👨‍💻 Nick Loadholtes’ Post

If you go to the web and search, "Why did Apollo succeed?" you'll find a giant report written by the people at NASA Houston after Apollo was over. The introduction was written by one of the greatest engineers at NASA. It is stunning. You don't have to be an engineer to see the brilliance of what they did. Some lessons -- 1 / Attention to Detail. Meticulous attention to detail in spacecraft development, mission operations, and flight crew activities. Every element of the mission was scrutinized to ensure reliability and success. 2 / Simplicity in Design. Design principles of the Apollo spacecraft emphasized simplicity. Established technology, stressing hardware reliability, minimizing in-flight maintenance, simplifying operations, and making maximum use of experience gained from previous spaceflight programs. 3 / Comprehensive Testing. Rigorous testing, testing, testing. The program included thorough testing of all components and systems, both individually and as *integrated units*. System engineering is critical!!! 4 / Strict Configuration Control. Changes to mission plans, hardware, and software were carefully managed and controlled to ensure consistency and reliability across all missions. 5 / Extensive Training and Simulation. High-performance airplane flights, dynamic launch simulators, mission simulators, and partial-gravity simulations.

If you go to the web and search, "Why did Apollo succeed?" you'll find a giant report written by the people at NASA Houston after Apollo was over. The introduction was written by one of the greatest engineers at NASA. It is stunning. You don't have to be an engineer to see the brilliance of what they did. Some lessons -- 1 / Attention to Detail. Meticulous attention to detail in spacecraft development, mission operations, and flight crew activities. Every element of the mission was scrutinized to ensure reliability and success. 2 / Simplicity in Design. Design principles of the Apollo spacecraft emphasized simplicity. Established technology, stressing hardware reliability, minimizing in-flight maintenance, simplifying operations, and making maximum use of experience gained from previous spaceflight programs. 3 / Comprehensive Testing. Rigorous testing, testing, testing. The program included thorough testing of all components and systems, both individually and as *integrated units*. System engineering is critical!!! 4 / Strict Configuration Control. Changes to mission plans, hardware, and software were carefully managed and controlled to ensure consistency and reliability across all missions. 5 / Extensive Training and Simulation. High-performance airplane flights, dynamic launch simulators, mission simulators, and partial-gravity simulations.

If you go to the web and search, "Why did Apollo succeed?" you'll find a giant report written by the people at NASA Houston after Apollo was over. The introduction was written by one of the greatest engineers at NASA. It is stunning. You don't have to be an engineer to see the brilliance of what they did. Some lessons -- 1 / Attention to Detail. Meticulous attention to detail in spacecraft development, mission operations, and flight crew activities. Every element of the mission was scrutinized to ensure reliability and success. 2 / Simplicity in Design. Design principles of the Apollo spacecraft emphasized simplicity. Established technology, stressing hardware reliability, minimizing in-flight maintenance, simplifying operations, and making maximum use of experience gained from previous spaceflight programs. 3 / Comprehensive Testing. Rigorous testing, testing, testing. The program included thorough testing of all components and systems, both individually and as *integrated units*. System engineering is critical!!! 4 / Strict Configuration Control. Changes to mission plans, hardware, and software were carefully managed and controlled to ensure consistency and reliability across all missions. 5 / Extensive Training and Simulation. High-performance airplane flights, dynamic launch simulators, mission simulators, and partial-gravity simulations.

