Endfield 1.4 Hetonite Component and Heavy Xiranite Production
This guide walks you through a complete, practical blueprint and operational plan for producing Hetonite and Heavy Xiranite in Arknights Endfield 1.4. It’s written for players who want a dependable, compact Gas Factory layout that minimizes micromanagement while maximizing uptime. You’ll get a clear material flow, exact placement logic, pump and conduit rules, SubPAC configuration advice, scaling strategies, troubleshooting steps, and optimization techniques that work in live play. The goal is a blueprint you can replicate in your base and tune to your production targets without guesswork.
Why focus on Hetonite and Heavy Xiranite
Hetonite and Heavy Xiranite are mid‑to‑high tier crafting materials used in multiple advanced modules and gear upgrades. Producing them in a dedicated Gas Factory gives you supply independence and reduces reliance on event drops or shop rotations. A well‑designed factory keeps converters fed, prevents liquid overflow, and avoids production stalls caused by pump starvation or SubPAC caps. This guide prioritizes steady throughput and reliability over raw peak output so you can run the factory unattended for long stretches.
Core production relationships and conversion logic
Understanding the conversion chain is essential before placing machines. Raw Xircon (or equivalent feedstock) is distilled into Heavy Xiranite through a distillation/conversion stage. Heavy Xiranite is then used as the primary input for Hetonite converters. Some recipes require reagents or acid byproducts; these must be routed to a Fluid Supply Unit or secondary sink to avoid local overflow. Buffer depots between stages smooth production spikes and let you stagger chain activation to prevent caps.
Blueprint design philosophy
Design decisions are driven by three priorities: flow integrity, footprint efficiency, and maintainability. Flow integrity means pumps and manifolds are sized so converters never starve. Footprint efficiency means stacking and edge routing to reduce conduit crossovers. Maintainability means easy access to pumps and depots for quick fixes. The recommended blueprint centers the Cardiac Remediation Station cluster and places distillers and purification modules on opposite sides to keep liquid lines tidy.
Recommended footprint and core components
A compact, reliable layout fits comfortably in a 14×24 tile area while supporting two parallel distillation chains and a pair of Hetonite converters. Core components include the Cardiac Remediation Station cluster, two distillers, two purification modules, a Fluid Supply Unit, four pumps (two per manifold), and three buffer depots. This configuration balances simplicity and steady output.
Material flow described step by step
Begin at the raw input depot. Raw Xircon enters the first distiller where it is partially processed. The output flows into a buffer depot that feeds a Heavy Xiranite converter. A second distiller runs in parallel to increase throughput and provide redundancy. Heavy Xiranite output is split: a portion goes to a Hetonite converter, the rest is stored or sold according to SubPAC settings. Purification modules handle byproduct acid; their output is routed directly to the Fluid Supply Unit. Pumps feed manifolds that supply water and acid lines to the CRS cluster. Buffer depots between each stage absorb production spikes and allow you to stagger chain activation.
Conduit routing rules that prevent stalls
Conduit order matters. Keep water conduits above acid conduits to avoid accidental crossfeeds. Use separate manifolds for water and acid. Each manifold should be fed by at least two pumps; single pump feeds are prone to starvation when multiple converters draw simultaneously. Route conduits along the factory edge and avoid crossing them over converter inputs. If you must cross, use a short bridge segment and test the line with a single converter before scaling.
Pump and manifold guidelines
Pumps are the heartbeat of the factory. Two pumps per manifold is the baseline for a compact build. For high throughput, add a third pump to the water manifold. Place pumps close to the depot they draw from to reduce travel time. When adding pumps, stagger their activation by a few seconds during startup to prevent pressure spikes that can cause temporary stalls.
SubPAC configuration and sell thresholds
Set SubPAC outputs for Hetonite and Heavy Xiranite to manual mode. Configure sell thresholds low enough that the system sells small batches before hitting caps. This prevents production from halting due to full storage. If you prefer automation, set staggered sell timers so not all chains attempt to sell at once. Manual mode gives you the most control and is recommended until you’ve validated the layout under load.
Stepwise build plan you can follow in one session
Start by placing the Cardiac Remediation Station cluster in the center of your footprint. Add two distillers on the left and two purification modules on the right. Place buffer depots between distillers and converters. Install the Fluid Supply Unit near the purification modules and route its acid inlet directly from the purification outputs. Lay two water conduits and one acid conduit to the CRS cluster. Add two pumps to each water manifold and one pump to the acid manifold. Connect the distillers to the raw input depot and the converters to the buffer depots. Power up a single distiller and converter to test flow, then bring the second chain online once the first is stable.
Tuning for steady output versus peak output
If you want steady output with minimal oversight, keep the compact layout and run two parallel chains with moderate pump counts. For peak output, expand the footprint, add a third distiller, increase pumps per manifold, and add a secondary acid sink. Peak builds require more monitoring because liquid byproducts scale faster than solids, and acid overflow becomes a real risk.
Compact layout advantages and tradeoffs
A compact layout is easier to maintain and less likely to suffer from conduit misrouting. It uses fewer pumps and requires less attention. The tradeoff is lower absolute throughput. If you need large quantities quickly, accept a larger footprint and more complex conduit routing.
Scaling strategy without redesigning the base
Scale by duplicating the distillation chain and adding buffer depots rather than redesigning the entire factory. Each duplicate chain should have its own buffer depot and share the water manifold. Add pumps to the manifold as you add chains to maintain pressure. Keep purification modules proportional to the number of distillers to avoid acid bottlenecks.
Monitoring and testing protocol
After building, run a single-chain test for 10–15 minutes. Watch depot levels, pump activity, and the Fluid Supply Unit. Look for any spikes in acid output or pump idle time. If a pump idles while converters are active, increase pump count or check conduit routing. If acid accumulates, add a secondary sink or increase purification throughput.
