MIT Harvard synthetic biology course - 'HTGAA 2025 Week 9 || Cell-Free Systems |' -
Ronan Donovan
rcd@mit.edu
https://www.linkedin.com/in/
https://www.ronandonovan.com/
Jieming Chu
jch27@jh.edu
https://churchlab.hms.harvard.
Telomere Extension Using Modified TERT mRNA to Lengthen Healthspan
https://purl.stanford.edu/
Is this it ? -
https://stacks.stanford.edu/
mentors -
peter.nguyen@wyss.harvard.edu
https://wyss.harvard.edu/team/
Freeze-Dried Cell-Free
Technology for Educational
Applications
Ally Huang, BioBits
ally@minipcr.com
Lead Research Scientist at minPCR bio
Central Dogma of Biology
https://youtu.be/0VA275plaQE
central dogma of biology dna - rna - proteins
The Central Dogma: Transcription and Translation
https://youtu.be/yLQe138HY3s
@GoogleDeepMind


Innovating w #MLandAIWUaS
https://x.com/Q_YogaMacFlower/
https://x.com/WorldUnivAndSch/
https://x.com/scottmacleod/
https://x.com/HarbinBook/
https://x.com/sgkmacleod/
https://x.com/WUaSPress/
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Dear HTGAA 2025,
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Stanford Law Rock Center -
"The Reincorporation Dilemma – Should Your Company Move Out of Delaware? Confirmation" & re WUaS Corporation, a legal entitty in the state of California
| 1:18 PM (5 hours ago) | ![]() ![]() | ||
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https://law.stanford.edu/
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Hi Scott GK MacLeod, Thank you for registering for The Reincorporation Dilemma – Should Your Company Move Out of Delaware?. Description: For many decades, Delaware has been the leading forum for incorporation in the United States, offering a well-established and predictable legal framework and business- friendly courts. However, recent decisions out of Delaware Chancery Court deemed unfavorable to controlling stockholders have prompted some businesses to reevaluate their incorporation choices. Prominent companies like Tesla and Dropbox have moved out of Delaware and reincorporated in states like Texas and Nevada, and rumors are circulating that more will follow. In February, the Delaware legislature proposed significant amendments to the Delaware General Corporation Law (DGCL) addressing some of the issues that have driven the Delaware exit - or “DExit” - phenomenon. Date Time: Apr 1, 2025 12:00 PM Pacific Time (US and Canada) Join from a PC, Mac, iPad, iPhone or Android device: Please click this URL to join. https://stanford.zoom.us/w/ Note: This link should not be shared with others; it is unique to you. Password: 229696 Add to Calendar Add to Google Calendar Add to Yahoo Calendar Or iPhone one-tap : US: +16507249799,,97124108500# or +18333021536,,97124108500# (Toll Free) Or Telephone: Dial(for higher quality, dial a number based on your current location): US: +1 650 724 9799 or +1 833 302 1536 (Toll Free) Webinar ID: 971 2410 8500 Password: 229696 International numbers available: https://stanford.zoom.us/u/ |
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What's up with this now and regarding 5 years ago -
https://scott-macleod.blogspot.com/2020/04/himalyan-monal-how-are-harbin-hot.html
Wednesday, April 1, 2020
Himalyan Monal: How are the Harbin Hot Springs' Residents coping - in this time of 'national emergency' in the USA? * * * New newspaper ... "Hypothetical News" ... with first tentative headlines: The novel coronavirus COVID-19 (SARS CoV-2) pandemic has been primarily 1 a fire drill - i.e. 'in case of emergency' (eg genetic, war, nuclear) - and lead to governments, internet media, and economies working together internally in all ~200 countries, and internationally too * * * I think this question of caring for Harbin Residents comes back to the state of California and Lake County as governmental entities in part ...
https://scott-macleod.blogspot.com/2020/04/himalyan-monal-how-are-harbin-hot.html
Residents are no more at Harbin (sociologically in many ways) ... with Harbin Hot Springs ~ Heart Consciousness Church hiring staff now, and post Valley Fire of September 12, 2016, for one ...
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far side of earth's moon -
near side of earth's moon -
https://en.wikipedia.org/wiki/Moon
https://commons.wikimedia.org/wiki/Moon
AND
What are the 10 closest places in the universe to Earth that people may go with space travel to visit first and do science there?
It appears you're asking about the closest potentially habitable locations in the universe for future space travel and scientific research. It's important to clarify that interstellar travel (travel between stars) is currently beyond our technological capabilities for human missions due to the vast distances involved. However, we can discuss the closest celestial bodies that could be targets for initial space exploration and scientific study.
Here are 10 of the closest places to Earth that people may aim to visit for scientific purposes, keeping in mind the current and near-future possibilities of space travel:
The Moon: Our closest celestial neighbor. It's a prime location for studying planetary formation, lunar geology, and the effects of long-duration spaceflight. Future missions aim to establish a sustained human presence and conduct extensive scientific research.
- Distance: Approximately 240,000 miles (384,400 km).
- Travel Time (current tech): Several days.
- Science Potential: Lunar geology, resource utilization (water ice), astrophysics from a unique vantage point, and a testing ground for Mars mission technologies.
