Friday, May 5, 2023

Selective and Simulated Breeding


Here I propose an advanced method of reproduction. I will term the method “Selective and Simulated Breeding” - SSB.


  1. The existence of genetic science allows human beings to know what genes can be selected for an improved reproduction.

  2. The existence of sperm and egg donations allows any single, couple, or more, to pick from a wide range of DNA features for their human child. If one is dissatisfied with their own genetic inheritance, that is if their genes have a tendency to disease and mutation they can then make the choice to buy (or be freely given) genetic information from other human beings.

  3. Implementing genetic code into a simulation permits for the existence of being able to observe the exact child that would occur after the insemination or conception. In other words, it is possible to generate a visual simulation of physical traits of one’s potential child. With this it is then possible to make multiple virtual or digital copied children and then from this sample choose what child one will conceive.

  4. It is possible with genetic engineering for any one’s reproductive cells to be edited. This is a reproductive method leading to what is termed “Designer Babies.” For more on this visit the following site. https://www.scientificamerican.com/article/a-new-era-of-designer-babies-may-be-based-on-overhyped-science/ (there is also plenty on the net about this).


When considering breeding yourself, which is an option, making the decision based on an awareness of alternative methods, allows the breeders to make optimal decisions. One can question when going about reproducing, “Do I want my genes in the gene-pool” or “Do I want a child that will suffer from some disease or genetic mutation that will make them disadvantaged with life?”

On a personal note, I have answered no to both those questions. Such a reasoned out life limitation has led me to create this conceptual alternative & method for reproduction.


I also ask you to plug into the equation your own intelligence, your own physical and mental health, the economic situation you are living in (schooling, resource access, crime rate), and your family support, before coming to a decision on whether or not you want to be a parent. Parent-ship and environment are different from reproducing itself, but all three factors should be put into the decision determination before a decision to reproduce is made.


There is also the possibility of government funding or paying some people to reproduce certain genomes. Therefore, there is a future where there is distinction between making a personal breeding selection or public breeding selection. The influence of a public choice in private breeding is not prevailing at this time (2023). Although, the public or government has before restricted breeding (in China) and does fund child welfare widely around the globe.


Wednesday, May 3, 2023

Machine Life on Other Planets



The following information was obtained through a discussion with an AI.

Q: How could machines populate another planet?

Populating another planet with robots would require a number of steps, including:

1. Designing and building robots that are capable of surviving and operating in the conditions of the target planet. This would involve extensive research and development to ensure that the robots are equipped with the necessary sensors, actuators, and other components to withstand the harsh environment of space and the target planet.

2. Developing a launch system to transport the robots from Earth to the target planet. This would involve designing and building a spacecraft that can carry the robots and all necessary supplies, as well as ensuring that the spacecraft is capable of surviving the journey through space.

3. Landing the robots on the target planet. This would involve navigating the spacecraft through the planet's atmosphere and safely landing the robots on the surface.

4. Establishing a power source for the robots. This could involve using solar panels or some other form of renewable energy to power the robots, as well as finding ways to store energy for times when the planet is not receiving enough sunlight.

5. Building infrastructure for the robots. This could include constructing habitats, communication systems, and other facilities that are necessary for the robots to operate and thrive on the planet.

6. Developing the ability for the robots to reproduce. This could involve designing robots that are capable of self-replication or building additional robots on the target planet using local resources.

7. Ensuring the robots have the ability to adapt to changing conditions on the target planet. This could involve designing the robots with the ability to learn and evolve over time, so that they can adapt to new challenges and environments.

Overall, populating another planet with robots would be a complex and challenging task that would require significant technological advancements and resources.
 
If a robotic species attempts to populate another planet will they use vehicles?

It is likely that a robotic species attempting to populate another planet would use vehicles of some kind to transport themselves and their equipment to the planet's surface. The specific type of vehicle used would depend on a variety of factors, such as the size and weight of the equipment being transported, the distance between the spacecraft and the planet's surface, and the atmospheric and surface conditions of the planet.

For example, if the planet has a thick atmosphere and a relatively low gravity, it may be possible to use a parachute or other aerodynamic device to slow the descent of the spacecraft and land it safely on the surface. Alternatively, if the planet has a rocky or uneven surface, a rover or other type of ground-based vehicle may be necessary to transport equipment and explore the planet's terrain.

Ultimately, the choice of vehicle will depend on a number of factors, including the specific objectives of the mission, the resources available to the robotic species, and the technological capabilities of the spacecraft and associated equipment.

What types of planets could machines populate and survive on?

Robots can potentially survive on a variety of planets, depending on their design and capabilities. However, the suitability of a planet for robots would depend on a number of factors, such as its composition, atmosphere, temperature, radiation levels, and other environmental factors. Here are a few examples of planets that robots might be able to survive on:

1. Mars: Mars is a rocky planet with a thin atmosphere that is rich in carbon dioxide. While the planet has a harsh environment with intense radiation and extreme temperature variations, robots have already been sent to Mars and have operated successfully on the planet's surface.

2. Venus: Venus is a planet with a thick, toxic atmosphere that is extremely hot and inhospitable to human life. However, robots could potentially survive on the planet's surface if they are designed to withstand the high temperatures and corrosive atmosphere.

3. Titan: Titan is a moon of Saturn that has a thick atmosphere and is rich in organic compounds. While the temperature on Titan is extremely cold, robots could potentially survive on the moon's surface if they are designed to withstand the harsh environment.

4. Europa: Europa is a moon of Jupiter that is covered in a thick layer of ice. While the surface is extremely cold and the environment is harsh, robots could potentially survive on Europa if they are designed to drill through the ice and explore the ocean beneath the surface.

Overall, the ability of robots to survive on a planet would depend on their design and capabilities, as well as the specific conditions of the planet in question.
 
_Note
The final decision to populate the solar system with robotic life has risks. We measure the risk of an outcome based on the likelihood of survival of ourselves. I foresee little risk involved after the plan has been designed and the final decision is made. However, later evaluations might be made to include possible outcomes wherein risks (threats to Earth-life existence) might be included before the final decision is given the go ahead. This article was not created with the intention to elaborate on concepts such as 'terminator scenarios' and "robotic militarized factions." #machinelife #machineplanet #robotsonmars #robotlife #superai