Mastering Plastic Production In Oxygen Not Included: A Step-By-Step Guide

how to find make plastic in oxygen not included

In *Oxygen Not Included*, a resource management and survival game, players often seek efficient ways to produce plastic, a crucial material for advanced construction and technology. To find and create plastic, players must first locate crude oil, which is typically found in deep underground pockets. Once extracted, crude oil can be refined into petroleum using an Oil Refinery, and subsequently polymerized into plastic using a Plastic Press. Proper management of resources, such as ensuring a steady supply of power and maintaining suitable temperatures, is essential for this process. Additionally, players should consider the environmental impact of oil extraction and plan for sustainable practices to avoid overheating or contaminating their colony. Mastering these steps allows players to harness plastic effectively, enabling them to progress further in the game.

Characteristics Values
Resource Required Petroleum (Crude Oil)
Processing Machine Oil Refinery
Input Ratio 1000 g Crude Oil → 200 g Petroleum + 800 g Polluted Water
Plastic Production 1000 g Petroleum → 1000 g Plastic
Byproduct Polluted Water (from Oil Refinery)
Storage Plastic can be stored in any container or used directly in manufacturing
Use Cases Building advanced structures, crafting machinery, and creating insulation
Temperature Management Oil Refinery operates optimally between 20°C and 40°C
Power Requirement 120 W per Oil Refinery
Duplicant Skill No specific skill required; basic operation suffices
Research Requirement Plastics must be researched in the Tech Tree
Availability Petroleum is obtained from Oil Wells or via Crude Oil extraction
Environmental Impact Produces Polluted Water, requiring proper disposal or filtration
Efficiency Tip Use multiple Oil Refineries for higher plastic production rates

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Gathering Resources: Collect petroleum, crude oil, and algae for plastic production in your base

In *Oxygen Not Included*, plastic is a versatile material essential for crafting advanced machinery, storage, and infrastructure. To produce it, you’ll need to gather three key resources: petroleum, crude oil, and algae. Each serves a distinct role in the production chain, and understanding their sources and extraction methods is critical for efficient base management. Petroleum and crude oil are fossil fuels found deep within the map, while algae can be cultivated in water-rich environments. Balancing their collection ensures a steady supply of plastic without depleting your colony’s resources.

Step 1: Locating and Extracting Petroleum and Crude Oil

Petroleum and crude oil are typically found in the oil biome, a hazardous area characterized by high temperatures and toxic pollution. Use a scanner to identify these deposits, then send your dupes equipped with hazard suits to drill into the oil reservoirs. Set up oil wells to extract the resources, ensuring proper ventilation to manage the toxic gas byproduct. Store the extracted petroleum and crude oil in designated tanks, as they’ll need to be refined into natural gas and petroleum before use in plastic production. Pro tip: Build your oil extraction operation away from your main base to minimize contamination risks.

Step 2: Cultivating Algae for Organic Material

Algae is the renewable component of plastic production, grown in water-filled areas using algae terrariums. Place these terrariums in well-lit, warm environments, such as near geothermal vents or under artificial lighting. Each terrarium requires water and polluted water to produce algae, which can then be harvested and processed into polymer, a key ingredient in plastic. To maximize efficiency, automate the process with conveyer belts and storage bins. Algae cultivation not only provides organic material but also helps manage polluted water, making it a dual-purpose resource.

Cautions and Considerations

While gathering these resources, be mindful of the environmental challenges they pose. Oil extraction generates toxic pollution, which can harm your dupes and contaminate your base if not managed properly. Algae terrariums require consistent water input, so ensure your base has a reliable water source. Additionally, petroleum and crude oil are finite resources, so plan their extraction carefully to avoid depletion. Over-reliance on oil can lead to resource scarcity, so balance it with renewable algae production.

By efficiently collecting petroleum, crude oil, and algae, you’ll establish a robust plastic production pipeline in *Oxygen Not Included*. Automate resource extraction and processing to minimize manual labor, and prioritize safety measures to protect your dupes from hazards. With a steady supply of these materials, you’ll be well-equipped to build advanced structures and expand your colony’s capabilities. Remember, sustainability is key—leverage renewable resources like algae to ensure long-term success in your base.

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Refining Petroleum: Use oil refineries to process petroleum into plastic efficiently

In *Oxygen Not Included*, transforming petroleum into plastic is a pivotal step for advancing your colony’s infrastructure. Oil refineries are the cornerstone of this process, acting as the bridge between raw petroleum and usable plastic. To begin, ensure your refinery is placed in a well-ventilated area, as the process generates significant heat and polluted oxygen. Connect the refinery to a petroleum source via an oil pump and set it to refine petroleum into refined petroleum first. This intermediate step is crucial, as refined petroleum is the precursor to plastic production.

