Cleanroom solutions and research
CLEANROOM PRODUCTS
Rotary Crimper For Pharmaceutical Vials And Cartridges
An ultra-compact, and fully configurable, aseptic crimping platform, with capping force measurement, designed to help customers develop and manufacture new drugs and devices at low risk.
-
Pharmaceutical Cleanroom Environmental Contamination Monitoring
Monitor your viable and non-viable particles according to the most recent regulatory requirements. Count, report, document and manage your pharmaceutical environmental monitoring data meeting 21 CFR Part 11 data integrity requirements.
-
Sterile Filtration Of Cell Debris
AccuStrain™ 40μm & 150μm Filters are designed and packaged for bioprocessing applications, providing filtration of cell aggregates and extraneous particulate removal in cell separation, media preparation, and final fill workflows.
-
Spray-Dried Dispersion Services For Optimal API Performance
Improve solubility, stability, and speed to clinic for even your toughest APIs. See why innovators are relying on Spray Dried Dispersion (SDD) technology.
-
Applications Of Liquid-Filled Capsules In Pharmaceutical Manufacturing
Liquid-filled two-piece capsules offer advantages like scalability, faster absorption, simpler packaging, and greater product stability. Learn more about their benefits in pharmaceutical development.
-
Stainless Steel Centrifuges for Cell and Gene Drug Manufacturing
Clean-in-Place / Sterilize-in-Place System
The Powerfuge P6 is a powerful, batch liquid/solid separation system for bacteria, yeast, proteins and sub-micron particles. The Powerfuge P6 system is a two-phase centrifuge that meets cGMP requirements as well as chemical and pharmaceutical industry protocols.
- Bowl capacity: 1.1L
- Flow rates up to 60 L/hr for batches up to 100 L
- Footprint ~ 66 cm wide x 139 cm deep x 180.4 cm high (26” x 55”x 71”)
- Total weight ~ 1,090 kg (2,403 lbs)
- Fully scalable to smaller automated Pilot model
- Fully scalable to larger automated P12 and P18 models
- Drier solids and clear liquids
-
Cleanroom Technology For Unparalleled Cleanliness and Speed
Experience Unparalleled Cleanliness and Speed
At AES Clean Technology, we understand the critical importance of maintaining ultra-clean environments in industries such as pharmaceuticals, biotechnology, medical device, high tech manufacturing, and more. That’s why we’re proud to introduce the CleanLock Module™ – a revolutionary airlock solution designed to enhance cleanliness, speed, and efficiency in your cleanroom project execution.
-
Modular Biopharma Cleanrooms
AES has transformed the landscape of modular cleanroom design, manufacturing and construction. What began as a vision to elevate industry standards has evolved into a legacy of cleanroom solutions that protect the world’s most critical processes.
-
Pharmaceutical Cleanroom Components
The AES modular cleanroom system is engineered with inherent flexibility to seamlessly incorporate essential modular cleanroom accessories while maintaining structural integrity and eliminating the need for costly engineering rework.
-
Controlled Expansion Of Supercritical Solutions (CESS®) Technology
Nanoform’s award-winning Controlled Expansion of Supercritical Solutions (CESS®) technology is a bottom-up nanoparticle engineering approach that enables the creation of API nanoparticles and can unlock the full therapeutic potential of small molecule drugs.
-
PHCbi Large Capacity Double Door Refrigerator: MPR-1412-PA
PHCbi brand's 48.2 cu.ft., refrigerator with 8 adjustable shelves and a forced-air circulation for maximum temperature uniformity at all levels. Unique electronic defrost cycle initiates defrost function automatically, minimizing temperature fluctuation during the process. The temperature control system, with a microprocessor, maintains true temperature at the set level and is unaffected by outside ambient temperature. Audible and flashing LED visual alarms alert the user to the unlikely event of either a high or low temperature status. High performance refrigeration system with reserve cooling capacity assures fast recovery following door openings.
CLEANROOM OVERVIEW
Cleanrooms can be very large. Entire manufacturing facilities can be contained within a cleanroom with factory floors covering thousands of square meters. They are used extensively in semiconductor manufacturing, biotechnology, the life sciences and other fields that are very sensitive to environmental contamination.
The air entering a cleanroom from outside is filtered to exclude dust, and the air inside is constantly recirculated through high-efficiency particulate air (HEPA) and/or ultra-low penetration air (ULPA) filters to remove internally generated contaminants.
Staff enter and leave through airlocks (sometimes including an air shower stage), and wear protective clothing such as hoods, face masks, gloves, boots and coveralls.
