Brooks Instrument is a company of highly trained specialists with 70 years of experience in development and manufacturing of flow meters.
We are the global leader in precision fluid measurement and control technology and enable precision process performance. We deliver results that consistently create a competitive advantage for our customers. In heavy industry. In oil and gas refining. Chemical and petrochemical research. Pharmaceutical and biopharmaceutical production. Solar cell, LED, thin film, fiber optic and semiconductor manufacturing.
Brooks Instrument has manufacturing locations, sales and service offices in the Americas, Europe, Middle East and Asia. Global Headquarters is based in Pennsylvania – USA.
Brooks Instrument provides a global service network via representatives and distributors.
Brooks Instrument’s portfolio includes Metal Tube Variable Area (VA) flow meters, Glass Tube Variable Area (A) flow meters, Thermal Mass Flow controllers and meters, Coriolis Mass Flow controllers and meters, Pressure controllers and regulators, Vacuum Capacitance Manometers and a variety of flow accessories.
Brooks Instrument is a division of ITW (Illinois Tool Works), a Fortune 200 company. ITW is one of the world’s leading diversified manufacturers of specialized industrial equipment, consumables and related service businesses.
The company has prospered for over 100 years because each of ITW’s businesses has an independent entrepreneurial spirit and freedom to innovate. It’s the highly talented people at ITW all over the world who drive our success through new products and customer-driven solutions.
Maintaining a controlled environment within the bioreactor is an essential step toward achieving optimal cell growth. Two critical factors that govern cell culture yield are the levels of dissolved oxygen (DO) in the bioreactor and the pH of the fermentation broth. The cells within the bioreactor survive only if certain process parameters, such as DO and pH, stay within specified operating conditions. To maintain these optimal process conditions, bioreactors rely on mass flow controllers to deliver accurate and stable flow of critical gases that stabilize key functions within the bioreactor. Read more
The Brooks Instrument Mass Flow Controller (MFC) with superior long-term stability delivers key benefits to your process. Compared to a typical mass flow controller, the Brooks Instrument mass flow controller will reach target yields with accurate and stable gas control to your process equipment. As a result, you will spend less time verifying and recalibrating your mass flow controllers while maximizing system uptime with consistent production. Finally, you will save money, time, and lost opportunity to operate your equipment to its fullest potential.
Watch this video demonstrating how long-term stability of a mass flow controller, in the application of a bioreactor, impacts cost of ownership
When looking at architectural glass from the interior of a building, the low-e glass will reflect energy back into the building to achieve a much lower heat loss than ordinary glass. From the exterior viewpoint of the building, low-e glass reduces heat loss from the building by transmitting the visible part of solar energy while minimizing infrared parts of the light. Read more
In this video, Brooks Instrument proudly presents the theory of operation behind our third-generation Quantim® Series Coriolis liquid flow meters and controllers. The Coriolis flow meter is designed for low-flow gas and liquid applications such as catalyst research, mass balance calculations in pilot plants, and more. The basic construction of this Coriolis liquid flow meter includes a flow body, an in-line control valve, a Coriolis sensor, and a printed circuit board. Watch the video
Brooks Instrument has earned a Supplier Excellence Award from Applied Materials for outstanding technical and operational achievements in areas including quality, service, lead time, cost, and responsiveness. Read more
Tech article highlights the SLAMf Series MFC as one of the best in the industry for measurement and control of process gases with different levels of protection required for rugged and hazardous environments. Read more
The process of cell-cultured meat begins by sourcing real cells from live animals, including livestock, chicken, and fish. These cells are then nurtured in bioreactors where they require accurate gas flow measurement and nutrients. Within weeks, the cell-cultured meat products are ready for the food supply chain. Read more
Chemical plants and petrochemical refineries have some of the most hazardous operating conditions of any industry. As a result, stringent safety procedures and protocols have been established to protect both people and production systems from explosions that can happen from running process equipment. Read more [Source: piprocessinstrumentation.com]
Today’s bioprocesses are more complex than ever, involving a dizzying array of conditions to be measured and processes to be controlled. Perhaps this is best illustrated by the challenges associated with management of the complex gassing strategies associated with today’s bioreactors. Watch the video
Titanium is frequently used in these applications to create an extremely hard Titanium Nitride (TiN) coating on the target product. Due to its golden appearance TiN coatings are often used on jewelry, household fixtures and automotive trim for decorative purposes. Read more
An oxygen concentrator is rather simple in design: it works by separating oxygen from nitrogen and other gases that make up air, then delivers mostly oxygen to the oxygen concentrator user. Natural air contains approximately 21% oxygen, while a concentrator can output air consisting of up to 95% oxygen. Read more
