( dont yawn or stare into the distance) Relax. if you look uneasy then the patient will mirror you! Or S.O.L.A.R. Hope this helps. Paul

Strictly speaking objects do not contain "heat". Heat is energy in transit - think of it as an analog to water compared to rain. Rain is water in transit from the clouds to the ground. Once it lands and starts to form puddles, rivers, streams, etc, we no longer call it rain. Likewise, when energy is being held in an object we do not call it heat. It only becomes HEAT when in transit from that object to another object.

What the question is probably trying to ask is about the relationship between the mass of an object and the enthalpy (or alternatively internal energy). As energy (such as heat) is added to an object, it gets warmer and the enthalpy increases. If it comes in contact with something cooler, it can transfer some of that energy in the form of heat, but the temperature can also be changed by doing work on the object or subjecting to friction. One property of any object is its "heat capacity" which is measured in terms of the amount of energy required to raise the temperature of the object by a certain amount. Usually this is identified in terms of the "specific heat" - the energy per unit mass per degree of temperature. As an example, the specific heat of liquid water is about 1 BTU per lbm per °F or 1 calorie per gram per °C at room temperature.

The enthalpy of an object is thus related to the mass of the object via the specific heat.

Note that enthalpy must always be measured relative to a reference point. It is what is known as a "state function". Typically the enthalpy is tabulated relative to a reference state of "standard temperature and pressure".

Dark-colored storms and eight moons is quite possible referring to the planet of Neptune. Neptune is deemed to now be the planet that is farthest away from the sun because Pluto was downgraded to a dwarf planet.

E=mc^2 describes the relationship between energy (E), mass (m), and the speed of light (c). In the context of the Sun and stars, E=mc^2 is relevant because it explains how nuclear fusion reactions in their cores convert mass into energy, providing the heat and light they emit. This equation is fundamental to understanding the energy source that powers these celestial bodies.