Code: Terraform Wiki
Write Python-like scripts to control rovers, automate mining and power grids, build drone fleets, process resources, and terraform a frozen alien planet.
Code: Terraform Guides
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code terraform create library: Script Setup Guide
Learn how to create a reusable code library in Code: Terraform for Rover, Drone, energy, mining, and automation scripts.
code terraform trailer: Step-by-Step Viewing Guide
Use this code terraform trailer guide to identify official footage, evaluate core systems, and track reliable updates without confusing speculation with facts.
code terraform demo solutions: Step-by-Step Rover Setup
Learn practical code terraform demo solutions for Rover automation, solar power, Drone logistics, mining, and early terraforming progress.
code terraform first level walkthrough: Early Base Route
Follow a practical Code: Terraform first-level walkthrough covering Rover scanning, power, Drone logistics, scripting, and early automation priorities.
code terraform full release: Early Access Setup Guide
Track the Code: Terraform full release status, Early Access features, system requirements, pricing, and a practical first-session setup guide.
code terraform: Current Status & Official Access Channels
Check the 2026 status of code terraform codes, avoid fake code lists, and find reliable official access channels.
code terraform crafting: Step-by-Step Factory Setup
Learn how crafting works in Code: Terraform, from Rover mining and power planning to Drone logistics and automated manufacturing chains.
code terraform bio collector: Step-by-Step Lab Setup
Learn how to organize fragment IDs, coordinates, cargo data, and journal records for a reliable bio collector workflow in Code: Terraform.
code terraform guide: Starter Setup & Automation Tips
A practical Code: Terraform guide covering Rover scripts, power, logistics, production chains, and reliable terraforming habits.
code terraform first level send temperature to earth: Step-by-Step Guide
Learn how to read the live thermometer, connect the transmitter to earth, and send current_temperature during the first Code: Terraform objective.
code terraform terraforming: Setup Guide and Tips
Learn how to automate machines, manage power, write scripts, and expand your terraforming systems in Code: Terraform.
code terraform demo: Setup Guide for First Systems
Learn how to access the Code: Terraform demo, prepare your first base, write beginner scripts, and plan early automation systems.
The safest early progression is to solve infrastructure problems in dependency order. Establish power first, learn how machines are controlled, secure a steady supply of raw materials, and only then expand into larger automated networks.
Restore Essential Systems
CriticalBring the basic colony infrastructure back into a usable state before attempting large projects. Inspect nearby equipment to see what still works, restore the minimum infrastructure needed to operate powered devices, and learn where machine status, configuration, and control information is displayed.
Establish Reliable Power
CriticalCreate enough dependable energy generation to keep important machines running. Bring power generation equipment online, watch production and consumption while activating additional machines, prioritize essential systems before optional equipment, and expand capacity before building a larger automated network.
Understand how programmable devices respond to scripts and commands. Start with one machine instead of connecting several systems at once, use the console and built-in documentation to inspect how it is controlled, and write small scripts that each perform one clear task.
Create a repeatable supply of raw materials for construction and fabrication. Prepare suitable mobile equipment, locate useful resource deposits, use drilling and cargo capabilities to collect materials, and return them to the colony instead of letting mobile storage become a bottleneck.
Turn collected resources into useful components without excessive manual interaction. Connect resource input to the machines that process or fabricate it, confirm every machine in the chain has power and materials, and test the process manually once before automating it.
Automate one complete repeatable task from input to output. Break the process into simple conditions and actions, use a script to monitor the system and trigger each action, and test normal operation plus empty-resource, full-storage, and power-loss situations.
Expand Without Creating Bottlenecks
MediumScale the colony while keeping power, transport, storage, and production balanced. Add capacity only when the existing loop is stable, check whether mining, transport, processing, storage, or power is limiting throughput, and reuse proven scripts instead of rebuilding the same logic.
Keep automation predictable and easier to repair. Test one change at a time, use clear functions for repeated behavior, never assume a machine is powered, connected, or ready before issuing actions, and use console output and debugging tools to locate where a script stops behaving as expected.
Quick Tips
- Avoid trying to automate everything immediately. First make sure you understand what each machine needs in order to operate.
- Automation cannot compensate for an undersized power network. Stabilize energy production before expanding.
- Small scripts are easier to debug than one large program controlling several unrelated machines.
- A mining system is only useful when collected resources can also be transported back and processed.
- Build a working manual process first. Automating a broken production chain only makes failures harder to diagnose.
- The best first automation is a small system that saves frequent manual work, not the most complicated system available.
- When production slows down, find the bottleneck before adding more machines.