Offshore oil platforms require accurate flow measurement to pump drilling mud at controlled, high pressures through the drill pipe to cool and lubricate the drill bit, deep in the seabed. A Brooks Instrument metal tube variable area flow meter enables consistent, repeatable pumping of drill mud under these severe process conditions. Read more
EtherNet/IP™ and PROFINET are the fastest growing digital communication protocols in industrial automation, continuing to gain wider acceptance as companies look to transition from fieldbus to ethernet networks. They represent the largest number of new nodes of industrial ethernet networks shipped, at approximately 64% share of the total market. EtherNet/IP™ and PROFINET deliver the speed, precision, and reliability needed to manage and control information in real-time by connecting devices to a single network, allowing users to collect meaningful data that helps keep critical systems on track. Read more and watch the video
Brooks Instrument has released the new GP200 Series, the first fully pressure-insensitive pressure-based mass flow controller (P-MFC) designed specifically for etch and chemical vapor deposition (CVD) processes in semiconductor manufacturing. Read more
The Brooks Instrument mass flow controller (MFC) is engineered for superior long-term stability, delivering key benefits to your bioprocess. With this MFC, reach target yields with accurate and stable gas control to your bioreactor. Spend less time verifying and recalibrating your MFCs. Maximize system uptime with consistent biopharmaceutical production. Finally, save money, time, and lost opportunity to operate your bioreactors to their fullest potential. Reduce your cost of ownership with the Brooks Instrument mass flow controller! Watch the video
In this video, Brooks Instrument proudly presents the theory of operation behind our pressure-based mass flow controller (P-MFC), from our GP200 series. This P-MFC has a unique design approach for enhanced process performance without the limitations of today’s traditional P-MFCs. Watch the video
In this videoPete Singer, Editor-in-Chief, from Semiconductor Digest interviews Mohamed Saleem, PhD, Chief Technology Officer, Brooks Instrument. Mohamed discusses how the pressure-based mass flow controllers (MFCs) operate overall. He mentions that a traditional pressure-based MFC uses two discrete pressure transducers to measure a pressure drop across a flow restrictor.
Everything from your PC and smartphone to your clock, refrigerator and automobile have sensors, memory and communication capabilities. Incredible intelligence is being built into just about every device we touch, and, if it’s not built in, the information is available via communication with “the cloud.” This same evolution of intelligence and communication capability is occurring in industrial process control instrumentation and systems. Read more
Besides the basic four (flow, level, pressure and temperature) sensors used to provide a window into industrial processes, there’s a myriad of other sensing devices that you find in everyday products—from toys to dishwashers and to automobiles. Read more [Source: foodengineeringmag.com]
What is the “usable” range of a mass flow controller? Is usable range the same as turndown ratio? Before we answer these questions, lets make sure we’re all grounded on the basics, like what is a mass flow controller (MFC) and where are they used. Read more
Oftentimes, systems consume too much seal water resulting in costly water consumption. In an effort to control seal water and pressure, glass tube variable area flow meters are utilized due to their valves and metering tubes as these adjustable features show the flow readings and control pressure of the seal water. Read more
Many industrial and semiconductor processes need to convert liquids including both water and other liquid precursors into highly controlled and pure vapors. Vaporization is a phase transition from the liquid phase to gas phase. A vaporizer therefore, is any system that converts a liquid material to a gaseous state. Read more
Thermal mass flow controllers (MFCs) are traditionally calibrated for a specific gas – typically a surrogate such as Nitrogen (N2) – a desired flow range, and a set of operating conditions. Over time, the use of conversion factors based on a ratio of specific heats between the surrogate and the desired gas came into use as a way for users to configure a single mass flow controller for multiple gases. This method for configuring multiple gases is at the heart of the Brooks Instrument SLA Series Biotech MFC. Read more
Metal tube variable area flowmeters are robust, reliable and proven to deliver repeatable gas and liquid flow measurement in challenging environments. That’s why they are commonly used in the petroleum industry to measure and control combustion gas flow in flare stacks. Here is a little background on the application. Read more
Since making available the option to specify a FOUNDATION™ Fieldbus transmitter with our popular MT3809 metal tube variable area flow meter, customers have recognized that this makes it easier to integrate the meter with their automation control systems across the plant enterprise. Read more and watch the video
Precise and repeatable process control: It is the fundamental driving factor when manufacturing electronics and semiconductor products. As each successive generation of tools, processes and nodes have been developed and deployed, the extreme, ultra-high performance requirements and demand for constant innovation and improvements in semiconductor flow and pressure instrumentation has – and continues to be – non-stop. Read more
The GT1600’s Scale Adjustment feature is the latest innovation in the Variable Area Rotameter product line to offer a creative solution for our customers. The GT1600 allows its scale to be adjusted upwards or downwards to fine tune the measurement and accommodate for any process variation in the field.
