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Post by sage on Jul 30, 2021 2:21:54 GMT
After looking through YouTube, I've noticed that instructional videos about this game are about 5 years old at best (they were made in 2016).
Here are a list of those Video.
by ReadySetRudy
Gunship Re Design - Part 1 - Children of a Dead Earth
Gunship Re Design - Part 2 - Children of a Dead Earth
Kinetic Kill Vehicles
Nuclear Coil Guns and Other Nuke Fun
Laser Gunship - Children of a Dead Earth Space Combat Simulator
Laser Dreadnought - Children of a Dead Earth
Drones - Children of a Dead Earth
Drones Launching Drones - Children of a Dead Earth
I Know Some Maneuvers - Children of a Dead Earth
666 Decimeters of Decimation
by Scott Manley
Children of a Dead Earth - Space Wars With Orbital Mechanics
Children Of A Dead Earth - Part 2 - Nuclear Weapons
Children Of A Dead Earth - Part 3 - Nukes & Drones
Children Of A Dead Earth - Part 4 Retaking Ceres and Frustrating The Enemy
Children Of A Dead Earth - Part 5 - Jousting With Nuclear Weapons
Designing Rockets, Guns, Lasers and Nuclear Devices Using Physics
Here's what I want to do. I want to make an online class about how to make ships and modules in Children of a Dead Earth.
As well as a class on realistic space warfare. Which I'm using the this game as a template for. Of course using player made ships and modules.
What I need to know is what is the best video recorder for recording gameplay of children of a dead earth. As well as any advice on editing software and voice recording porting methods. Such as what type of microphone would be best or whatever software would be best for editing
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Post by sage on Jan 12, 2022 19:33:11 GMT
Info on "Oumuamua" that I plan to use to find the real ranges that our space warships can fight at.
There are three different ranges in a fight: Detection in Space Warfare
Pan-STARRS currently (2018) consists of two 1.8-m Ritchey–Chrétien telescopes found "Oumuamua"
When it was first observed, it was about 33 million km (21 million mi; 0.22 AU) from Earth (about 85 times as far away as the Moon), and already heading away from the Sun.
Astronomers have determined that Oumuamua made its closest pass by the sun on Sept. 9 and then Zoomed within 15 million miles (24 million kilometers) of earth on Oct. 14- about 60 times the distance from our planet to the moon.
The Spitzer Space Telescope did not detect any heat in the form of infrared radiation from "Oumuamua"
As you can see from these facts, The Detection Range for a 1.8-m Ritchey–Chrétien telescopes is 33 million km for an object WITHOUT infrared radiation. But we were still not able to Identify the object even when it was 24 million kilometers away from us.
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Post by sage on Jan 12, 2022 21:54:28 GMT
"Oumuamua" is a small object estimated to be between 100 and 1,000 meters (300 and 3,000 ft) long, with its width and thickness both estimated to range between 35 and 167 meters (115 and 548 ft)
Spectra from the Hale Telescope on 25 October showed red color resembling comet nuclei or Trojans. Higher signal to noise spectra recorded by the 4.2 m (14 ft) William Herschel Telescope later that day showed that the object was featureless, and colored red like Kuiper belt objects. Spectra obtained with the 8.2 m (27 ft) Very Large Telescope the following night showed that behavior continued into near-infrared wavelengths. Its spectrum is similar to that of D-type asteroids.
Light curve from 25 to 27 October 2017 with dotted line from a model with 10:1 elongation
ʻOumuamua is not rotating around its principal axis, and its motion may be a form of tumbling. This accounts for the various rotation periods reported, such as 8.10 hours (±0.42 hours or ±0.02 hours) by Bannister et al. and Bolin et al. with a light curve amplitude of 1.5–2.1 magnitudes, whereas Meech et al. reported a rotation period of 7.3 hours and a light curve amplitude of 2.5 magnitudes. Most likely, ʻOumuamua was set tumbling by a collision in its system of origin and remains tumbling since the time scale for dissipation of this motion is very long, at least a billion years.
as you can see, we can't tell what Oumuamua is, only that it was there. Hell, we can't even tell you the right size of Oumuamua.
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Post by sage on Jan 12, 2022 23:13:30 GMT
Infrared waves have longer wavelengths than visible light and can pass through dense regions of gas and dust in space with less scattering and absorption. Thus, infrared energy can also reveal objects in the universe that cannot be seen in visible light using optical telescopes
Infrared thermography (IRT), thermal video and/or thermal imaging, is a process where a thermal camera captures and creates an image of an object by using infrared radiation emitted from the object in a process, which are examples of infrared imaging science. Thermographic cameras usually detect radiation in the long-infrared range of the electromagnetic spectrum (roughly 9,000–14,000 nanometers or 9–14 μm) and produce images of that radiation, called thermograms.
Older bolometers or more sensitive models such as InSb require cryogenic cooling, usually by a miniature Stirling cycle refrigerator or liquid nitrogen.
A bolometer is a device for measuring the power of incident electromagnetic radiation via the heating of a material with a temperature-dependent electrical resistance.
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Post by sage on Jan 12, 2022 23:15:27 GMT
Thermal radiation is electromagnetic radiation generated by the thermal motion of particles in matter. Thermal radiation is generated when heat from the movement of charges in the material (electrons and protons in common forms of matter) is converted to electromagnetic radiation. All matter with a temperature greater than absolute zero emits thermal radiation. Particle motion results in charge-acceleration or dipole oscillation which produces electromagnetic radiation.
Subjective color to the eye of a black body thermal radiator
°C (°F) Subjective color
480 °C (896 °F) faint red glow
580 °C (1,076 °F) dark red
730 °C (1,350 °F) bright red, slightly orange
930 °C (1,710 °F) bright orange
1,100 °C (2,010 °F) pale yellowish orange
1,300 °C (2,370 °F) yellowish white
> 1,400 °C (2,550 °F) white (yellowish if seen from a distance through atmosphere)
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