Mars: The most studied planet after Earth and a major target for future human missions. It has evidence of past liquid water and potential for microbial life, making it a key astrobiology research site.
- Distance: Varies greatly depending on orbital positions, but the closest approach is around 34 million miles (54.6 million km).
- Travel Time (current estimates): Roughly 6-9 months one way.
- Science Potential: Searching for past or present life, studying Martian geology and climate history, understanding planetary evolution, and potential for future human colonization.
Venus: Our closest planetary neighbor. While its surface is extremely hot and inhospitable, its upper atmosphere has more Earth-like conditions and is a subject of astrobiological interest.
- Distance: Closest approach around 26 million miles (41.8 million km).
- Travel Time (estimated): Around 3-4 months.
- Science Potential: Studying the runaway greenhouse effect, atmospheric science, and potentially searching for microbial life in the more temperate upper atmosphere.
Near-Earth Asteroids (NEAs): Numerous asteroids pass relatively close to Earth. They offer opportunities to study the early solar system's composition and could potentially be resources for future space activities.
- Distance: Varies greatly; some come within millions of miles.
- Travel Time: Depends on the specific asteroid and trajectory. Robotic missions have reached asteroids in months to years. Human missions would likely take similar or longer durations.
- Science Potential: Studying primordial materials, understanding asteroid composition and dynamics, and assessing their potential as resources (water, metals).
Lagrange Points: These are points in space where the gravitational forces of two large bodies (like the Earth and the Moon, or the Earth and the Sun) 1 balance each other. They can serve as stable locations for scientific observatories and potential staging points for deeper space missions.
- Distance: The Earth-Moon Lagrange points are about 38,000 to 45,000 miles (61,000 to 72,000 km) from the Moon. The Earth-Sun L1 point is about 930,000 miles (1.5 million km) from Earth.
- Travel Time: Weeks to months.
- Science Potential: Ideal locations for astronomical observatories (free from Earth's atmosphere and light pollution), studying the Sun-Earth environment, and potentially as waystations for interplanetary travel.
The Moons of Mars (Phobos and Deimos): These small, irregularly shaped moons could be stepping stones for human missions to Mars and offer unique scientific opportunities.
- Distance: Phobos orbits about 3,700 miles (6,000 km) above Mars' surface, and Deimos orbits at about 12,800 miles (20,600 km).
- Travel Time: Would be part of a broader Mars mission, adding potentially weeks to the overall travel time.
- Science Potential: Studying captured asteroids, understanding the Martian environment, and potentially as bases for robotic exploration of Mars.
Europa (Moon of Jupiter): While further away, Europa is a high-priority target for astrobiology due to the strong evidence of a subsurface ocean that could potentially harbor life. Future robotic missions are planned. Human missions are a long-term aspiration.
- Distance: Approximately 390 million miles (628 million km) at Jupiter's closest approach to Earth.
- Travel Time (robotic probes): Several years. Human missions would likely take even longer.
- Science Potential: Investigating the subsurface ocean for signs of life, studying its composition and habitability, and understanding icy moon geology.
Enceladus (Moon of Saturn): Similar to Europa, Enceladus has a subsurface ocean and plumes of water ice and organic molecules erupting into space, making it another compelling target for astrobiology.
- Distance: Approximately 746 million miles (1.2 billion km) at Saturn's closest approach to Earth.
- Travel Time (robotic probes): Several years. Human missions would be even longer.
- Science Potential: Analyzing the plume composition for biosignatures, studying the ocean's properties, and understanding the geological activity of icy moons.
Titan (Moon of Saturn): Titan is unique for having a dense atmosphere and liquid methane and ethane lakes and rivers on its surface. It offers a very different environment to study prebiotic chemistry and potentially exotic forms of life.
- Distance: Same as Saturn, approximately 746 million miles (1.2 billion km) at closest approach.
- Travel Time (robotic probes): Several years. Human missions would be longer.
- Science Potential: Studying atmospheric chemistry, liquid hydrocarbon cycles, and searching for unique forms of life in a non-water-based environment.
Ceres (Dwarf Planet in the Asteroid Belt): As the largest object in the asteroid belt, Ceres may have a subsurface ocean and contains water ice and organic molecules, making it an interesting target for studying the potential for habitability in smaller solar system bodies.
- Distance: Varies, but around 250 million miles (400 million km) at its closest to Earth.
- Travel Time (robotic probe): Several years. Human missions would likely be longer.
- Science Potential: Investigating the potential subsurface ocean, studying the composition of a differentiated asteroid, and understanding the distribution of water ice in the early solar system.
It's crucial to remember that while these are the closest locations, the feasibility of human travel and in-depth scientific research varies greatly depending on the destination and our technological advancements. Currently, the Moon and Mars are the primary focus for near-term human space exploration beyond Earth orbit. The other locations are more likely to be visited by robotic probes in the coming decades, with human missions remaining a longer-term goal.
Regarding the "universe," it's important to note that the vast distances to other star systems (interstellar space) make human travel to even the closest stars, like Proxima Centauri (4.24 light-years away), currently impractical with existing technology. A light-year is the distance light travels in one year, which is about 5.88 trillion miles (9.46 trillion kilometers). Reaching even the closest star would take thousands of years with our current propulsion systems. Therefore, the initial focus of human space travel for exploration and science will remain within our solar system.
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