It is sometimes necessary to change the tube and float of a rotameter in the field to accommodate a change in the application. The GT1600’s new design makes it easier than ever to replace the tube or float in the field. The service can be completed with a wrench and a pen; specialized tools are not necessary. Watch how the GT1600 can minimize maintenance time for you!
The typical bioreactor is a vessel where a batch process is used to grow micro-organisms (ex. yeast, bacteria, mammalian cells, etc). The vessel is seeded with a live cell culture and fed with a nutrient (ex. glucose, glycerol/methanol) plus trace minerals. The type of cells employed might be simple prokaryotes (bacteria) or the more complex eukaryotes (yeast, plant, mammalian, etc.). The latter can be extremely ‘finicky’ in their needs for a stable growth environment, but, they can perform biochemical feats that simpler cells cannot (e.g. ‘post-processes’ such as glycolation – attachment of sugar-chains to proteins). The final product might be proteins such as insulin, monoclonal-antibodies, growth-hormone, antibiotics or vaccines. Read more
What is the “usable” range of a mass flow controller? Is usable range the same as turndown ratio? Before we answer these questions, lets make sure we’re all grounded on the basics, like what is a mass flow controller (MFC) and where are they used. Read more
Your EtherNet/IP™ is now connected and added to the network. Review our prior post to bring yourself up to speed, which can be viewedhere.
This final step will focus on testing device communications and controls. Navigate to the LOGIC menu within the Rockwell Studio 5000 and select Monitor Tags. This will take you to a listing of devices on the network and allow you to select IO signals to monitor for each device. A quick way to validate IO communications with a device is by using a Watch window to control and monitor your device (for example, issue setpoint commands and observe the resulting flow signal). Read more
Thermal mass flow controllers are traditionally calibrated for a specific gas – typically a surrogate such as Nitrogen (N2) – a desired flow range, and a set of operating conditions. Over time, the use of conversion factors based on a ratio of specific heats between the surrogate and the desired gas came into use as a way for users to configure a single mass flow controller for multiple gases. This method for configuring multiple gases is at the heart of the Brooks Biotech Option’s Performance package. Read more
EtherNet/IP™ is one of the fastest growing digital communication protocols in industrial automation, continuing to gain wider acceptance as companies look to transition from fieldbus to ethernet networks. It represents the largest number of new nodes of industrial ethernet networks shipped, at approximately 25% share of the total market. Read more
The SLA5800 Series features the high accuracy, high zero stability and high repeatability you expect from the industry leader in mass flow measurement and control technology. Engineered with advanced, configurable multi-gas/multi-range capabilities, they offer a better zero drift specification compared to competitive products and have been proven to maintain factory calibration and accuracy longer. Article
Last month, scientists from 60 countries convened in Versailles, France to change the definition of the kilogram (Kg). Instead of basing the kilogram on a physical piece of material – as has been the case for over a century – the kilogram is now based on a universal constant. While the new kilogram standard will impact industries involved in measuring very small or very large masses, it’s impact on flow measurement and instrumentation will be minimal. Read more
If you have a MultiFlo™ enabled device, such as the Brooks Instrument GF100 Series, GF40 Series, GF80 Series and Celerity/Unit brand mass flow controllers, you may need to test the device’s accuracy from time to time. No matter what process gas your device is running, thanks to the MultiFlo™ Configurator, you can confirm that the device is calibrated properly by using Nitrogen (N2) – one of the most commonly measured gases available. Lees verder
Today’s biopharmaceuticals are revolutionizing healthcare. Drugs used to treat complex cancers or chronic conditions such as rheumatoid arthritis are offering new hope for decades-old problems. Read more
The intelligent operation and advanced automation that defines today’s semiconductor market enables smarter decision making and provides more opportunities to enhance existing processes. The increased use of automation extends to the tools used in the semiconductor process, where communication between systems is key. Read more
Hot Melt Extrusion (HME) is a process originally developed for the plastic industry that has been adapted for use to prepare several types of dosage forms and drug delivery systems for pharmaceuticals. A key element of this process is to inject carbon dioxide (CO2) directly into the extrusion barrel.
Brooks Instrument, a world leader in precision fluid measurement and control technology, has added a new FOUNDATION™ Fieldbus transmitter to its popular MT3809 variable area (VA) flow meter, making it easier for users to integrate the unit into their automation control systems for more efficient data capture and digital communication across the plant enterprise.
