|
|
|
(13 intermediate revisions by 2 users not shown)
|
| Line 1: |
Line 1: |
| − | <center><h2>Ampegy Fraud Prevention</h2></center><br /> <a href="http://ampegyregistration.com" title="Ampegy Responsible MLM Marketing">Ampegy Responsible MLM Marketing</a>: A quick comparison of boiling points for compounds formed by ionic and covalent bonds leads us to this conclusion. The drifting smoke particles in the image provides some insight into low pressure gas behavior.<br /> <i><a href="http://register.ampegy.com" title="Ampegy Scam Prevention">Ampegy Scam Prevention</a></i>: Since it is at the limit of (or beyond) current technology to observe individual gas particles (atoms or molecules), only theoretical calculations give suggestions as to how they move, but their motion is different from Brownian Motion.<br /> <a href="http://ampegyforum.com" title="Ampegy Energy">Ampegy Energy</a>: As most gases are difficult to observe directly with our senses, they are described through the use of four physical properties or macroscopic characteristics: the gas’s pressure, volume, number of particles (chemists group them by moles), and temperature.<br /> <br /> <h3><a href="http://ampegyforum.com" title="Why Ampegy Is Not A Pyramid Scheme">Why Ampegy Is Not A Pyramid Scheme</a></h3> What distinguishes a gas from liquids and solids is the vast separation of the individual gas particles. This separation usually makes a colorless gas invisible to the human observer. The interaction of gas particles in the presence of electric and gravitational fields are considered negligible as indicated by the constant velocity vectors in the image.<br /> <a href="http://www.blackplanet.com/your_page/blog/index.html?profile_id=58481515&profile_name=ampegygascom&user_id=58481515&username=ampegygascom" title="Why Ampegy Is Not A Pyramid Scheme">Why Ampegy Is Not A Pyramid Scheme</a>: Gas particles are widely separated from one another, and as such are not as strongly intermolecularly bonded to the same degree as liquids or solids. These intermolecular forces result from electrostatic interactions between each gas particle.<br /> <a href="http://www.scribd.com/doc/48947004/ampegy" title="Contact Ampegy">Contact Ampegy</a>: In statistical mechanics, temperature is the measure of the average kinetic energy stored in a particle. The methods of storing this energy are dictated by the degrees of freedom of the particle itself (energy modes). Kinetic energy added (endothermic process) to gas particles by way of collisions produces linear, rotational, and vibrational motion as well.<br /> The reason is that Brownian Motion involves a smooth drag due to the frictional force of many gas molecules, punctuated by violent collisions of an individual (or several) gas molecule(s) with the particle. The particle (generally consisting of millions or billions of atoms) thus moves in a jagged course, yet not so jagged as would be expected if an individual gas molecule was examined.<br /> From this global vantage point, the gas characteristics measured are either in terms of the gas particles themselves (velocity, pressure, or temperature) or their surroundings (volume).<br /> High-density atomic gases super cooled to incredibly low temperatures are classified by their statistical behavior as either a Bose gas or a Fermi gas. For a comprehensive listing of these exotic states of matter see list of states of matter.<br /> Here you can find more information: <a href="http://www.ign.com/blogs/ampegygascom/2011/02/16/ampegy-fraud-prevention/" title="Ampegy Fraud Prevention">Ampegy Fraud Prevention</a> - <a href="http://www.kaboodle.com/ampegygascom" title="Ampegy Responsible MLM Marketing">Ampegy Responsible MLM Marketing</a> - <a href="http://www.travelpod.com/travel-blog-entries/ampegygascom/1/1297854501/tpod.html?view=preview" title="Ampegy Scam Prevention">Ampegy Scam Prevention</a>.
| + | '''Whoops! We sent you to the wrong link.''' |
| | + | |
| | + | <big>Please <big>'''[http://www.aboutus.org/sign_up click here]'''</big> to create an account on AboutUs.org so that you can edit pages.</big> |
| | + | |
| | + | If you have any questions, please [mailto:help@aboutus.org email Help@AboutUs.org]. |
Latest revision as of 05:28, 21 October 2014
Whoops! We sent you to the wrong link.
Please click here to create an account on AboutUs.org so that you can edit pages.
If you have any questions, please email Help@AboutUs.org.