Once refined petroleum is available, configure the oil refinery to produce plastic by selecting the appropriate output option. Each refinery can process 40 kg of refined petroleum into 20 kg of plastic, making it a highly efficient method for plastic production. Pair this setup with automated systems, such as storage bins and conveyor belts, to streamline the process and minimize manual intervention. Keep in mind that refineries require 120W of power to operate, so ensure a stable power supply to avoid disruptions.

Efficiency is key when refining petroleum into plastic. Overproducing refined petroleum can lead to storage issues, while underproduction slows down plastic manufacturing. Use smart batteries and automated sensors to regulate the flow of resources and maintain a steady supply chain. Additionally, consider placing refineries near your plastic manufacturing hubs to reduce transport time and energy costs. This spatial optimization not only saves resources but also keeps your base organized and functional.

A common pitfall is neglecting the heat generated by oil refineries. Without proper cooling, refineries can overheat, causing them to shut down or even catch fire. Install cooling systems, such as liquid cooling loops or heat deletion pipes, to manage temperatures effectively. Alternatively, build refineries in cooler biomes or underground areas to naturally mitigate heat buildup. By addressing thermal management proactively, you ensure uninterrupted plastic production and protect your colony from potential disasters.

Finally, integrate plastic production into your long-term colony strategy. Plastic is essential for constructing advanced buildings, such as water sieves, batteries, and insulation, which are critical for survival in harsh environments. By mastering the art of refining petroleum into plastic, you not only enhance your base’s efficiency but also unlock new possibilities for growth and sustainability in *Oxygen Not Included*. With careful planning and resource management, your colony can thrive, turning raw petroleum into the building blocks of a thriving civilization.

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Algae Processing: Convert algae into polymer for alternative plastic creation

Algae, often overlooked as mere pond scum, holds the potential to revolutionize plastic production. Through a process known as algae biopolymerization, we can transform this abundant resource into a sustainable alternative to traditional plastics. This method leverages algae’s natural ability to produce polymers, which can be extracted and processed into biodegradable materials. Unlike petroleum-based plastics, algae-derived polymers decompose organically, reducing environmental impact. The first step involves cultivating algae in controlled environments, such as photobioreactors, to maximize growth and polymer yield.

Cultivating algae for polymer production requires specific conditions to ensure optimal growth. Algae thrive in nutrient-rich water with adequate sunlight or artificial light sources. For instance, *Chlorella* and *Spirulina* species are commonly used due to their high polymer content. Once harvested, the algae undergo a series of processes, including drying, grinding, and solvent extraction, to isolate the biopolymers. These polymers can then be molded into various plastic products, from packaging materials to disposable utensils. The key advantage lies in their biodegradability, breaking down within months compared to centuries for conventional plastics.

One of the challenges in algae-based plastic production is scalability. While laboratory-scale processes are well-established, industrial-scale implementation requires significant investment in infrastructure and technology. However, advancements in biotechnology, such as genetic engineering of algae strains for higher polymer yields, are addressing these hurdles. For example, researchers have successfully engineered *Nannochloropsis* to produce polyhydroxyalkanoates (PHAs), a type of biopolymer, at efficiencies rivaling traditional methods. This innovation paves the way for cost-effective, large-scale production of algae-based plastics.

Adopting algae-derived plastics offers a dual benefit: mitigating plastic pollution and reducing reliance on fossil fuels. By integrating algae processing into existing waste management systems, we can create a closed-loop cycle where organic waste feeds algae cultivation, and the resulting biopolymers replace harmful plastics. For instance, algae farms could be established near wastewater treatment plants, utilizing nutrients from effluents to grow algae. This symbiotic approach not only minimizes environmental degradation but also fosters a circular economy.

In conclusion, algae processing presents a viable pathway to sustainable plastic production. From cultivation to polymer extraction, each step offers opportunities for innovation and optimization. While challenges remain, the potential for algae-based plastics to transform industries and protect ecosystems is undeniable. By investing in research and infrastructure, we can unlock a future where plastic is no longer a pollutant but a renewable resource derived from one of nature’s most versatile organisms.

