I don't know. I never said that. Some folks are just brainwashed and therefore think they are telling the truth.
*** Solar Eclipse Caught On My Satellite Data Feed ***
- Thread starter 4 Dimensional
- Start date
I don't know. I never said that. Some folks are just brainwashed and therefore think they are telling the truth.
Seriously. And please believe if I had actual footage of the Earth being flat, I'd be a billionaire from selling it to the highest bidder!
I'd be regarded as the greatest astronomer ever!
This is a simulation of an eclipse based on a geocentric (flat earth) model.
that ain’t not simulation. That’s just a regular gif someone made to make it make sense in their mind.
Simulations are based on measurable variables. Something that can be calculated numerically.
They're not brainwashed they're liars. All of them.
If the evidence that every scientist and human have studied clearly shows that the Earth is flat and they still come out and say that it's round...
Then every single one of them is a liar.
Right. Someone like Elon would love to be the center of that type of attention.
Exactly.
Aight bruh, whatever you say.....
Welp......this was fucking cool.
Thing is, you just posted footage of the earth being flat on the red bull vide
You see what you want to see.
And again, all of these people are lying?
Who’s paying them to lie, what’s the motivation?
And also, does NASA provide everyone with the default background of space and Earth when they let NASA know that they'll be taking a peak?
And this is why you never see flat earthers show equations to prove that the earth is flat, they just use a bunch of words.
And when they do show equations it never based on something they come up with that works for their flat earth model.
See,
this is why bruh, this is exactly whyDid you even read my first response to you??? Obviously not.
A few clues here
1) a flat horizon at eye level, including the haze leading up to the darkness
2) a local sun
3) a sunspot on the clouds
4) no parallax between the sun and the earth as the camera rotates up and down.
But of course, posting clues will do no good.
Yall cats who believe in NASA are worst than christians.
See,
Did you even read my first response to you??? Obviously not.
A few clues here
1) a flat horizon at eye level, including the haze leading up to the darkness
2) a local sun
3) a sunspot on the clouds
4) no parallax between the sun and the earth as the camera rotates up and down.
But of course, posting clues will do no good.
Yall cats who believe in NASA are worst than christians.
And no I'm not searching for these vids, unfortunately it popped up in my feed after my initial search.
Not true AT ALL
Look up Jeranism, Globebusters or Vibes of Cosmos on youtube and then come back and say that shit again with a straight face.
Yeah, flat earthers have debunked everything this dude has said..
Aight, gotta go! Time for some pussy!
Yeah, flat earthers have debunked everything this dude has said..
Aight, gotta go! Time for some pussy!
What you don't realize is that I'm on your side. I'm here to prove all those round Earther's wrong so that I can get to this money!
I'll win the Nobel Peace Prize, be Time and CNN's person of the year. And last but not least the most decorated Astronomer of all time!
The man that brought truth to all of humanity.
I want that, I just need the proof.
Thanks for sharing, Fam. These satellite data images during this event are dope AF
@ the resident FLERFS saying this is "CGI" and "The moon appeared to disappear behind the sun"...JUST WOW!!
Thanks for sharing, Fam. These satellite data images during this event are dope AF
We're all in on it, fam.
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DID YOU NOTICE THAT YOU CAN'T TELL ME WHERE THE NEW MOON GOES EVERY MONTH DURING THE NEW MOON PHASE?
Did anyone notice that the moon stopped and paused in front of the sun and then proceeded to move again? I'm not saying it did, but did anyone notice a pause?
PLEASE TELL US WITHOUT USING DERPY CARTOONS!
We're all in one it, fam.
I think I should be getting a little extra this month from NASA for trying to convince two more people that the Earth's round.
Not true AT ALL
Nah bruh, if YOU believe the earth is flat I want YOU to walk us through the math. Sam already made the point, people who believe the earth is flat aren't good in math.
Instead of referencing dudes on YouTube, you could have shut everyone in the thread down by posting the equations and walking us through them YOURSELF. And I mean using your own words, not copying and pasting someone else's explanation.
