Job Description
Full details about the role and requirements
Yukerja Summary
The Process Engineer – Mixing, Tank & Piping Systems (Agitator, Airflow, API/ASME) role at CHAMPOIL INDONESIA is curated from JobStreet (category Teknologi & IT). Note the work location (North Jakarta, Jakarta) before applying. Yukerja.com is not the employer — applications are handled on the official source site.
About Champoil
Champoil is an industrial oil and chemical processing company focused on building scalable, efficient, and high-performance operations. We continuously improve our manufacturing systems by combining engineering excellence, structured problem solving, and data-driven decision making to create production processes that are reliable, maintainable, and ready for future expansion.
Role Overview
This role is responsible for designing, optimizing, and continuously improving fluid and semi-solid production systems (oil, grease, and chemical processing) to achieve high process efficiency, consistent product quality, operational simplicity, ease of maintenance, and scalability for future expansion.
The focus is not only on keeping production systems running, but on engineering better, more efficient, and more scalable systems than the current state.
Key Responsibilities
Mixing & Agitation System Engineering
Design and optimize mixing systems by determining appropriate agitator types (axial or radial), blade geometry, rotational speed (RPM), and overall mixing configuration based on fluid characteristics
Optimize mixing homogeneity, mixing time, and energy efficiency
Identify and resolve issues such as dead zones, vortex formation, and inconsistent mixing performance
Tank & Process Equipment Design
Design, evaluate, and improve process tanks, including dimensions, baffle configuration, clearances, and internal components
Ensure equipment design aligns with process requirements and material characteristics
Improve equipment durability, maintainability, and long-term operational reliability
Piping & Flow System Engineering
Design and evaluate piping systems, including routing, pipe sizing, bends, and flow loops
Optimize flow rate, pressure drop, and overall flow stability
Eliminate bottlenecks and stagnation areas throughout the production system
Plant Layout & Airflow Integration
Develop efficient production layouts with minimal process crossing and optimized material flow
Design airflow systems to effectively manage heat, vapor, and operator comfort
Ensure maintenance accessibility without disrupting production flow
Process Optimization & Troubleshooting
Identify root causes of production issues related to mixing, flow behavior, overheating, and operational inefficiencies
Develop practical engineering solutions that can be directly implemented
Measure the impact of improvements on product quality, operational efficiency, and production cost
Standardization & Scalability System
Develop standardized engineering designs that can be replicated across multiple production sites
Simplify system complexity without compromising performance
Build scalable engineering foundations to support future plant expansion
Requirements
Bachelor's degree in Chemical Engineering, Mechanical Engineering, Industrial Engineering, Process Engineering, or related disciplines
Experience in process engineering, mechanical systems, or chemical processing environments
Strong understanding of mixing systems, including agitators, impellers, and viscosity behavior
Knowledge of process tank and fluid-based equipment design
Understanding of piping systems and fluid flow engineering
Strong engineering-based problem-solving capability with the ability to analyze and improve systems beyond routine execution
Preferred Qualifications
Experience working with industry standards such as ASME, API, or equivalent engineering standards
Experience within petrochemical, lubricant, grease, or chemical manufacturing industries
Understanding of rheology, particularly non-Newtonian fluid behavior
Knowledge of energy efficiency optimization in mixing systems
Experience improving existing production systems rather than only designing new installations
Success Indicators
Successfully identify major bottlenecks within the current production system during the first three to six months
Deliver measurable improvements in mixing quality, process efficiency, and waste or rework reduction
Propose and implement at least one engineering improvement that directly enhances overall system performance
Begin developing standardized engineering frameworks that can be replicated for future production expansion