Equipment inside the cleanroom is designed to generate minimal air contamination. Only special mops and buckets are used. Cleanroom furniture is designed to produce a minimum of particles and to be easy to clean.
Common materials such as paper, pencils, and fabrics made from natural fibers are often excluded, and alternatives used. Cleanrooms are not sterile (i.e., free of uncontrolled microbes);[3] only airborne particles are controlled. Particle levels are usually tested using a particle counter and microorganisms detected and counted through environmental monitoring methods.[4][5]
Some cleanrooms are kept at a positive pressure so that if there are any leaks, air leaks out of the chamber instead of unfiltered air coming in.
Some cleanroom HVAC systems control the humidity to low levels, such that extra equipment ("ionizers") is necessary to prevent electrostatic discharge (ESD) problems.
Low-level cleanrooms may only require special shoes, with completely smooth soles that do not track in dust or dirt. However, for safety reasons, shoe soles must not create slipping hazards. Access to a cleanroom is usually restricted to those wearing a cleanroom suit.[6]
In cleanrooms in which the standards of air contamination are less rigorous, the entrance to the cleanroom may not have an air shower. There is an anteroom (known as a "gray room"), in which clean-room clothing must be put on, from which a person can walk directly into the room (as seen in the photograph on the right).
Some manufacturing facilities do not use fully classified cleanrooms, but use some cleanroom practices to maintain their contamination requirements.[7][8]
Air flow principles
|
Air flow pattern for "Laminar Flow Cleanroom"
|
Cleanrooms maintain particulate-free air through the use of either HEPA or ULPA filters employing laminar or turbulent air flow principles. Laminar, or unidirectional, air flow systems direct filtered air downward in a constant stream towards filters located on walls near the cleanroom floor or through raised perforated floor panels to be recirculated. Laminar air flow systems are typically employed across 80 percent of a cleanroom ceiling to maintain constant air processing. Stainless steel or other non-shed materials are used to construct laminar air flow filters and hoods to prevent excess particles entering the air. Turbulent, or non-unidirectional, air flow uses both laminar air flow hoods and non-specific velocity filters to keep air in a cleanroom in constant motion, although not all in the same direction. The rough air seeks to trap particles that may be in the air and drive them towards the floor, where they enter filters and leave the cleanroom environment.[9]
Cleanroom classifications
Cleanrooms are classified according to the number and size of particles permitted per volume of air. Large numbers like "class 100" or "class 1000" refer to FED-STD-209E, and denote the number of particles of size 0.5 µm or larger permitted per cubic foot of air. The standard also allows interpolation, so it is possible to describe, for example, "class 2000".
A discrete-particle-counting, light-scattering instrument is used to determine the concentration of airborne particles, equal to and larger than the specified sizes, at designated sampling locations.
Small numbers refer to ISO 14644-1 standards, which specify the decimal logarithm of the number of particles 0.1 µm or larger permitted per cubic metre of air. So, for example, an ISO class 5 cleanroom has at most 105 = 100,000 particles per cubic metre.
Both FS 209E and ISO 14644-1 assume log-log relationships between particle size and particle concentration. For that reason, zero particle concentration does not exist. The table locations without entries are non-applicable combinations of particle sizes and cleanliness classes, and should not be read as zero.
Because 1 m3 is approximately 35 ft3, the two standards are mostly equivalent when measuring 0.5 µm particles, although the testing standards differ. Ordinary room air is approximately class 1,000,000 or ISO 9.[10]
US FED STD 209E cleanroom standards
| Class | maximum particles/ft3 |
ISO equivalent |
||||
|---|---|---|---|---|---|---|
| ≥0.1 µm | ≥0.2 µm | ≥0.3 µm | ≥0.5 µm | ≥5 µm | ||
| 1 | 35 | 7.5 | 3 | 1 | 0.007 | ISO 3 |
| 10 | 350 | 75 | 30 | 10 | 0.07 | ISO 4 |
| 100 | 3,500 | 750 | 300 | 100 | 0.7 | ISO 5 |
| 1,000 | 35,000 | 7,500 | 3000 | 1,000 | 7 | ISO 6 |
| 10,000 | 350,000 | 75,000 | 30,000 | 10,000 | 70 | ISO 7 |
| 100,000 | 3.5×106 | 750,000 | 300,000 | 100,000 | 700 | ISO 8 |
US FED STD 209E was officially cancelled by the General Services Administration of the US Department of Commerce November 29, 2001,[11][12] but is still widely used.