- Most early problems are easier to solve when the script is divided into small pieces with clearly defined jobs.
Programming is the foundation of advanced automation in Code: Terraform. Start with simple variables and machine commands, then move toward functions, reusable scripts, device-aware logic, and concurrent systems as your colony becomes more complex.
Scripts
BeginnerScripts define the instructions that programmable machines and systems follow.
- Starting and stopping machines
- Responding to changing system conditions
- Repeating routine production tasks
- Coordinating automated equipment
Variables
BeginnerVariables let scripts store values that can be checked, changed, and reused while automation is running.
- Tracking operating states
- Remembering resource or cargo conditions
- Storing thresholds
- Controlling repeated behavior
Conditions
BeginnerConditional logic lets machines react differently depending on the current state of the colony or device.
- Run equipment only when resources are available
- Stop operations when storage is full
- Trigger charging when energy is low
- Change behavior when a task has been completed
Functions
IntermediateFunctions group repeated logic into reusable blocks instead of duplicating the same instructions throughout a script.
- Reusable machine startup routines
- Navigation routines
- Resource handling
- Repeated status checks
Device APIs
IntermediateProgrammable equipment exposes device-specific controls that scripts can use to read information and perform actions.
- Reading machine state
- Controlling equipment
- Operating mobile units
- Connecting devices into one automated process
Console
BeginnerThe console is the key tool for running commands, observing output, and diagnosing unexpected script behavior.
- Testing small pieces of logic
- Checking values during execution
- Finding failed assumptions
- Confirming whether a section of code is running
Autocomplete and Documentation
BeginnerAutocomplete and built-in documentation reduce the need to memorize every programmable interface.
- Discovering available controls
- Checking expected parameters
- Finding related device functionality
- Reducing typing and naming errors
Debugging
IntermediateDebugging is the process of finding which assumption, condition, value, or device interaction is causing automation to behave incorrectly.
- Confirm the script is running
- Check current variable values
- Verify the target device is powered and available
- Reduce the script to the smallest failing section
Effective automation replaces repetitive manual actions with small systems that can monitor their own state and react accordingly. Build each process independently, add safeguards for common failure states, and reuse stable logic as the colony grows.
Automated Mining
Keep resource collection running with less direct control.
- 1Assign a mining-capable unit to the resource task
- 2Navigate to the target area and begin drilling or collection
- 3Monitor available cargo capacity
- 4Stop at the configured limit and return for unloading
- Check power or fuel before departure
- Do not begin another cycle when cargo is full
- Include a recovery plan for interrupted trips
Pairs well with: Automated transport and resource processing
Resource Transport
Move mined or produced materials between remote operations, storage, and processing systems.
- 1Check whether material is ready for pickup
- 2Send a cargo-capable unit to the source and load available resources
- 3Travel to the destination and unload cargo
- 4Repeat when another shipment becomes available
- Check destination capacity before unloading
- Avoid dispatching empty transport units unnecessarily
- Include charging or refueling in long-distance routes
Pairs well with: Mining outposts and production chains
Solar Tracking
Improve automated power generation by adapting solar equipment to changing conditions.
- 1Read the information needed to determine useful panel positioning
- 2Adjust solar equipment toward a productive orientation
- 3Repeat the check as conditions change
- 4Keep power-dependent automation aware of available energy
- Limit unnecessary movement when the current position is already effective
- Prevent power-management logic from rapidly switching equipment between states
Pairs well with: Large automated power networks
Fabrication Queue
Reduce manual interaction when producing frequently required components.
- 1Check whether the required input materials are available
- 2Start the required fabrication task and track whether it is active
- 3Move or store completed output
- 4Continue with the next requested item
- Do not start production without sufficient inputs
- Check output storage before creating additional items
- Separate production requests from machine-control logic when possible
Pairs well with: Centralized manufacturing
Storage Management
Keep production moving by preventing inputs or finished materials from blocking machines.
- 1Monitor incoming materials
- 2Move resources toward appropriate storage or processing
- 3Detect when a destination is approaching capacity
- 4Redirect or pause upstream production when necessary
- Avoid continuously moving the same resources between locations
- Use clear rules for where each material should go
Pairs well with: Factories and logistics hubs
Charging and Refueling
Keep mobile units available without waiting for manual recovery.
- 1Monitor the unit's remaining operating capacity
- 2Pause the current task when it reaches a safe return threshold
- 3Navigate to the required charging or refueling location
- 4Resume work after sufficient capacity is restored
- Return before capacity becomes critically low
- Reserve enough energy or fuel for the trip back
Pairs well with: Rovers, drones, and long-distance logistics
Concurrent Automation
Let several independent colony systems operate without forcing one script to complete every task sequentially.
