.Sec_Noem: "This individual came with a weapon, and dozens of rounds of ammunition, and attacked THEM."

"Don't let political corrupt leaders who are just trying to cover up their theft of American taxpayer dollars try to distract you from the facts of the situation."

🄳🄾🄾🄼🄿🤖🅂🅃🄸🄽🄶

The Man Who Cheated On 17 Women

🄳🄾🄾🄼🄿🤖🅂🅃🄸🄽🄶

Death threat issued to James O’Keefe: Leave Minneapolis or YOU’RE DEAD

🄳🄾🄾🄼🄿🤖🅂🅃🄸🄽🄶

Reporter: "Are you gonna call one of your dogs Lula?"

Milei: "I would NEVER call my dog ANYTHING left wing! I love my dogs too much to insult them."

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They’ve been brainwashed beyond repair

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Michael Fanone: “Anyone who sides with this administration is my enemy… They need to be destroyed.”

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Regret is something ~100% of people NEVER feel

Timeline full of bullsh&t lying rationalizations like this as to why they’re were actually right to fumble $PENGUIN

And how they’re even more convinced that they’d happily do the exact same thing again

Idiots never feel regret

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19 to 22

MODULE 4
Command, Control, and Autonomy

Modern lunar planning (including Artemis**) prioritizes south-polar rim sites with ~70–90% solar illumination due to grazing Sun angles and terrain.

This changes:
- average power availability
- reliance on solar during nominal operations

It does *not* change:
- Earth–Moon light-time delay
- comm outages and antenna masking
- the requirement for autonomous safety

https://t.me/AzazelNews/954468

1) Central doctrine: Earth supervises; the plant protects itself

The plant must remain safe without continuous human control, including unattended standby periods of 6–12 months before crew arrival.

From this assumption follow non-negotiable rules:

- Local protection is mandatory
- SCRAM and safing decisions are local
- Remote command must be constrained
- Telemetry must support diagnosis after outages

Even at sun-rich polar sites, Earth cannot be in the safety loop.

https://youtu.be/0vZwaMg60FM

2) Telemetry philosophy: *monitor like an industrial plant*
2.1 Scale of observability

- ~1300 monitored parameters during operation
- fewer during standby

2.2 Mode-dependent sampling (state-based telemetry)
There are three modes:

Standby (plant alone for months)
- Slow, low-power reporting
- Enough data to confirm the plant is healthy
- Designed to run unattended for long periods

Startup & Shutdown (most dangerous moments)
- Very fast reporting
- Extra attention to a few critical safety signals
- Designed to catch problems immediately during transitions

Normal Operation
- Moderate reporting
- Full visibility without wasting bandwidth
- No continuous high-speed safety channels

2.3 Single telemetry backbone
- one telemetry system
- variable sampling rates by mode

Engineering benefit:
- fewer components
- fewer failure modes
- higher reliability

https://youtu.be/BpmoJSd2vEI

3) Communications architecture: layered and survivable
3.1 Standby communications (S-band)
During standby:
- S-band command receiver always on
- periodic status transmissions (~every 100 hours)
- omnidirectional antenna

S-band (~2–4 GHz) is used for reliable deep-space command and telemetry.

Meaning: the plant remains reachable even before humans arrive.

3.2 Operational communications
- Plant → Shelter: VHF (Very High Frequency, ~30–300 MHz)
- Shelter → Earth: S-band

The shelter acts as a local operations node, not just a habitat.

3.3 Earth-side role
On Earth:
- telemetry is demultiplexed
- compared against limits
- alarms generated
- data recorded

Earth:
- monitors
- diagnoses
- plans

Earth does not directly drive actuators.
https://www.youtube.com/watch?v=uY5gfV1wAKk

4) Command philosophy: stored sequences only
4.1 Command paths

- Primary: Earth → plant (S-band)
- Backup: Shelter → plant (VHF, limited authority)

Two independent command paths ensure survivability.

4.2 Commands invoke routines
Commands:
- do not move valves or rods directly
- invoke pre-verified stored routines
- ~200 sequences
- ~5 steps per sequence
- local interlocks enforced

This prevents unsafe command combinations.

4.3 Redundancy management

The onboard programmer:
- executes sequences
- switches to redundant hardware automatically
- can also be directed by Earth

Autonomy includes communications survivability, not just reactor safety.

https://www.youtube.com/watch?v=LlmyVpqk7mw

5) Autonomy
- maximize reliability
- include failure-analysis capability where practical
- avoid unnecessary adaptive complexity

Operational result:
- local self-protection
- graceful degradation
- continued communication under partial failure
- post-outage diagnosability

At polar sites, autonomy expands to include energy-aware scheduling, but safety logic remains dominant.

https://www.youtube.com/watch?v=9N1DZwP5jAU