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Oxygen Management: Ensure proper ventilation to prevent fires during plastic production

In the intricate world of *Oxygen Not Included*, plastic production is a critical process that hinges on managing oxygen levels to prevent catastrophic fires. The exothermic reaction of converting petroleum into plastic generates heat, and without proper ventilation, oxygen accumulation can ignite, destroying your production setup. Understanding this dynamic is the first step in safeguarding your base.

Analyzing the Risk: Oxygen buildup in enclosed spaces is a silent threat. When petroleum is refined into plastic, the heat produced accelerates oxygen consumption, but poor airflow can lead to pockets of high oxygen concentration. These pockets, when exposed to heat or sparks, become fire hazards. For instance, a single tile with 200+ grams of oxygen can combust if adjacent to a heated refinery. Monitoring oxygen levels using automation wires and sensors is essential to detect and mitigate risks before they escalate.

Practical Ventilation Strategies: Effective ventilation requires a balance between oxygen supply and removal. Positioning air pumps and dehumidifiers strategically can create a steady airflow, ensuring oxygen doesn’t stagnate. A common setup involves placing refineries in a well-ventilated room with at least two tiles of open space around them. Use automated doors or vents to regulate airflow, and consider integrating a cooling system to dissipate heat. For example, routing cool water pipes near refineries can absorb excess heat, reducing the risk of ignition.

Preventive Measures and Cautions: While ventilation is key, over-ventilating can deprive your dupes of breathable air. Aim to maintain oxygen levels between 15% and 25% in production areas. Avoid placing refineries near flammable materials like algae or methane, and ensure fire poles are accessible for quick response. Regularly inspect your setup for leaks or blockages in ventilation systems, as even minor obstructions can lead to oxygen buildup.

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Automation Tips: Set up conveyor belts and storage for streamlined plastic manufacturing

In Oxygen Not Included, efficient plastic production hinges on automation. Conveyor belts and storage systems are the backbone of this process, ensuring a steady supply of plastic without manual intervention. By strategically placing these elements, you can minimize bottlenecks and maximize output. Start by identifying your plastic production area and plan conveyor routes to connect refineries, storage, and manufacturing stations. Use bridges or tunnels to avoid crossing paths and maintain a smooth workflow.

The key to effective conveyor belt setup is zoning. Dedicate specific belts for raw materials (petroleum or crude oil) and another for refined plastic. This prevents contamination and ensures a consistent flow. Place sweepers along the belts to remove any debris or unwanted items, keeping the line clean. For storage, use smart batteries or storage bins near the refineries to hold excess plastic until it’s needed. Automate the storage system by setting up priority-based delivery, ensuring plastic is always available for critical tasks like building or crafting.

One common mistake is overloading conveyor belts, which leads to backups and inefficiency. To avoid this, calculate the production rate of your refineries and match it with the belt’s capacity. For example, if a refinery produces 10 units of plastic per cycle, ensure the belt can handle at least that volume without clogging. Additionally, use filters to sort materials automatically, directing plastic to storage and waste to disposal areas. This keeps the system organized and reduces manual labor.

Persuasive as it may seem, automation isn’t just about convenience—it’s about sustainability. A well-designed conveyor and storage system reduces dupes’ workload, allowing them to focus on other tasks. It also minimizes resource waste by ensuring plastic is used efficiently. Invest time in planning and testing your setup; small adjustments can yield significant improvements. For instance, adding a buffer zone between production and storage can prevent overflow and give you time to reroute excess materials.

Finally, monitor your system regularly to identify inefficiencies. Use the game’s overlay tools to track belt traffic and storage levels. If a belt is consistently clogged, reroute it or add additional storage. If plastic is piling up, increase manufacturing or redirect it to other projects. Automation in Oxygen Not Included is an iterative process—refine your setup as your base grows, and you’ll maintain a seamless plastic production line.

Frequently asked questions

To produce plastic, you need to refine Petroleum, which is obtained from Oil Wells or Crude Oil. Use an Oil Refinery to convert Petroleum into Refined Petroleum, then use a Plastic Refinery to turn Refined Petroleum into Plastic.

You need Petroleum (from Oil Wells or Crude Oil), Water (for cooling the Oil Refinery), and power to run both the Oil Refinery and Plastic Refinery.

No, Petroleum is the only resource that can be refined into Plastic in the game. Ensure you have a stable supply of Petroleum to produce Plastic.

The Oil Refinery produces Polluted Water and Carbon Dioxide as byproducts. Use a Water Sieve to filter Polluted Water and manage Carbon Dioxide with Deodorizers or by venting it into space.

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