Integrated Systems – From concept to manufacturing
Efficiencies – 20% cost savings & 40% time savings
Modular Designs – intelligent, space-efficient, designed skids
User Friendly – totally customizable & designed to automate
Reliable Components – from trusted brands
Client Focused – open, communicative process Secured IP – NDAs to assure confidentiality Support Team – engineers that understand R&D environment
Pilon’s Pilot Plant systems are professionally-engineered modular solutions that take new technology ideas and transform them into implementable units of scale. Designed with the thought of modularity and flexibility, our pilot plants allow for manual operations or can be fully automated to suit the specific R&D needs of each individual client. Our pilot plants are skillfully designed with high-quality components, intelligent layouts that allow for optimal performance and ease of use for a fraction of the cost and time of traditional pilot plant systems. Pilon delivers pilot plants that are not simply systems, they are solutions.
Category | Key Features |
---|---|
R&D Commitment | Passion for innovation; NDA-based client confidentiality |
Client-Centric Approach | Systems tailored to meet client-specific needs and performance expectations |
Modular Design | Saves ~20% cost and ~40% time compared to conventional systems |
Automation Levels | Options from manual, semi-automated to fully automated (man-less operation) |
Integrated System Design | Feed, reaction, and product sections integrated into compact, modular skids |
Ease of Use | User-friendly systems that simplify research operations |
Component Quality | Uses top brands: Swagelok, Bronkhorst, Equilibar, TKF, Sandvik, Badger, etc. |
Engineering Excellence | Skilled technicians and engineers develop every system with attention to details |
Collaborative Development | Client suggestions integrated promptly; systems are 100% user-driven |
Scalability | Seamless transition from pilot to commercial levels |
Reliability & Standards | Built to meet stringent quality, safety, and operational standards |
Pilon’s attrition systems are built with precision and flexibility, enabling customizable test
parameters such as gas flow rate, temperature, pressure, and agitation speed.
Purpose: It Evaluate the mechanical durability and strength of catalysts, powders, or granules.
Applications: Ideal for R&D, quality control, and material validation
Versatility: Suitable for both lab-scale and pilot-scale testing environments.
User-Focused: Easy to operate, maintain, and we customize as per on client needs.
A distillation system is a method for the separation of elements of a liquid mixture due to differences in their boiling points. It is generally consists of heating the mixture in a distillation column or flask, which makes the more volatile elements vaporize first. These vapors get condensed back into liquid form in a condenser and are separately collected. Distillation processes are commonly applied in petrochemical refining, alcohol manufacture, and water treatment industries. System efficiency relies on temperature control, pressure, and the structure of the distillation column. Separates liquids by differences in boiling points
The absorption systems are designed to remove the impurities from the air or liquids on the back of a solid material. These systems use highly surprising territory with the selection properties, which ideal environmental protection, chemical processing and purification for applications for the main features, adaptable structure, and industrial laboratory capacity.
Correction: To remove the impurity or the pollution (as, in the air, water, or chemical stream).
Separation: To separate the specific components from the mixture.
Recruitment: To regain the valuable substance from the discharge or from the process flow.
Showing: To remove the moistness from the air or liquids (existing, in the air systems compressed).
Membrane separation system used for the experimental study, testing, and analysis of gas separation using polymeric or composite membranes. This setup is particularly used for academic research, pilot-scale testing, training purposes in chemical R&D Centers.
Multi-gas inlet system: It have a to 10 different gas feeds labeled GAS-1 to GAS-10, it allowing for flexible and varied gas mixture experiments.
Membrane module chamber: It is located in centrally for easy access and visibility. This is the heart of the system where separation takes place.
Precision control valves and flow meters: Ensure accurate regulation and monitoring of gas flow to and from the membrane module.
Temperature and pressure gauges: Provides a real-time data for optimizing membrane performance and maintaining safe operating conditions.
MOC of the system: SS316
Automated panel: Integrated control system with status indicators, power switches, and safety features for streamlined operation.
Oxidation system designed for advanced laboratory or pilot-scale system for controlled oxidation reactions in a batch process. The setup is constructed with Hastelloy components and it known for their high resistance to corrosion and suitability. It is capable for handling aggressive chemicals under extreme conditions.
Main Reactor Vessel: It is placed in Centrally and equipped with multiple ports and stirrer assembly for mixing and uniform temperature distribution.
Feed and Product Tanks: It is used for raw material input and product collection.
Digital instrumentation Integrates like control panel and computer interface to precisely monitor and control reaction parameters like temperature, pressure, and stirring speed.
For our automation part- system control, and real-time data collection, a desktop system integrates
In our oxidation system, Gauges, sensors, and safety valves are among the safety and measurement instruments used to guarantee safe and efficient operation.
When controlled oxidation reactions in corrosive environments are needed, this reactor configuration and it is used for R&D labs for process development, and educational demonstrations.
Pilon’s Polymerization Reactor System is a high-performance, modular reactor platform, which has been designed for efficient and precise polymer synthesis with a possibility of scaling. The system has been developed to cover the requirements of both industry and academic polymer research, and it provides the user with unprecedented control of reaction kinetics, thermal profiles and monomer conversion.
Reactor That Can Be Easily Abolished Modular Design (customized)
Enables a person to be able to change the reactor type without removing the entire system.
Volume scalable from lab-scale (25 mL) to pilot plant scale (100 L+).
The reactor is equipped with quick-connect ports for sensors, feeds, and effluent management.
Control Of The Process At The Front Of Technology
The process is computer-controlled through the centralized logic (PLC) or distributed control system (DCS).
Temperature, pressure, pH, monomer concentration, and viscosity are all being measured and displayed in real time.
PID-control systems used for heating/cooling in the regulation of temperature control. There are the most necessary safety precautions adopted there.
Various Materials
It can match the needs of chemists with monomers such as styrene, esters of acrylic acid, olefins, and lactams.
Minimization of the realization of uncontrolled fouling and of the reaction for instance from PTFE, glass-lined, or stainless steel surfaces in the system.
Protection Of The Site
It is equipped with pressure release valves and rupture discs facing with the problem of overpressure.
It is shielded with an inactive gas covering and in case of emergency the system will be stopped.
Analytics Integrated
Pilon’s FCC Units are cutting-edge modular systems designed for laboratory-scale and pilot-scale simulation of industrial fluid catalytic cracking processes. Tailored for research, process development, and catalyst evaluation. One of the most important conversion process used in petroleum refineries, biomass industries, catalyst study R&Ds
There are two most prominent setups for Fluid Catalytic Cracking (FCC): a deactivation step and a catalytic testing step
Pilon is well efficient in design developments and manufacturing of any kind of technology that is put forth by our clients
Design of your system will always be done keeping in mind your parameters incorporating our thoughtful designs.
Automation is also done for your system according to your requirement.
Flexible Reactor Setups Choose between fixed fluidized bed or riser-type reactors Pick from quartz stainless steel, or Hastelloy reactor tubes Catalyst Research & Testing Compare different FCC catalyst formulas Check activity, selectivity, and stability under controlled settings Reaction Kinetics & Mechanism Exploration Examine cracking behavior of various feedstocks (VGO, residues bio-oils)
Gather data to model kinetics and simulate processes Process Creation & Fine-tuning Create custom FCC process conditions for new feedstocks Fine-tune reactor temperature, feed rates, and regeneration cycles