If you go to the web and search, "Why did Apollo succeed?" you'll find a giant report written by the people at NASA Houston after Apollo was over. The introduction was written by one of the greatest engineers at NASA. It is stunning. You don't have to be an engineer to see the brilliance of what they did. Some lessons -- 1 / Attention to Detail. Meticulous attention to detail in spacecraft development, mission operations, and flight crew activities. Every element of the mission was scrutinized to ensure reliability and success. 2 / Simplicity in Design. Design principles of the Apollo spacecraft emphasized simplicity. Established technology, stressing hardware reliability, minimizing in-flight maintenance, simplifying operations, and making maximum use of experience gained from previous spaceflight programs. 3 / Comprehensive Testing. Rigorous testing, testing, testing. The program included thorough testing of all components and systems, both individually and as *integrated units*. System engineering is critical!!! 4 / Strict Configuration Control. Changes to mission plans, hardware, and software were carefully managed and controlled to ensure consistency and reliability across all missions. 5 / Extensive Training and Simulation. High-performance airplane flights, dynamic launch simulators, mission simulators, and partial-gravity simulations.

If you go to the web and search, "Why did Apollo succeed?" you'll find a giant report written by the people at NASA Houston after Apollo was over. The introduction was written by one of the greatest engineers at NASA. It is stunning. You don't have to be an engineer to see the brilliance of what they did. Some lessons -- 1 / Attention to Detail. Meticulous attention to detail in spacecraft development, mission operations, and flight crew activities. Every element of the mission was scrutinized to ensure reliability and success. 2 / Simplicity in Design. Design principles of the Apollo spacecraft emphasized simplicity. Established technology, stressing hardware reliability, minimizing in-flight maintenance, simplifying operations, and making maximum use of experience gained from previous spaceflight programs. 3 / Comprehensive Testing. Rigorous testing, testing, testing. The program included thorough testing of all components and systems, both individually and as *integrated units*. System engineering is critical!!! 4 / Strict Configuration Control. Changes to mission plans, hardware, and software were carefully managed and controlled to ensure consistency and reliability across all missions. 5 / Extensive Training and Simulation. High-performance airplane flights, dynamic launch simulators, mission simulators, and partial-gravity simulations.

If you go to the web and search, "Why did Apollo succeed?" you'll find a giant report written by the people at NASA Houston after Apollo was over. The introduction was written by one of the greatest engineers at NASA. It is stunning. You don't have to be an engineer to see the brilliance of what they did. Some lessons -- 1 / Attention to Detail. Meticulous attention to detail in spacecraft development, mission operations, and flight crew activities. Every element of the mission was scrutinized to ensure reliability and success. 2 / Simplicity in Design. Design principles of the Apollo spacecraft emphasized simplicity. Established technology, stressing hardware reliability, minimizing in-flight maintenance, simplifying operations, and making maximum use of experience gained from previous spaceflight programs. 3 / Comprehensive Testing. Rigorous testing, testing, testing. The program included thorough testing of all components and systems, both individually and as *integrated units*. System engineering is critical!!! 4 / Strict Configuration Control. Changes to mission plans, hardware, and software were carefully managed and controlled to ensure consistency and reliability across all missions. 5 / Extensive Training and Simulation. High-performance airplane flights, dynamic launch simulators, mission simulators, and partial-gravity simulations.

If you go to the web and search, "Why did Apollo succeed?" you'll find a giant report written by the people at NASA Houston after Apollo was over. The introduction was written by one of the greatest engineers at NASA. It is stunning. You don't have to be an engineer to see the brilliance of what they did. Some lessons -- 1 / Attention to Detail. Meticulous attention to detail in spacecraft development, mission operations, and flight crew activities. Every element of the mission was scrutinized to ensure reliability and success. 2 / Simplicity in Design. Design principles of the Apollo spacecraft emphasized simplicity. Established technology, stressing hardware reliability, minimizing in-flight maintenance, simplifying operations, and making maximum use of experience gained from previous spaceflight programs. 3 / Comprehensive Testing. Rigorous testing, testing, testing. The program included thorough testing of all components and systems, both individually and as *integrated units*. System engineering is critical!!! 4 / Strict Configuration Control. Changes to mission plans, hardware, and software were carefully managed and controlled to ensure consistency and reliability across all missions. 5 / Extensive Training and Simulation. High-performance airplane flights, dynamic launch simulators, mission simulators, and partial-gravity simulations.