The Vapor Delivery Module (VDM) from Brooks Instrument is a high-performance, self-contained module for the highly accurate delivery of ultra-high purity deionized (DI) water vapor. It features a power efficient design that enables low temperature, ultra-high purity vapor generation. It utilizes a proven vapor delivery technique and combines it with advanced digital control and integrated diagnostic features in a small, convenient package.
As biotechnology processes evolve, so too does demand for protocols capable of delivering rich data at high speeds. This new eBook by Brooks Instrument offers clear insight on digital communications devices, such as MFCs, equipped for maximum information density in your process system.
Building on the company’s proven GF Series of MFCs with EtherCAT connectivity for high-speed communications, the newly enhanced GF125 MFC features embedded self-diagnostics that automatically detect sensor drift and valve leak-by to help minimize tool downtime and improve process yield. As a result, the enhanced GF125 can run leak and drift self-diagnostics without interrupting process flow steps or requiring any hardware changes, thereby improving process gas accuracy and wafer production throughput.
Plasma etch and photoresist strip processes are crucial points in front-end-of-line (FEOL) semiconductor fabrication steps. These processes can leave behind unwanted polymer residues that are a by-product of aggressive chemistries used in these etch and strip steps.
An informative and educational blog specializing in pressure, temperature, level and flow instrumentation, control valves, process analyzers, and all other areas of process measurement. Courtesy of Miller Energy, a New Jersey, New York, and Eastern Pennsylvania process instrumentation value added Rep and Distributor. Read more [Source: blog.millerenergy.com]
Industries such as biotechnology count on accreditation to assure flow control calibration accuracy
Any instrument that measures and controls fluid flow needs to be calibrated—upon initial manufacture and then periodically recalibrated to ensure accurate measurement and control. Calibration of flow measurement and control equipment on high-precision metrology systems is essential for instrumentation manufacturers like Brooks Instrument. In fact, increased regulation in industries like biotechnology manufacturing put even greater demands on instrumentation manufacturers to document their known uncertainties through certifications.
Mass flow controllers (MFCs) precisely deliver fluids, mainly process gases, into bioreactors and other process systems used in biopharmaceutical production. The reliable, repeatable performance of these devices is affected by several factors — two of which can often be overlooked, by both OEMs and end users.
As an Applications Engineer at Brooks Instrument, I talk to a lot of customers and am frequently asked this question, “What is the straight run of pipe needed when installing a metal or glass variable area flow meter (rotameter)?”
Working with our distributor partner Cross Instrumentation, we have stocked several of our most in-demand variable area (VA) flow meters, ready for fast delivery to you. Check out www.brooksinstrument.com/quickship for more information and for online ordering!
In this two-part blog series, we first explored the architecture and performance characteristics of the EtherCAT® protocol. Now, we will examine how Brooks leverages the real-time data acquisition capabilities of EtherCAT® in the GF100 Series MFCs.
In this two-part blog series, we will first explore the architecture and performance characteristics of the EtherCAT® protocol. Then we will examine how Brooks leverages the real-time data acquisition capabilities of EtherCAT® in the GF100 Series MFCs.
Bioreactors come in a variety of shapes and sizes from small glass reactors for research applications to large stainless steel reactors for production. Measuring and controlling dissolved oxygen and pH is a critical part of the biotech process, and specifying the right process conditions when ordering the mass flow controllers is important for optimal process control.
For years, the 3620 Series metal tube variable area flow meter was the go-to meter for rugged applications of gas and liquids. As times changed, this meter was discontinued and although a drop-in replacement was not feasible, we did design an option to offer a device with the same fit, form and function of Models 3623-21, sizes 7-13.
When buying a mass flow controller, the accuracy specification that is published on the data sheet is important criteria to evaluate. In fact, accuracy is so important that you need to look beyond the published accuracy statement because the published accuracy does not necessarily represent the actual process gas accuracy that will be achieved.
In the past decade, the availability of mass flow controllers that incorporate multi-range and multi-gas programmability has redefined the flow control industry. This new white paper discusses the impact this new technology has had on how MFCs are engineered into different systems, and the way plants have modified their operations to take full advantage of multi-range and multi-gas programmability.
Mass Flow Controllers (MFCs) are used in many applications that require different certification requirements for materials that could come into contact with anything going into the end product. For gas control in bioreactors, gas is being controlled by MFCs in a gas box, in open frame systems, or mounted on a skid. Process gasses go through the MFC and into the bioreactor to control the cell growth and cannot be contaminated by the materials in the gas supply components.
