No but I'm guess your what? 90? Cause you just so darn mature </sarcasm>
That's what it did for me.
If light does bend, then the beam will eventually deviate from the designated angles you set on the mirrors.
Where did you educate the biology, in toulet?
Quote from: ragnarr on March 15, 2009, 09:02:38 AMIf light does bend, then the beam will eventually deviate from the designated angles you set on the mirrors.See, that's an unwarranted assumption. It's already been stated that the effect is only detectable over long distances and a lot of accumulated short distances would not necessarily equate to the same thing.
See, that's an unwarranted assumption. It's already been stated that the effect is only detectable over long distances and a lot of accumulated short distances would not necessarily equate to the same thing.
It shall be detrimined(No time to spell, yet oddly time to awknowledge the mistake and type about it) eventually.
Quote from: Roundy the Truthinessist on March 15, 2009, 10:50:11 AMSee, that's an unwarranted assumption. It's already been stated that the effect is only detectable over long distances and a lot of accumulated short distances would not necessarily equate to the same thing.If I drive my car back and forward along the same 100m route, after 5 journeys there and back I should have travelled 1km correct?How does this differ from travelling once along a 1km route?
Being exact with distances, 1km total was travelled in each scenario. Relative position is of no concern to the experiments proposed eariler in this forum, neither is fuel consumption.
I'm not arguing that the distance changes at all. I'm arguing that the atmosphere affects our perception of its position over a long distance.
Such is the inherent flaw of science.
Quote from: Tom Bishop on March 14, 2009, 06:06:36 PMQuote from: Johannes Kepler on March 14, 2009, 05:38:01 PMWhy would the earth bend downward?Not sure. The simplest explanation is that light bends upwards because that's what's observed when one shines a laser beam over a long distance.Patently false. You should not assume anything about the Earth. You don't need to know the distance above the Earth to measure your result. Just measure the change independent of the Earth.Here's how to falsify "bendy" light easily (I know I'm repeating what other REers have already told you.)Hypothesis: Light curves upwards in the atmolayer of the Earth.Design: Use a common laser. Level it. Shine it through a half-silvered mirror at 45o one inch away and then one mile onto a mirror. Adjust the mirror until the laser light from both paths lie at the same point. Measure the angle the mirror forms with the laser.Result: 90oConclusion: Hypothesis is falsified.Preemptive answer: Yes, Tom, I and every college physics student did this exact experiment in the lab we had to take to measure the speed of light.
Quote from: Johannes Kepler on March 14, 2009, 05:38:01 PMWhy would the earth bend downward?Not sure. The simplest explanation is that light bends upwards because that's what's observed when one shines a laser beam over a long distance.
Why would the earth bend downward?
Quote from: MayTheBetterModelWin on March 14, 2009, 10:30:28 PMQuote from: Tom Bishop on March 14, 2009, 06:06:36 PMQuote from: Johannes Kepler on March 14, 2009, 05:38:01 PMWhy would the earth bend downward?Not sure. The simplest explanation is that light bends upwards because that's what's observed when one shines a laser beam over a long distance.Patently false. You should not assume anything about the Earth. You don't need to know the distance above the Earth to measure your result. Just measure the change independent of the Earth.Here's how to falsify "bendy" light easily (I know I'm repeating what other REers have already told you.)Hypothesis: Light curves upwards in the atmolayer of the Earth.Design: Use a common laser. Level it. Shine it through a half-silvered mirror at 45o one inch away and then one mile onto a mirror. Adjust the mirror until the laser light from both paths lie at the same point. Measure the angle the mirror forms with the laser.Result: 90oConclusion: Hypothesis is falsified.Preemptive answer: Yes, Tom, I and every college physics student did this exact experiment in the lab we had to take to measure the speed of light.You had a lab one mile long in college?
Penis tastes like skin.
Especially Marcus. He has a smart brain.
Quote from: Roundy the Truthinessist on March 15, 2009, 11:43:45 AMI'm not arguing that the distance changes at all. I'm arguing that the atmosphere affects our perception of its position over a long distance.So another method other than our own perception must be used to determine how light reacts over long ditances?
So at sea level, the horizon is 3 miles away. You're saying light bends enough to be noticed over 3 miles but not over 1 mile?
I don't know what you're implying, but you're probably wrong.
Quote from: TheEarthIsACube on March 18, 2009, 08:20:48 AMSo at sea level, the horizon is 3 miles away. You're saying light bends enough to be noticed over 3 miles but not over 1 mile?That's right. We can even form an equation based on this very observation so we can approximate the path the light has taken during that 3 mile distance. Of course we'd need some more accurate data for the calculation to be more than a very rough estimate. It would be best if we had more than one point of data.An example would be to find an offshore platform of known distance from shore and height above sea level and note how much is visible from different heights at the same point on the shore. Having access to a scissor lift, or cherry picker would be ideal for such an experiment.
Quote from: EnigmaZV on March 18, 2009, 04:28:11 PMQuote from: TheEarthIsACube on March 18, 2009, 08:20:48 AMSo at sea level, the horizon is 3 miles away. You're saying light bends enough to be noticed over 3 miles but not over 1 mile?That's right. We can even form an equation based on this very observation so we can approximate the path the light has taken during that 3 mile distance. Of course we'd need some more accurate data for the calculation to be more than a very rough estimate. It would be best if we had more than one point of data.An example would be to find an offshore platform of known distance from shore and height above sea level and note how much is visible from different heights at the same point on the shore. Having access to a scissor lift, or cherry picker would be ideal for such an experiment.Excuse, but every day this experiment is done by people moving between floors tall buildings of our port cities.
Quote from: MayTheBetterModelWin on March 18, 2009, 05:08:07 PMQuote from: EnigmaZV on March 18, 2009, 04:28:11 PMQuote from: TheEarthIsACube on March 18, 2009, 08:20:48 AMSo at sea level, the horizon is 3 miles away. You're saying light bends enough to be noticed over 3 miles but not over 1 mile?That's right. We can even form an equation based on this very observation so we can approximate the path the light has taken during that 3 mile distance. Of course we'd need some more accurate data for the calculation to be more than a very rough estimate. It would be best if we had more than one point of data.An example would be to find an offshore platform of known distance from shore and height above sea level and note how much is visible from different heights at the same point on the shore. Having access to a scissor lift, or cherry picker would be ideal for such an experiment.Excuse, but every day this experiment is done by people moving between floors tall buildings of our port cities.And what data have these great scientists collected?
Quote from: Roundy the Truthinessist on March 19, 2009, 05:22:58 PMQuote from: MayTheBetterModelWin on March 18, 2009, 05:08:07 PMQuote from: EnigmaZV on March 18, 2009, 04:28:11 PMQuote from: TheEarthIsACube on March 18, 2009, 08:20:48 AMSo at sea level, the horizon is 3 miles away. You're saying light bends enough to be noticed over 3 miles but not over 1 mile?That's right. We can even form an equation based on this very observation so we can approximate the path the light has taken during that 3 mile distance. Of course we'd need some more accurate data for the calculation to be more than a very rough estimate. It would be best if we had more than one point of data.An example would be to find an offshore platform of known distance from shore and height above sea level and note how much is visible from different heights at the same point on the shore. Having access to a scissor lift, or cherry picker would be ideal for such an experiment.Excuse, but every day this experiment is done by people moving between floors tall buildings of our port cities.And what data have these great scientists collected?Again, you attack a strawman. I never said great scientists were involved, for example.