- 1Separate unrelated jobs into independent scripts or routines
- 2Keep mining, transport, production, and power responsibilities divided
- 3Allow each system to react to its own conditions
- 4Exchange only the information needed to coordinate shared resources
- Avoid having several scripts issue conflicting instructions to the same device
- Define clear ownership of machines and shared resources
Pairs well with: Large colonies with many automated subsystems
Reusable Library Scripts
Reduce duplicated programming work by keeping common behaviors reusable.
- 1Identify code repeated across several machines or projects
- 2Move repeated behavior into reusable functions or library scripts
- 3Keep device-specific configuration separate from generic behavior
- 4Reuse tested logic when adding new automated systems
- Keep reusable functions focused on one responsibility
- Test library changes before deploying them across several systems
Pairs well with: Colony-wide automation
Mobile units become increasingly important as useful resources and construction projects spread beyond the starting area. Choose modules around a clear job, account for cargo and operating range, and automate charging, refueling, navigation, and recovery wherever possible.
Pioneers
Best for
- Remote operations
- Exploration
- Supporting automated field tasks
Setup focus
- Choose equipment based on the intended mission
- Keep operating range in mind before sending the unit far from support
- Use programmable behavior to reduce repeated manual control
Rovers
Best for
- Surface exploration
- Resource hauling
- Mining support
- Long-distance logistics
Setup focus
- Match cargo capacity to the expected workload
- Plan routes between resource sites and the colony
- Account for charging or refueling before long trips
Drones
Best for
- Automated remote tasks
- Logistics
- Construction support
- Operations where flexible movement is valuable
Setup focus
- Give each drone a clearly defined task
- Avoid assigning conflicting control logic
- Include return, charging, or recovery behavior in autonomous routines
Cargo Modules
Best for
- Transporting mined materials
- Supplying construction projects
- Moving production inputs and outputs
Setup focus
- Use enough capacity for the route without overcomplicating the vehicle
- Automate unloading when running repeated logistics routes
- Check destination storage before dispatching another shipment
Drilling Modules
Best for
- Resource extraction
- Automated mining
- Remote collection operations
Setup focus
- Pair drilling capability with suitable cargo capacity
- Include logic for stopping when storage is full
- Plan how collected resources return to processing infrastructure
Construction Modules
Best for
- Remote construction
- Infrastructure expansion
- Building away from the main colony
Setup focus
- Ensure required construction resources are available before deployment
- Use cargo support when a project requires repeated material deliveries
- Coordinate construction tasks with power and logistics expansion
Navigation
Best for
- Exploration routes
- Mining runs
- Cargo delivery
- Returning vehicles to service areas
Setup focus
- Use predictable routes for repeatable automation
- Separate navigation decisions from task-specific actions where practical
- Include a return route instead of treating arrival as the end of the task
Charging and Refueling
Best for
- Maintaining vehicle uptime
- Long-distance missions
- Continuous automated operations
Setup focus
- Track remaining operating capacity during missions
- Set a safe point for returning to recharge or refuel
- Avoid starting a new remote task without enough capacity to complete the route
Vehicle Recovery
Best for
- Interrupted missions
- Stranded mobile units
- Automation failures
Setup focus
- Design autonomous missions with a clear fallback state
- Keep enough operating capacity for a safe return
- Check navigation, power, fuel, cargo, and script state before redeploying
Code: Terraform progression depends on turning gathered resources into increasingly complex manufactured parts. Early production focuses on refined materials such as ingots, while later chains require fabricated components and specialized assemblies for machines, infrastructure, upgrades, and engineering contracts.
