Pilot Plants
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- Simulate industrial processes at a laboratory scale for product development, quality improvement, and process innovation.
- Expertise in instrumentation and control ensures reliable and reproducible results in complex systems.
- Description
- Gasification/Pyrolysis
- Slow pyrolysis
- MAT
- Stirred Tank Pilot Plant
- Photocatalytic reactor unit
- Custom Made
Improving competitiveness in the industry is sharply marked by developing new products with high quality features and a high added value. Continuous and automatic pilot plants that can simulate industrial processes at the laboratory level with reasonable scalability are essential for seeking new products, improving the quality of existing ones and developing new processes.
These systems high degree of complexity, their high number of operating variables and the interrelationship among them requires an exhaustive study of the instrumentation and control in order to attain results provided by these systems that are representative and reproducible.
Due to the renewed interest in innovative ways to convert the existing fuel reserves with improved technologies such as gasification and pyrolysis, PID Eng&Tech has worked in collaboration with important researchers in the field of biofuels in order to develop the most versatile pilot plant existing in the market nowadays. Its versatility and complete automatization, allows determining optimal experimental conditions and detecting possible operational problems in industrial gasification or pyrolysis reactors.
You can choose processing up to 2 kg/h of solid for gasification and pyrolysis processes or smaller scale up to 200 g/h.
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Feeding system
Continuous and non-fluctuation system for feeding solids such as biomass, plastics, etc in constant and reproducible manner.
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Gasifying agent inlets
Gases streams (air, O2, steam, N2…) are preheated up to 400 °C. Complete facility for steam generation is included.
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Cyclones and filter
Two heated cyclones connected in series and a high temperature filter to remove solid particles from gas stream, reducing ash content in the final product.
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Fluidized bed reactor
The reactor is divided into the reactor zone and freeboard zone. Homogeneous operating temperature up to 650 – 850 °C for pyrolysis and gasification, respectively. Radiant furnace (up to 1000 °C) with three heating zones to improve temperature profile
Provision for fluidization velocity determination.
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Condensation train
A system of SS316 shell-tube exchanger, several vessels and coalescence filters allow cooling the hot gases and obtaining tar and bio-oil in efficient manner Under request, temperature controlled implementation to obtain fractionated bio-oil.
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Electrostatic precipitator
Recommended for pyrolysis, the electrostatic precipitator has been designed for fogging oil separation: it enables to collect liquid particles that cannot be obtained by condensation.
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Additional liquid feeding system
High precision pump (up to 25 ml/min) for liquid feeding. Heat traced lines or cooling provision depending on the properties of the liquid.
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Tar collection with baths as normative
Modular sampling train based on cool traps where the tar (high molecular weight organic compounds) is collected with the help of solvents.
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Additional hopper
Solid refill without affecting the operating pressure of the plant to increase the experiment time.
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Automatic gas sampling system
μGC is integrated into the plant allowing online gas sample analysis and mass balance calculations.
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Scrubber
For retention of contaminants before venting the product gas stream
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Gas meter totalizer
For measurement of the gas quantity that has been produced. It includes temperature and pressure correction.
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Burner
For combustion of remaining contaminants of the product gas stream
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Gas recycle / compression system
Outlet gas stream can be fed again into the pilot plant at atmospheric pressure through thermal mass flow controller or it can be compressed to be fed into other equipment.
The screw reactor unit allows for obtaining add-value solid from waste by means of a slow pyrolysis process. It can treat different types of feedstock under a wide range of temperature conditions. It comprises a SS310 screw driven horizontal tubular reactor housed in a multi-zone furnace, which allows operation with temperature ramps throughout all reactor length. The residence time in the reactor can be fixed from few minutes up to hours. Thanks to an independent dosing screw system, the feed rate can be modified independently from the residence time. At reactor outlet, the solid product is collected in a vessel, whereas the obtained gas leaves the vessel through the top, where a filtering element is fixed to prevent fine particles withdrawal.
Finally, the vapors are condensed to obtain liquid, and gas product is measured in a wet gas meter. A vacuum pump is used to avoid plugs in the reactor and keep the pressure in the system constant.
Fully automatic, controlled and computerized laboratory reactor for the analysis of Fluid Catalytic Cracking (FCC), using as feedstock petroleum oils or renewable sources such as bio-oil.
- Allows studying the catalyst activity and selectivity based on the ASTM D3907 method.
- Performs continuous and automatic control of up to four independent, programmed and consecutives FCC tests.
- Versatile operation modes
- Fixed and normalized conditions based on the ASTM D3907
- Conditions determined by the operator for each independent run and independent step during the experiment.
- Catalyst/oil ratio as flow rate
- Injection flow rate Injection time
- Temperatures
- Quasi-zero dead volume using a perfectly engineered reactor size, precise pipe lengths and distances.
- The standard unit can be adapted to meet specific requirements with extra-equipment (mass flow controllers, simultaneous dosing pumps, special materials of construction…)
With an excellent reaction temperature control and making use of a precise syringe pump for gasoil feeding, even for a very short reaction time, this unit carries out reaction and regeneration in-situ and consecutives stages, including coke quantification. The four liquid products obtained are collected in a cooled receiver until the end of the experiments while gases can be analyzed online in a gas chromatograph.
This computerized and automatic pilot plant is based on a stirred tank reactor for operation in continuous, batch or semi-batch mode. The plant is high pressure certified according to current regulations and customer can design his own pilot plant by using as many options as required.
- Number of gases and liquids fully customized.
- A stirred tank reactor (made of SS316, Hastelloy C, glass, PTFE lined…) with magnetic coupling agitator for high pressure applications. Volume of reactor from few ml up to several liters.
- Different types of catalytic baskets available.
- Temperature control system for reactor, by electrical furnace or fluid through heat jacketed reactor. Cooling coil is also available.
- Pressure control system for the reactor is based on the patented PID Eng&Tech microregulation servocontrolled valve. If fractionation is needed, two different pressure controllers can be selected for the reactor and separators.
- Liquid-gas separator at high pressure is based on the patented PID Eng&Tech with very low dead volume according to specific process conditions.
- Parallel reactors are also available to increase throughput.
Computed and totally automatized unit based on photocatalytic reactor with one/two sight ports with capability to work at high pressure and temperature.
- Number of gases and liquids fully customized.
- Steam generator facility is available.
- Photocatalytic reactor with different materials and designed for different amount/sizes of catalyst.
- Different light system available according to wavelength and power supply.
- Liquid-gas separator at high pressure is based on the patented PID Eng&Tech with very low dead volume according to specific process conditions.
- Pressure control system for the reactor is based on the patented PID Eng&Tech microregulation servocontrolled valve.
- Vacuum system is available.
Our engineering team specializes in the design and construction of customized pilot plants. Our primary goal is customer satisfaction, which we achieve by collaborating closely with our clients to transform process ideas into R&D equipment.
Through the utilization of pre-designed modular components, we significantly reduce two critical project factors: construction time and cost. Additionally, we incorporate the latest advancements in process control technology to ensure optimal efficiency.