Looking for Translation Aids? Start here
🧠ReeOS🧭 is a personal operating manual built by reverse-engineering what actually works for one AuDHD, mobility-aid-using, chronic-pain-managing systems thinker — not what is supposed to work.
It covers six practical subsystems: AI as a cognitive exosuit, daily calibration, music regulation, food infrastructure, environmental memory, and mobility switching.
The goal is not to copy these systems exactly. The goal is to understand the design logic well enough to build your own version.
It is a reverse-engineered map of the strategies, routines, tools, and environmental adaptations that help me function as an AuDHD, physically disabled adult with alexithymia, chronic pain, and an L4/L5 spinal injury.
This is not a wellness programme. It is not a productivity method. It is not an inspirational story about overcoming adversity.
It is practical adaptive engineering, built from lived experience, pattern recognition, and repeated failure.
Conventional systems — productivity advice, medical frameworks, workplace structures, daily routines — are built on a central assumption: that memory, motivation, and executive function are internal resources you can summon on demand.
That assumption breaks down when your nervous system is dysregulated, your interoception is delayed, your pain levels are unpredictable, or your executive function is offline. Trying harder does not fix a systems design problem.
🧠ReeOS🧭 treats daily life as a distributed engineering problem instead. The goal is not to become better at pushing through friction.
The goal is to build systems that reduce the friction before you hit it, and environments that carry more of the cognitive load so your brain does not have to.
The problem: Waking up feeling motivated is not a reliable measure of actual cognitive capacity. Attempting complex tasks on a low-capacity day leads directly to failure, frustration, and burnout. There is no reliable internal signal to tell you which kind of day it is.
The system: A short, objective external task — specifically a few minutes of the game Mini Metro — used each morning as a cognitive performance baseline. The result feeds into a traffic-light protocol that determines which category of tasks to attempt that day.
Why it works: It bypasses unreliable interoception entirely. You are not trying to assess how you feel. You are measuring what your brain is actually doing right now, using a task you have played enough times to have a real baseline.
The problem: Preparing a meal is a multi-step executive function task involving planning, inventory management, sensory processing, physical effort, and immediate cleanup. On low-energy or high-pain days, this barrier leads to skipping meals, energy crashes, and a cycle that makes everything harder.
The system: On high-energy days, cook single components in bulk and freeze them separately. On low-energy days, open the freezer, select one carb, one protein, one fat, and assemble. No planning required. No decisions about what to cook. The work was done by a previous version of you who had the capacity to do it.
Why it works: It rejects standard meal prep (which requires eating the same pre-assembled meal repeatedly, triggering sensory aversion and ADHD rebellion) in favour of maximum flexibility with minimum activation energy. The step count drops from twenty to two.
The problem: Standard digital reminders fail because they require you to hold the task in mind, locate the necessary tools, and overcome task initiation inertia — all at the same moment. If something is out of sight, it is out of system.
The system: Objects are placed in natural visual pathways so the environment prompts the action. Tools are left out, not put away. Open-loop zones allow in-progress projects to remain visible without overwhelming the whole space. The location of an object is part of its function.
Why it works: It offloads prospective memory from the brain to the environment. The environment does the remembering. You just have to be in the room.
Examples:
The "Tool Out" System
The Coffee Anchor
Open Loop Parking
Friction Reduction Systems
Adaption Mechanic:
Placing the physical
tool required for a
future task in a highly
visible, obstructive
path (e.g., a mop
bucket in the middle
of the hallway).
Target Friction Point:
Prospective memory
failure, task initiation
barriers.
Transferable Principle:
Increase Visibility:
Transform an abstract
reminder into a
physical, unavoidable
obstacle.
Adaptation Mechanic:
Grouping critical
morning items
(medication,
notebooks) directly
adjacent to the coffee
station or sipping spot.
Target Friction Point:
Morning routine
disruption, forgetting
essential health steps.
Transferable Principle:
Use Environmental
Cues:
Anchor a lowmomentum
task to an
established, highdopamine
ritual.
Adaptation Mechanic:
Deliberately leaving
physical evidence of
an unfinished task
visible (e.g., a
measuring tape left on
an active project shelf)
rather than tidying it
away.
Target Friction Point:
Cognitive re-entry
cost, forgetting where
a task was paused.
Transferable Principle:
Externalize Memory:
Use the physical
layout of the room to
preserve the state of
an active project.
Adaptation Mechanic:
Storing all tools
required for an activity
directly at the site of
execution (e.g.,
glasses case and tissues by reading chair, bin
liners at the bottom of
the bin).
Target Friction Point:
Multi-step navigation
fatigue, task
abandonment during
tool retrieval.
Transferable Principle:
Lower Activation
Energy: Minimize the
physical distance and
steps between
intention and action.
The problem: AuDHD brains process information in complex, non-linear networks. Institutions, forms, legal processes, and medical systems demand linear, structured, concise outputs. The mismatch creates translation loss, working memory overload, decision paralysis, and extreme administrative fatigue.
The system: A structured AI translation layer — currently built around Manus AI — that converts non-linear, relational input into clear language for institutions, legal processes, practical planning, and everyday communication. It retains context across sessions, narrows decisions, and handles the cognitive overhead of administrative translation so I do not have to.
Why it works: It does not replace thinking. It handles the translation layer between how I think and what the system needs to receive. That is a specific, bounded job — and it is one a well-configured AI can do reliably.
The problem: During high distress, trauma triggers, or sensory overload, the capacity to translate internal states into verbal, emotion-based language drops to zero. When medical or support staff ask "how do you feel?", the question cannot be answered — not because nothing is happening, but because the translation pipeline is offline.
The system: A factual, body-first status scale and pre-written communication scripts that replace emotion labels with observable physical signals and functioning changes. Prepared when regulated. Deployed when not.
Why it works: It separates the planning phase (writing the script when the system is online) from the execution phase (using it when the system is offline). The work is done in advance. In crisis, you are not writing — you are handing someone a card.
🧠ReeOS🧭 is the practical layer. If you want to understand why these systems work — the underlying framework about how capability is distributed across body, tools, environment, community, and time — that is in 🏗️Distributed Capability Architecture (DCA).
The two projects are connected. You do not need to read 🏗️DCA to use 🧠ReeOS🧭. But if you are building your own systems, 🏗️DCA gives you the design principles underneath them.
🧠ReeOS🧭 is a living document. It is updated as systems are tested, refined, or replaced.
The Calibration Project explores how I use Mini Metro, a popular Android game, each morning to assess cognitive and nervous-system capacity. Instead of forcing the day into a calendar-first model, the system helps select tasks based on actual capacity.
The Music Regulation Project explores my use of music, playlists, rhythm, novelty, memory, and emotional patterning to interrupt rumination, shift state, support focus, and reconnect with the body.
The Food Infrastructure Project maps the practical systems I use to reduce the friction of eating, cooking, storing food, and staying fuelled when executive function, pain, heat, fatigue, or mobility barriers are high.
The Environmental Design Project explores how I adapt rooms, kitchen workflows, garden systems, storage, visibility, mobility routes, and tools so the environment carries more load and the body carries less.
The Granny Project is the developing AI-supported translation layer within 🧠ReeOS🧭.
A nod to the late-Great Sir Terry Pratchett's Granny Weatherwax (Vector Keel V3) is designed to convert my non-linear, relational, systems-based communication into clear language for institutions, legal processes, practical planning, and everyday relationships.