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Cyberdyne Systems — Classified Technical Document

T‑800 Endoskeleton Disassembly Manual

Model 101  //  Series 800  //  Field Service Revision 4.2

Model
Cyberdyne Systems Model 101
Designation
Infiltration / Combat Cyborg
Status
⚠ Assume Hostile & Active
Clearance Required
Level 6 — Special Projects
T-800 disassembly diagram thumbnail
Click Here For Detailed Diagram Series 800 Endoskeleton — Exploded Parts View & Component Index
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⚠️

Critical Warnings

🛑

DO NOT proceed unless the unit has been confirmed inert by two independent technicians. A T‑800 does not feign shutdown — but it does reboot.

☢️

Iridium power cell. Puncture, crush, or thermal shock will produce a yield measured in miles, not meters. Extract on a straight axis only.

Improper disassembly may result in:

  • Reanimation on backup capacitor charge (up to 4 seconds of full servo authority)
  • Crush injury — hyperalloy manipulators retain grip pressure with zero power
  • Uncontrolled cell breach
  • Recovery of intact CPU hardware by unauthorized parties (see Section: Disposal)
🧰

Required Tools

  • Hex & torx driver set (hardened, metric)
  • Torque wrench — rated 240 Nm minimum
  • Magnetic fastener tray (labeled by step)
  • Insulated cable tools — Class 4
  • Capacitor bleed resistor & shorting bar
  • Hydraulic chassis stand (500 kg rated)
  • Cyberdyne diagnostic interface terminal
  • Full-face shield & arc-rated gloves
Note: Consumer-grade tooling will strip on hyperalloy fasteners. Do not improvise.
🔩

Fastener Legend

HEX BOLTM8
SOCKET HEADM6
TORX SCREWT20
SHOULDER BOLTM10
LOCK NUTM8
WASHER—
Tip: Bag and tag fasteners by step number. The endoskeleton uses eleven distinct thread pitches that look identical to the naked eye.
🔌

Data Line Connections

Disconnect strictly in the order shown. Out-of-sequence disconnection can latch the motor controllers into a live state.

01RED — POWER BUS
02BLACK — GROUND
03BLUE — DATA BUS
04YELLOW — VIDEO OUT
STEP 01 🔋

Power Down

  1. Confirm the unit is inert: no servo whine, no optical illumination. Red optical glow means live power.
  2. Open the lower abdominal bay and release both power cell retaining collars.
  3. Withdraw the iridium power cell along a straight axis — do not tilt, torque, or drop.
  4. Locate the backup capacitor at the rear lumbar mount and disconnect it.
  5. Short the capacitor terminals across a rated bleed resistor. Wait 120 seconds.
⛔

Residual charge in the backup bank is sufficient to reanimate the endoskeleton. Do not place hands inside the chassis before the bleed cycle completes.

STEP 02 💀

Head Access & Sensor Modules

  1. Remove 6 torx screws along the cranial seam.
  2. Lift the cranial plate straight up — the sensor array ribbon remains attached underneath.
  3. Disconnect in stack order:
    • Sensor array ribbon
    • CPU / control module interface
    • Interface board harness
  4. Detach both optical assemblies and label them: L-OPT R-OPT
  5. Disconnect the micro-servos controlling optical tracking and iris aperture.
👁️

The sensor array carries its own trickle cell. If the optics still glow after power-down, the unit is still recording.

STEP 03 🦾

Arm Systems (Left & Right)

  1. Support each arm on a stand before releasing any fastener — an unsupported limb weighs 41 kg.
  2. Remove shoulder bolts. High torque required; expect thread lock compound.
  3. Disconnect shoulder and elbow actuators, then the arm data trunk.
  4. Separate:
    • Upper arm assembly
    • Lower arm assembly & manipulator
Warning: The manipulators lock closed under mechanical detent, not power. A powered-down hand will still hold whatever it was holding.
STEP 04 🛡️

Torso Access

  1. Remove the chest armor plates — 8 hex bolts, opposing pattern.
  2. Lift plates clear and set aside; edges are unfinished and sharp.
  3. Disconnect core systems in stack order:
    • Targeting scanner
    • Motion processor
    • Central processing core interface
    • Diagnostic / vent modules
  4. Release the upper torso frame from its mounting rails.
STEP 05 🧠

Spine & Central Processing Core

  1. Remove the spinal support struts — upper pair first, then lower.
  2. Release the power cell housing from the spinal column.
  3. Extract the central processing core (neural net processor) using the puller tool. Do not lever it out.
  4. Transfer the core immediately to a static-safe, shielded container.
🔒

The core ships hardware-locked to read-only. Do not flip the write-enable dip switch under any circumstances. A T‑800 permitted to learn does not stay a T‑800 for long.

STEP 06 ⚙️

Pelvis & Hip Systems

  1. Mount the chassis on the hydraulic stand and take the load off the legs.
  2. Disconnect both hip actuators and their hydraulic feed lines.
  3. Remove the pelvis frame retaining bolts and separate the pelvis assembly.
  4. Cap all open hydraulic lines — fluid remains pressurized after shutdown.
STEP 07 🦿

Leg Systems (Left & Right)

  1. Support each leg independently before releasing the hip joint.
  2. Disconnect knee and ankle actuators, then the leg data trunk.
  3. Separate:
    • Upper leg assembly
    • Lower leg assembly & foot
  4. Inspect knee actuators for combat damage before storage.
Tip: A single detached T‑800 leg retains enough stored hydraulic pressure to actuate once. Bleed before racking.
STEP 08 🧩

Final Breakdown

  1. Separate the upper torso frame from the remaining spinal structure.
  2. Extract the full cable harness — photograph all routing before removal.
  3. Remove residual fasteners, brackets, and shielding.
  4. Sort components into:
    • Structural — hyperalloy frame & armor
    • Actuation — servos, hydraulics, actuators
    • Electronic — sensors, controllers, harness
    • Restricted — CPU, memory, targeting scanner
🧾

Post-Disassembly Checklist

  • Every component tagged, serialized, and logged against the parts index
  • CPU and memory modules sealed in shielded, static-safe containment
  • Power cell transferred to certified containment — never store with the chassis
  • Hydraulic lines capped and bled
  • Full photographic record archived for the disassembly file
  • Parts count reconciled against the diagram — zero unaccounted components
🔥

Disposal: A single surviving CPU or arm assembly is enough to reverse-engineer the entire platform. If a component cannot be logged and secured, it must be destroyed — not shelved, not archived, not “studied later.”

🎯

Threat Assessment

Unlike earlier autonomous platforms, the T‑800 offers no ethical ambiguity. It is not self-aware. It does not negotiate, tire, hesitate, or stop. Treat the chassis as active at every stage of the procedure.

Mission-Locked No Self-Preservation Learning Capable — If Unlocked Hostile By Default

Disassembly is authorized only when:

  • The unit has been confirmed permanently disabled
  • The site is secured and the procedure is under two-person control
  • A destruction order exists for all restricted components

If the unit reactivates at any point: abandon the procedure. You will not out-wrestle it, and you will not talk it down.

Reassembly Note

Reassembly is not recommended and not supported. The endoskeleton was designed for battlefield self-repair — given access to its own components and a power source, a T‑800 will reassemble itself faster than a full technical crew can. Store sorted components in separate secured facilities. Never leave a chassis, a core, and a live cell in the same room.

T-800 Endoskeleton Disassembly Diagram