TST Futurism Timeline

By about 2027, the first mainstream AI doctors will begin arriving as read-only health assistants. My strategy: GEHC.

Closed-loop life support moves from dream to testbed. By recycling air and water aboard the ISS, humanity takes another step toward self-sustaining habitats on the Moon, Mars, and beyond.

My Strategy: Invest in RGTI, IONQ, QBTS stocks at 30 day lows through 2027. Invest in the big boys at 5 day lows: NVDA, MSFT, GOOGL, etc.

Transition from peak oil consumption to a sustainable energy future. Now pushed back because of MAGA and their denial of reality. A time when heavy oil consumption transitions to a clean dominated renewable energy sources. My Strategy: Invest in DUG inverse oil ETF at 30 day lows through 2035. Invest in ICLN and CNRG solar ETFs at 30 day lows through 2035. Invest in NEE and ENPH renewable stocks at 30 day lows through 2035. Do not short large oil as they have the money to retool.

Digital AI filesystems will seamlessly integrate into our daily lives. An AI entity will assist people and organizations in organizing digital content. The efficient and innovate technology will be one of the elements that propels humanity to the next level.

My Strategy: None, too far out, but watching Optimus, a division of TSLA. Also watching: SFTBY, HMC, TM, SSNLF, HYMTF. Likely to start investing by 2030 after reevaluating leaders.

image depicting the "Advanced Transportation Networks" aspect of a Type I civilization. It features a variety of clean-energy transportation systems within a bustling futuristic city, including electric vehicles, magnetic levitation trains, and aerial drones, centered around a hyperloop station.

A future spirituality may become wiser not by giving up wonder, but by learning where science ends, where meaning begins, and how to honor both without confusing them.

A glimpse into humanity's diverse future habitats: This collage showcases the innovative living conditions envisioned for the mid-24th century, including a floating city on the ocean, an underwater city beneath the waves, an underground city within Earth's depths, and a floating space station orbiting the planet. These advanced environments represent the next steps in our evolution towards a non-surface human population.

Image depicting the advanced energy management systems of a Type III civilization, set about 10,000 years in the future. The scene includes colossal structures like arrays of energy harvesters encircling multiple stars, with intricate networks of energy transmitters and receivers across the galaxy. The visualization captures technologies harnessing the rotational energy of the galaxy and gravitational forces from supermassive black holes, set against the backdrop of the beautifully illuminated Milky Way.

Aerial view of a big city with building roofs covered by snow. Clip. Flying above frozen city and a

Owen is the best GG, CC BY-SA 4.0 <https://creativecommons.org/licenses/by-sa/4.0>, via Wikimedia Commons

"<a href="https://www.flickr.com/photos/37413900@N04/13297090724" target="_blank" rel="noopener noreferrer">Red Giant Star</a>" by <a href="https://www.flickr.com/photos/37413900@N04" target="_blank" rel="noopener noreferrer">Maxwell Hamilton</a> is licensed under <a href="https://creativecommons.org/licenses/by/2.0/" target="_blank" rel="noopener noreferrer">CC BY 2.0</a>

Brown dwarfs (also called failed stars) are substellar objects that are not massive enough to sustain nuclear fusion of ordinary hydrogen into helium in their cores, unlike a main-sequence star. Instead, they have a mass between the most massive gas giant planets and the least massive stars, approximately 13 to 80 times that of Jupiter. However, they can fuse deuterium and the most massive ones (> 65 MJ) can fuse lithium. Astronomers classify self-luminous objects by spectral class, a distinction intimately tied to the surface temperature, and brown dwarfs occupy types M, L, T, and Y. As brown dwarfs do not undergo stable hydrogen fusion, they cool down over time, progressively passing through later spectral types as they age. Despite their name, to the naked eye, brown dwarfs would appear in different colors depending on their temperature. The warmest ones are possibly orange or red, while cooler brown dwarfs would likely appear magenta or black to the human eye. Brown dwarfs may be fully convective, with no layers or chemical differentiation by depth. As brown dwarfs have relatively low surface temperatures, they are not very bright at visible wavelengths, emitting most of their light in the infrared. However, with the advent of more capable infrared detecting devices, thousands of brown dwarfs have been identified. The nearest known brown dwarfs are located in the Luhman 16 system, a binary of L- and T-type brown dwarfs about 6.5 light-years from the Sun. Luhman 16 is the third closest system to the Sun after Alpha Centauri and Barnard's Star. Image created by Pablo Carlos Budassi in 2023 (pablocarlosbudassi.com)