I create some of these products using this method from the GOES satellite. It is called a True-Color image. It uses bands that reflect three different wavelengths to measure features on Earth. The three visible bands (channels 1-blue, 2-red, and 3-green) can only be calculated during the day because of the sunlight. The nighttime band (Channel 13) measures longwave radiation as infrared.
I must measure the solar zenith angle to calculate the transitions from day to night. Some of the code looks like this:
This is a piece of code I use to calculate the True-Color image.
After a lot of extra shit, I get the resulting image. But naw, these niggas think I'm out here photoshopping shit.
I must measure the solar zenith angle to calculate the transitions from day to night. Some of the code looks like this:
Code:
# =============================== #
# Performnig Zenith Calculation
# =============================== #
# Get the year month day hour and minute to apply the zenith correction
year = file_created_digi_fmt[:4]
month = file_created_digi_fmt[:6][-2:]
day = file_created_digi_fmt[:8][-2:]
hour = file_created_digi_fmt[:10][-2:]
minutes = file_created_digi_fmt[:12][-2:]
# Using pyorbital to perform zenith calculations.
utc_time = datetime(int(file_created_digi_fmt[:4]), int(month), int(day), int(hour), int(minutes))
sun_zenith = np.zeros((Ch02.shape[0], Ch02.shape[1]))
if resolution == '1km':
sun_zenith = astronomy.sun_zenith_angle(utc_time, lonsA, latsA)
elif resolution == '2km':
sun_zenith = astronomy.sun_zenith_angle(utc_time, lonsA[::2,::2], latsA[::2,::2])This is a piece of code I use to calculate the True-Color image.
Code:
################################################################
# Calculating True Color RGB
# https://rammb.cira.colostate.edu/training/visit/quick_guides/
################################################################
# Apply range limits for each channel. RGB values must be between 0 and 1
R = np.clip(R, 0, 1)
G = np.clip(G, 0, 1)
B = np.clip(B, 0, 1)
# Apply a gamma correction to the image to correct ABI detector brightness
gamma = 2
R = np.power(R, 1/gamma)
G = np.power(G, 1/gamma)
B = np.power(B, 1/gamma)
# True Color recipe
# http://cimss.ssec.wisc.edu/goes/OCLOFactSheetPDFs/ABIQuickGuide_CIMSSRGB_v2.pdf
G_true = 0.45 * R + 0.1 * G + 0.45 * B
G_true = np.clip(G_true, 0, 1) # apply limits again, just in case.
# The RGB array for the true color image
RGB = np.dstack([R, G_true, B])
# Amount of contrast
contrast_amount = 80
# Apply contrast correction
RGB = contrast_correction(RGB, contrast_amount)
#########################################################
# Creating transparent sun zenith line between RGB and IR
#########################################################
# If zenith angle is greater than 100, the composite pixel is zero
RGB[sun_zenith > 100] = 0
# Create the mask for the regions with zero
mask = (RGB == [0.0,0.0,0.0]).all(axis=2)
# Apply the mask to overwrite the pixels
RGB[mask] = [0,0,0]
# Create the fading transparency between the regions with the
# sun zenith angle of min and max from array
alphas = sun_zenith / 100
min_sun_angle = 0.80
max_sun_angle = 1
alphas[alphas < min_sun_angle] = min_sun_angle
alphas[alphas > max_sun_angle] = max_sun_angle
# Normalize the transparency mask
alphas = ((alphas - max_sun_angle) / (min_sun_angle - max_sun_angle))
# Combining RGB and Transparent Sun Zenith Angle
RGB_alpha = np.dstack((RGB, alphas))After a lot of extra shit, I get the resulting image. But naw, these niggas think I'm out here photoshopping shit.