ISO 14644-1 cleanroom standards
| Class | maximum particles/m3 |
FED STD 209E equivalent |
|||||
|---|---|---|---|---|---|---|---|
| ≥0.1 µm | ≥0.2 µm | ≥0.3 µm | ≥0.5 µm | ≥1 µm | ≥5 µm | ||
| ISO 1 | 10 | 2.37 | 1.02 | 0.35 | 0.083 | 0.0029 | |
| ISO 2 | 100 | 23.7 | 10.2 | 3.5 | 0.83 | 0.029 | |
| ISO 3 | 1,000 | 237 | 102 | 35 | 8.3 | 0.29 | Class 1 |
| ISO 4 | 10,000 | 2,370 | 1,020 | 352 | 83 | 2.9 | Class 10 |
| ISO 5 | 100,000 | 23,700 | 10,200 | 3,520 | 832 | 29 | Class 100 |
| ISO 6 | 1.0×106 | 237,000 | 102,000 | 35,200 | 8,320 | 293 | Class 1,000 |
| ISO 7 | 1.0×107 | 2.37×106 | 1,020,000 | 352,000 | 83,200 | 2,930 | Class 10,000 |
| ISO 8 | 1.0×108 | 2.37×107 | 1.02×107 | 3,520,000 | 832,000 | 29,300 | Class 100,000 |
| ISO 9 | 1.0×109 | 2.37×108 | 1.02×108 | 35,200,000 | 8,320,000 | 293,000 | Room air |
BS 5295 cleanroom standards
| maximum particles/m3 | ||||||
| Class | ≥0.5 µm | ≥1 µm | ≥5 µm | ≥10 µm | ≥25 µm | |
|---|---|---|---|---|---|---|
| Class 1 | 3,000 | 0 | 0 | 0 | ||
| Class 2 | 300,000 | 2,000 | 30 | |||
| Class 3 | 1,000,000 | 20,000 | 4,000 | 300 | ||
| Class 4 | 200,000 | 40,000 | 4,000 | |||
BS 5295 Class 1 also requires that the greatest particle present in any sample does not exceed 5 μm.[13]
GMP EU classification
| Class | maximum particles/m3[14] | |||
|---|---|---|---|---|
| At Rest | At Rest | In Operation | In Operation | |
| 0.5 µm | 5 µm | 0.5 µm | 5 µm | |
| Class A | 3,520 | 20 | 3,520 | 20 |
| Class B | 3,520 | 29 | 352,000 | 2,900 |
| Class C | 352,000 | 2,900 | 3,520,000 | 29,000 |
| Class D | 3,520,000 | 29,000 | n/a | n/a |
CLEANROOM WHITEPAPERS AND CASE STUDIES
-
Filtration removes contaminants to ensure safety and is essential in various applications, from lab-scale tasks to GMP production. Explore how its simplicity and reliability make it indispensable.
-
Discover how digital biomanufacturing is revolutionizing drug production by exploring strategies for integrating digital technologies to enhance efficiency and innovation in bioprocessing workflows.
-
In this paper, we’ll discuss how many companies are losing thousands of dollars each year to compressed air system leaks. We will address where leaks commonly occur, leak detection methods, and practical advice for an audit and repair plan.
-
In the face of increasing molecular complexity, early developability assessment with a skilled CDMO can reduce pharmaceutical development costs, prevent clinical delays, and improve commercial success.
-
This white paper explores how advanced biological technologies — including MBBR, IFAS, SBR, and MBR systems — are transforming wastewater management in this sector.
-
Discover a technology platform that is revolutionizing the pre-fillable syringe market by solving the challenge of silicone sensitivity, ensuring stability for sensitive drugs.
-
Learn how to be more proactive by implementing robust PFAS testing and control strategies to safeguard patient health, protect your brand, and stay ahead of evolving regulations.
-
The Greenville Water Utility in Indiana is leveraging Qatium to enhance its water management and leak detection capabilities, significantly improving service efficiency.
-
Explore how a technology leader developed a UWB-based solution to track cattle on dairy farms. This innovative system enhances animal welfare, productivity, and overall farm efficiency.
-
Discover how particle-engineered calcium carbonate offers a viable alternative to titanium dioxide in tablet coatings, achieving good opacity, process efficiency, and comparable tablet properties.
-
Explore five key areas in oligonucleotide chemistry where improvements will have a huge influence on your synthesis quality.
-
Discover how a city solved its non-revenue water challenge by rapidly pinpointing three hard-to-find leaks in 13 miles of aging pipeline using a free-swimming acoustic tool.
-
This guide helps cleanroom managers evaluate sporicides by efficacy, safety, and compatibility to ensure contamination control without compromising operational integrity.
-
Learn how EU GMP Annex 1 (2022) redefines cleanroom air monitoring standards and emphasizes continuous viable sampling in Grade A and B environments to ensure aseptic integrity and compliance.