Year: 2025

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What Is an Automatic Pipette & How Does It Work?

Decorative image of an automatic pipette system

When it comes to lab work, the handling of liquids is a process that needs to be done with maximum precision and safety at all times, whether you’re conducting routine tests or handling highly volatile compounds. Part of this handling is measurement and transfer. How do you make sure this is done with absolute precision? This is where the automatic pipette comes into play. It’s an indispensable tool that helps scientists immensely, streamlining workflow and mitigating human error.

In this blog, we’ll go over exactly what it is, how it works, and how your lab can benefit from its use.

What Is an Automatic Pipette?

Much more precise than a manual pipette, an auto pipette aspirates and dispenses highly precise amounts of liquid on a consistent basis, with minimal manual input required. Whereas a manual version relies on human dexterity, its automatic counterpart utilizes mechanical and electronic functions to maximize precision and speed on a consistent basis.

There are various types of automatic pipettes that are ideal choices for a variety of work types.

  • Single-Channel: Used to transport liquid one channel at a time. This is a common type, used in most general lab environments.
  • Multi-Channel: This allows for simultaneous dispensing through multiple channels, which is ideal for high-throughput tasks.
  • Electronic: These have various electronic functions that can be programmed by the user. Digital displayed and motorized dispensing allows for incredibly accurate control.

Key Components

When you understand the basic components of an automatic pipette, you can use and maintain it properly. Let’s go over the primary parts:

  • Plunger/Button Mechanism: This feature initiates aspiration and dispensing. Note that electronic models may have programmable buttons in place of a plunger.
  • Tip Ejector: A mechanism that allows the user to dispose of tips without touching them.
  • Digital Volume Display: Exclusive to electronic pipettes, this displays vital information such as target volume.
  • Disposable Pipette Tips: Vital for preventing cross-contamination. These should be disposed of after one use.

How Does an Automatic Pipette Work?

An auto pipette functions by utilizing air or positive-displacement mechanisms. If you’re operating one, here is the general process:

  • Adjust the volume dial, or input it on the digital display if you’re using an electronic pipette.
  • Place a sterile tip on the end of the pipette. This tip will be disposed of when you’re finished.
  • Press the plunger to the first stop, place the tip into the liquid, and release to draw the proper amount of liquid.
  • Place the tip into the opening of the target container and press the plunger. This will dispense the liquid.

Air displacement is one of two main operation mechanisms, using an air cushion that sits between the piston and the liquid. Positive displacement, on the other hand, sees the piston contact the liquid directly, which minimizes evaporation and improves performance with volatile and viscous liquids.

Benefits of Using Automatic Pipettes

There are various advantages to using an automatic pipette in your lab, such as:

  • Enhanced Accuracy and Repeatability: The possibility of human error and variability is kept to a minimum.
  • Improved Ergonomics: Less force is required, which mitigates strain on the hand and reduces injuries from repetitive stress.
  • Increased Efficiency: Automation greatly speeds up workflows, which leads to high productivity. This is especially useful in high-volume lab environments.

Lab Applications

There are several scientific disciplines that lend themselves to the use of an auto pipette. For example, it’s an invaluable tool in clinical diagnostics where patient samples and reagents need to be handled with the utmost care. In pharmaceutical research, dosing requires maximum precision, which can’t be achieved consistently through the use of a manual pipette. In the field of molecular biology and chemistry, there are various uses—a primary one being in PCR, ELISA, and titration, in which exact measurements are vital to the research.

Find the Perfect Automatic Pipette at BaneBio

The importance of the auto pipette in a laboratory cannot be understated. It’s a vital tool in many types of research and lab procedures, offering maximum precision and efficiency. Your researchers will save valuable time through their use, freeing them up to focus on tasks that require more manual processes.

If your laboratory doesn’t yet have these pipettes, we know the perfect place to get them. Get in touch with BaneBio and stock up on these vital tools!

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Do You Need a Horizontal or Vertical Laminar Flow Cabinet?

Scientist using a laminar flow cabinet

A laminar flow cabinet (or hood) is an essential addition to any laboratory that needs to prioritize contamination control. It helps maintain a sterile environment that serves various research endeavors—handling sensitive electronic components, conducting microbiological research, prepping pharmaceuticals, and more.

Not all of these cabinets are the same, though. Choosing between the two main configurations can have a significant impact on the efficiency, comfort, and safety of your work. So here’s the big question: Does your lab need a vertical laminar flow hood or a horizontal laminar flow hood? The answer depends on a few factors, which we’ll get into in this blog.

What Is a Laminar Flow Cabinet?

First off, let’s take a look at what this kind of cabinet is, as well as the purpose it serves. It’s essentially a workspace that’s designed to protect samples from contamination by using a constant flow of uninterrupted, filtered air. The air passes through a HEPA filter, sweeping away any airborne contaminants before they can reach vulnerable samples.

These cabinets are versatile in their applications, from electronics and optics manufacturing to medical labs and pharmaceutical compounding. These are all environments in which microscopic contaminants can post a risk to safety and results.

Vertical Laminar Flow Hood

Vertical cabinets draw air from above the unit, pushing it downward through the HEPA filter and creating a vertical flow of air across the work surface.