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@4 Dimensional stay lying
I create some of these products using this method from the GOES satellite. It is called a True-Color image. It uses bands that reflect three different wavelengths to measure features on Earth. The three visible bands (channels 1-blue, 2-red, and 3-green) can only be calculated during the day because of the sunlight. The nighttime band (Channel 13) measures longwave radiation as infrared.
I must measure the solar zenith angle to calculate the transitions from day to night. Some of the code looks like this:
Code:# =============================== # # Performnig Zenith Calculation # =============================== # # Get the year month day hour and minute to apply the zenith correction year = file_created_digi_fmt[:4] month = file_created_digi_fmt[:6][-2:] day = file_created_digi_fmt[:8][-2:] hour = file_created_digi_fmt[:10][-2:] minutes = file_created_digi_fmt[:12][-2:] # Using pyorbital to perform zenith calculations. utc_time = datetime(int(file_created_digi_fmt[:4]), int(month), int(day), int(hour), int(minutes)) sun_zenith = np.zeros((Ch02.shape[0], Ch02.shape[1])) if resolution == '1km': sun_zenith = astronomy.sun_zenith_angle(utc_time, lonsA, latsA) elif resolution == '2km': sun_zenith = astronomy.sun_zenith_angle(utc_time, lonsA[::2,::2], latsA[::2,::2])
This is a piece of code I use to calculate the True-Color image.
Code:################################################################ # Calculating True Color RGB # https://rammb.cira.colostate.edu/training/visit/quick_guides/ ################################################################ # Apply range limits for each channel. RGB values must be between 0 and 1 R = np.clip(R, 0, 1) G = np.clip(G, 0, 1) B = np.clip(B, 0, 1) # Apply a gamma correction to the image to correct ABI detector brightness gamma = 2 R = np.power(R, 1/gamma) G = np.power(G, 1/gamma) B = np.power(B, 1/gamma) # True Color recipe # http://cimss.ssec.wisc.edu/goes/OCLOFactSheetPDFs/ABIQuickGuide_CIMSSRGB_v2.pdf G_true = 0.45 * R + 0.1 * G + 0.45 * B G_true = np.clip(G_true, 0, 1) # apply limits again, just in case. # The RGB array for the true color image RGB = np.dstack([R, G_true, B]) # Amount of contrast contrast_amount = 80 # Apply contrast correction RGB = contrast_correction(RGB, contrast_amount) ######################################################### # Creating transparent sun zenith line between RGB and IR ######################################################### # If zenith angle is greater than 100, the composite pixel is zero RGB[sun_zenith > 100] = 0 # Create the mask for the regions with zero mask = (RGB == [0.0,0.0,0.0]).all(axis=2) # Apply the mask to overwrite the pixels RGB[mask] = [0,0,0] # Create the fading transparency between the regions with the # sun zenith angle of min and max from array alphas = sun_zenith / 100 min_sun_angle = 0.80 max_sun_angle = 1 alphas[alphas < min_sun_angle] = min_sun_angle alphas[alphas > max_sun_angle] = max_sun_angle # Normalize the transparency mask alphas = ((alphas - max_sun_angle) / (min_sun_angle - max_sun_angle)) # Combining RGB and Transparent Sun Zenith Angle RGB_alpha = np.dstack((RGB, alphas))
After a lot of extra shit, I get the resulting image. But naw, these niggas think I'm out here photoshopping shit.
Check this out, I know what you're trying to do but it's not gonna work.
My check WILL be bigger from NASA and the Round Earth Society this month.
A total eclipse on December 14th, 2020, in the Southern Hemisphere in Southern Chile and Argentina.
Solar eclipse of December 14, 2020 - Wikipedia
We are telling all the lies, bro. Everyone is in on it.
Oh lawd, this nigga....
Yeah, I know all about the new moon. The new moon goes to different locations monthly due to the spiraling cycle of the moon around the flat earth. The moon really is a clock that works on a 13-month schedule.
I'm reluctant to get into specifics with you mf's because it's a big waste of time. Yall don't listen. Yall can't grasp simple shit I tell you.
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