Troubleshooting common failure modes
Acid overflow is the most common failure. Fix it by routing purification output to the Fluid Supply Unit or adding a secondary acid sink. Pump starvation shows as converters pausing; add pumps or reduce the number of active chains. Cap stalls occur when SubPAC thresholds are too high; lower thresholds or enable manual sells. Conduit crossfeeds cause mixed inputs and erratic behavior; re-route conduits along the edge and test each line individually.
Optimization techniques that save space and time
Stack converters vertically where the game allows stacking to reduce footprint. Use short buffer depots rather than long conveyor runs to smooth spikes. Place pumps in pairs and keep them close to depots. Use the factory edge for conduit runs to minimize crossings. When adding a new module, test it in isolation before integrating it into the main chain.
Alternative layouts and when to use them
A linear layout is easiest to understand and maintain; use it if you prefer clarity over compactness. A stacked layout saves space and is ideal for players with limited tiles. A modular layout with separate islands for distillation, conversion, and purification is best for very large factories where you want to isolate failures.
Comparison table of three recommended layouts
| Layout Name | Footprint | Complexity | Best Use Case |
|---|---|---|---|
| Compact CRS | 14×24 | Medium | Reliable daily production with low oversight |
| Stacked Compact | 12×20 | High | Space constrained bases needing moderate output |
| High Throughput | 36×24 | High | Large production runs and event prep |
Production stat table for planning
| Metric | Compact CRS | High Throughput |
|---|---|---|
| Distillers | 2 | 4 |
| Hetonite Converters | 2 | 6 |
| Pumps per water manifold | 2 | 4 |
| Fluid Supply Units | 1 | 2 |
| Expected Hetonite per hour | Moderate | High |
| Expected Heavy Xiranite per hour | Moderate | High |
Practical examples of startup sequences
Power up one distiller and its converter first. Confirm buffer depot levels rise and the Fluid Supply Unit accepts acid. Add the second distiller and converter after 5–10 minutes. If both chains are stable, bring purification modules online. Finally, enable SubPAC sells with low thresholds and monitor for 30 minutes.
How to integrate other production lines without interference
If you run SC Batteries or other products, give them separate buffer depots and, if possible, separate water manifolds. Share the acid sink only if the Fluid Supply Unit has capacity. Prioritize Hetonite and Heavy Xiranite in SubPAC settings to avoid resource contention.
Long term maintenance and upgrades
Check pump wear and depot levels weekly. Add pumps incrementally as you scale. Replace single‑pump manifolds with dual‑pump manifolds when adding a third chain. Upgrade purification modules if acid output consistently exceeds sink capacity.
Player tips and community best practices
Use small test runs when changing conduit routing. Keep a spare pump and a spare buffer depot in your inventory for quick fixes. Stagger chain activation by a few seconds to avoid simultaneous peaks. Share your blueprint with friends and ask them to test it under different load conditions.
When to expand versus when to optimize
Expand when you need a sustained increase in output that your current pumps and purification modules cannot support. Optimize when you have unused capacity in pumps or purification but are hitting caps due to SubPAC settings or depot placement.
Example troubleshooting scenarios and fixes
If a converter pauses while depots are full, check SubPAC sells and lower thresholds. If acid accumulates, add a second Fluid Supply Unit or route excess to a sell depot. If pumps run but no flow occurs, inspect conduit order and ensure no crossfeed is present.
Final checklist before leaving the factory running
Confirm two pumps per water manifold, one pump per acid manifold minimum. Verify buffer depots between each stage. Ensure purification outputs route to the Fluid Supply Unit. Set SubPAC to manual and configure low sell thresholds. Run a 30‑minute test with all chains active and watch for any stalls.
Closing notes and recommended next steps
This blueprint and operational plan will give you a dependable source of Hetonite and Heavy Xiranite in Endfield 1.4. Start with the compact layout, validate it with single‑chain tests, then scale by duplicating chains and adding pumps. Keep purification capacity proportional to distillation capacity and always route acid to a Fluid Supply Unit. With these rules, your factory will run smoothly and supply your crafting needs without constant babysitting.
FAQ
How do I prevent Hetonite or Heavy Xiranite from hitting the storage cap and stopping production Set SubPAC to manual and configure low sell thresholds so the system sells small batches before storage fills. Stagger chain activation to avoid simultaneous peaks.
What is the minimum pump configuration for a stable compact build Two pumps per water manifold and one pump for the acid manifold is the baseline. Add pumps as you add distillation chains.
Where should purification acid be routed Directly into a Fluid Supply Unit or a dedicated acid sink. Never let purification output dump into local drains.
Can I run other production lines alongside Hetonite Yes, but give them separate buffer depots and, if possible, separate water manifolds. Prioritize Hetonite and Heavy Xiranite in SubPAC settings.
What’s the best way to test a new layout Power up a single distiller and converter, run for 10–15 minutes, check depot and pump behavior, then bring additional chains online one at a time.
How do I scale without redesigning the whole factory Duplicate distillation chains and add pumps to the shared manifold. Keep purification modules proportional to the number of distillers.
Why does my converter stall even though pumps are running Check for conduit crossfeeds, incorrect conduit order, or insufficient pump count feeding the manifold.
Is Yazhen required for Hetonite production Yazhen reagents can improve certain recipes; integrate them if you plan high-volume production, but they are not strictly required for a basic Hetonite chain.
What’s the most common mistake players make building this factory Underestimating acid output and failing to route purification outputs to a Fluid Supply Unit, which leads to overflow and production stalls.
How often should I check the factory once it’s stable A weekly check is usually sufficient for a stable compact build. Check more frequently after scaling or adding new modules.
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