| Component | Category | Stage | Role | Production Focus |
|---|---|---|---|---|
| Ingots | Refined Material | Early | Core processed material used as a foundation for manufactured parts and machine construction. | Establish dependable raw-resource processing before expanding into more complex fabrication. |
| Machine Frames | Fabricated Component | Early to Mid | Structural components used when constructing and expanding machinery. | Keep frame production available when adding new production capacity. |
| Circuit Panels | Fabricated Component | Mid | Technical components required by more advanced engineered equipment and automated systems. | Build a steady component supply instead of producing panels only when a contract requires them. |
| Turbine Rotors | Mechanical Component | Mid to Late | Engineered rotating components associated with advanced machine and infrastructure production. | Prepare supporting material production before committing capacity to rotor manufacturing. |
| Cargo Pods | Assembly | Mid to Late | Manufactured assemblies used as higher-tier production and engineering objectives. | Treat cargo pods as multi-stage products that depend on reliable upstream fabrication. |
| Thruster Assemblies | Assembly | Late | Advanced engineered assemblies produced after basic refining and component manufacturing are established. | Reserve production capacity for their supporting components before starting large batches. |
| Battery Packs | Assembly | Mid to Late | Manufactured energy-storage components used in advanced engineering and progression requirements. | Maintain continuous component production so battery-pack orders do not interrupt other manufacturing. |
| Advanced Manufacturing | Production Chain | Late | Combines refined materials, fabricated components, and specialized assemblies into late-stage engineering output. | Separate high-volume basic production from specialized assembly lines to reduce bottlenecks. |
Production cannot scale without dependable infrastructure. A stable base separates electrical loads into manageable subnets, keeps fluid routes organized, and prevents power shortages or pipe backpressure from interrupting advanced machinery.
Establish Solar Power
Use solar generation as an early source of electricity for basic machines and infrastructure.
Connect essential production systems first and avoid expanding machine count faster than available generation.
Organize Electrical Subnets
Divide the electrical network into practical subnets instead of placing every machine on one uncontrolled network.
Keep critical systems separated from optional or high-demand production equipment.
Create Water Lines
Route water through dedicated pipes to machines and infrastructure that require a continuous fluid supply.
Keep pipe layouts short and readable so supply problems are easier to diagnose.
Build Oil Infrastructure
Add oil transport to the production network when later manufacturing chains require additional fluid resources.
Avoid mixing unrelated production routes when separate pipe networks make the system easier to control.
Integrate Geothermal Steam
Use geothermal steam as part of more advanced fluid and energy infrastructure as progression expands.
Plan geothermal connections before placing dependent late-stage machinery.
Control Pipe Backpressure
Watch for backpressure when multiple machines share fluid infrastructure and demand approaches the capacity of the network.
Reduce unnecessary pipe complexity and separate heavily used branches when flow becomes unreliable.
Balance Continuous Loads
Machines that operate continuously require both stable electrical supply and uninterrupted fluid delivery.
Check power and fluid availability together when a machine repeatedly stops.
Prepare for Advanced Expansion
Extend power and fluid networks before adding large groups of Mark II and Mark III machines.
Build infrastructure capacity ahead of production demand so upgrades do not destabilize existing automation.
Terraforming is tied to the growth of the player's industrial base. Machine tiers, upgrade packs, new technology, improved infrastructure, and atmosphere-related objectives gradually move the operation from basic survival engineering toward large-scale planetary development.
Mark I Machines
Basic production and infrastructure
Mark I machinery forms the starting industrial layer used to restore essential systems, process resources, and establish the first dependable production chains.
Prioritize machines that unlock reliable resource processing and support further construction.
Mark II Machines
Expanded processing and automation
Mark II progression increases industrial capability and supports more demanding manufacturing, contracts, and terraforming requirements.
Upgrade production areas that are limiting component output or blocking advanced engineering tasks.
Mark III Machines
Advanced infrastructure and production
Mark III equipment represents the advanced stage of industrial development and supports complex production chains required for later terraforming goals.
Strengthen power, fluid, and upstream component production before deploying large numbers of advanced machines.
Upgrade Packs
Machine improvement
Upgrade packs are part of the technology progression that improves the capabilities of the player's industrial systems.
Apply upgrades where they remove the largest production or infrastructure bottleneck.
Technology Progression
Unlocking advanced systems
Technology progression opens access to increasingly sophisticated machines, recipes, infrastructure, and engineering capabilities.
Favor technologies that unlock useful production chains or directly support current objectives.
Atmosphere Goals
Planetary transformation
Atmosphere-related goals connect industrial expansion with the larger objective of changing planetary conditions.
Treat atmosphere objectives as long-term projects supported by stable automated production.
Advanced Infrastructure
Power and fluid capacity
Higher machine tiers require stronger electrical networks, dependable fluid systems, and enough supporting production to remain operational.
Expand infrastructure before machine demand reaches the limits of existing networks.
Terraforming Production
Large-scale engineering
Late progression combines advanced machines, manufactured components, infrastructure, and technology upgrades into sustained terraforming operations.
Automate recurring requirements so major terraforming projects run without constant manual production.
Contracts provide structured objectives that push the industrial base toward new capabilities. Completing engineering requests encourages players to expand production chains, process data, deliver manufactured goods, unlock recipes, obtain technology upgrades, and investigate increasingly unusual signals and transmissions.