We are going to take a look at the IP and NEMA ratings and what they mean. With this information you should be able to decide what minimum level of protection you need for your application.
Let’s start with the basics. What does IP and NEMA stand for? IP stands for ingress protection and NEMA stands for National Electrical Manufacturers Association. Both IP and NEMA are rating systems for equipment that might be exposed to liquids, rain, ice, corrosion and contaminates such as dust.
When specifying Brooks Instrument glass tube variable area (VA) flow meters like GT1000 and metal tube VA flow meters like MT3809, it’s important to understand the options available with valves to ensure the right configuration is ordered. In particular, Engineering, Procurement and Construction (EPC) contractors may not be aware of these options during the specification stage of a project and could inadvertently cause unnecessary delays.
A common application where accurate flow totalization is required is gas usage monitoring. In this application there is typically a single source of gas being shared by several different users or locations within a facility. To account for usage, or allocate costs properly, the facility needs to monitor the amount of gas consumed by each user.
LabVIEW™, a National Instruments software development tool, is widely used to create software applications that monitor and control a variety of sensors and control devices. It is very common to find a laboratory, university, or a pilot manufacturing plant using one of these applications to interface with mass flow devices. LabVIEW™ software can interface with a Brooks Instrument mass flow device through different forms of data acquisition. The most popular forms of data acquisition used with Brooks Instrument mass flow devices are described below.
Chlorine (CL2) is a member of the halogen elements group that is highly reactive and bonds easily with hydrogen to form HCL acid. HCL attacks stainless steel aggressively – literally passivating the surface of the stainless steel, and can render a thermal mass flow controller inoperative in a brief period of time. CL2 is used frequently in many applications from making PVC pipe and treating water to plasma etching a computer chip.
Control readers have great taste: Once again, they recognized the performance, accuracy and reliability of several Brooks products by awarding us top rankings in two categories (and third-place ranking in another) in the 2016 Control Magazine Readers’ Choice Awards.
One of the key factors typically considered when selecting a measurement device, such as a mass flow controller (MFC), is accuracy. Anyone who has researched Mass Flow Controller accuracy likely knows that there is a wide variety – both in how accuracy is stated and the device performance.
Merriam Webster defines sparging as: to agitate (a liquid) by means of compressed air or gas entering through a pipe. A simpler explanation is: sparging is the injection of a gas into a liquid. The method used to expose the gas to the liquid varies and these systems are called aerators, bubblers, carbonators, diffusors or injectors. The most recognizable example is the bubbler in a fish tank.
There are many reasons why this can occur, such as a change in mounting orientation, ambient temperature, or process pressure. While mass flow controllers (MFCs) from Brooks Instrument are known for stability and minimal long-term drift, the flow signal or process variable (PV) from an MFC may drift over time.
Mean Time Between Failure (MTBF) is a measure of the reliability of a hardware product, component or system. MTBF is largely based on assumptions and the definition of failure and attention to these details is important for proper interpretation. For complex, repairable systems, failures are considered to be those conditions which place the device or system out of service and into a state for repair.
When specifying flow, pressure, temperature or other wetted process control instrumentation there is a lot that needs to be considered. Flow rates, pressures, temperatures, I/O signals, material selection, etc. In addition to all of this the specifier needs to be concerned with safety, certifications, approvals, material integrity, weld integrity and of course quality. I am writing this to make you aware of an element of the material integrity that should be considered when selecting a device and/or instrumentation supplier – hydrogen embrittlement.
Brooks Instrument will be showcasing several products to help R&D and analytical lab scientists improve their productivity, such as the GF40/80 Series thermal mass flow controllers (MFCs) and flow meters; the newly enhanced SLA Series of smart MFCs; the Sho-Rate™ family of glass tube flow meters;pressure gauges; and a complete offering of reliable, accurate and cost-effective standard and custom acrylic flow meters.
Brooks Instrument has expanded its GF 40/80 Series portfolio of thermal mass flow controllers (MFCs) to enable a broader range of applications. The new GF81 MFC can be used for gas flow rates up to 300 slpm, making it ideal for high-flow applications in thin film, solar, analytical, biotech and fuel cell.
Brooks Instrument has expanded its commitment to the semiconductor industry with the introduction of four products and a new technology development center in Irvine, Calif. The new products include the GF135 advanced diagnostic mass flow controller (MFC) and three MFCs for high-flow applications. These MFCs, which expand Brooks’ GF100 Series product line for semiconductor processing applications, are all built on a common platform and interface, enabling an entire system to use one product platform.