Benefits include:

  • Enhanced safety for powders or aerosols: Because of the downward direction of the air, particles are generally being pushed away from the user’s face, thus offering more protection when working with airborne materials.
  • Compact design: Counter space needs to be optimized in a lab environment, allowing enough space for equipment to sit and research to take place. A vertical hood helps you make good use of space when you only have so much to work with.

Common applications include:

  • Pharmaceutical compounding
  • Cell culture and microbiology labs
  • Environments that deal with hazardous airborne particles

Horizontal Laminar Flow Hood

Rather than moving air downward, a horizontal laminar flow cabinet pulls it through a HEPA filter situated at the back of the unit. It then pushes the air horizontally across the work surface in the direction of the user.

Benefits include:

  • Reduced turbulence on work surfaces: Thanks to the airflow being smoother and overall more consistent, delicate or static-sensitive components are more protected in a horizontal laminar flow cabinet.
  • Improved user comfort: Because the air is flowing away from the user’s face, horizontal cabinets are ideal for longer work sessions thanks to increased comfort.

Common applications include:

  • Medical device assembly
  • Handling of electronic and optical equipment
  • Laboratory environments that require gentle, uniform airflow

Key Factors to Consider When Choosing

If you’re having trouble choosing between a horizontal and vertical cabinet, there are some key considerations that should make the decision a bit easier.

  • The nature of your work: Are you frequently dealing with biohazards, sterile preparations, or volatile substances? If so, consider this: Vertical cabinets are ideal for hazardous or powder-based materials, while cleaner, more-sensitive operations will go more smoothly with a horizontal hood.
  • Space and layout: If your lab has limited space, a laminar flow cabinet that stands vertically is likely the better option.
  • User comfort and workflow: If you’re looking for a more ergonomic user experience—especially when working for long periods of time—a horizontal cabinet is your best bet.
  • Regulatory compliance: Make sure the unit you choose aligns with industry standards and guidelines. As an example: USP <797> and <800> for sterile compounding.

Which Laminar Flow Cabinet is Right for You?

When it comes down to it, the best laminar flow cabinet depends on the applications you wish to use it for, your comfort preferences, and workspace constraints. If you want to prioritize safer handling of powders and biohazards, as well as space efficiency, a vertical cabinet is ideal. On the other hand, if you’re working with clean, non-hazardous materials that demand smooth airflow and ergonomic setups, a horizontal cabinet is likely the better choice.

Make Your Choice

Choosing the right laminar flow cabinet for your needs is more than a simple technical decision—it’s about safety, productivity, and compliance. All of these things are contributing factors in your laboratory’s success, so it’s important to weigh your options carefully. By understanding the differences between vertical and horizontal cabinets, your decision will be more informed and you can set yourself up for success.

If you still need some help making your selection—or if you’re ready to pull the trigger on a purchase—the team at BaneBio is ready to help you in the process. Get in touch with us today!

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How to Choose the Right Lab Freezer for Your Research Needs

large laboratory with a lab freezer

When it comes to scientific research, your results depend largely on the integrity of your samples. They need to be properly maintained to achieve accurate, reliable results. One of the best ways to do this is by using a thermo scientific freezer—also known as a lab freezer. It plays a crucial role in keeping pharmaceutical, chemical, and biological materials viable, so selecting the proper model plays a significant role in your success. With an understanding of the factors at play—storage needs, temperature range, energy requirements, and product features, you can make a sound decision. Here’s what you should take into consideration when shopping for laboratory freezers.

Understand Your Storage Requirements

Don’t even start browsing until you have a grasp on all the types of samples you’ll need to store. Let’s take a glance at the three primary types of samples you’ll probably be storing and what they’ll require.

  • Biological Samples: These encompass bacteria, plasma, DNA and RNA, and require ultra-low temperatures—equal to or lower than -80ºC (-112ºF).
  • Chemical Samples: Since many chemicals have combustible properties, they may require a thermo scientific freezer that offers protection against fires and explosions.
  • Pharmaceuticals: These require specific temperatures to maintain their efficacy, so look for a freezer that prioritizes temperature precision.

Speaking of temperatures, let’s discuss the different degree ranges offered by laboratory freezers:

  • Standard: These generally operate at around -20ºC (-4ºF) and are a good option for storing general samples.
  • Ultra-Low Temperature: Able to maintain temperatures ranging from -80ºC to -86ºC (or -112ºF to -122.8ºF), these freezers are important for storing sensitive biological samples for long periods of time.
  • Cryogenic: These are required for storing highly sensitive applications such as materials for stem cell research, as they operate at temperatures below -150ºC (-238ºF). 

Consider the Freezer Type

There are different benefits offered by different types of freezers, so it’s important to take this factor into consideration when trying to choose the right model. Let’s take a look:

  • Upright Freezers: These provide easy access to samples, as well as shelving options that help with organization. Be aware, however, that temperature fluctuations are common because of the frequency of door openings.
  • Chest Freezers: These provide more stable temperatures, good energy-efficiency ratings, and higher storage capacity, but have considerably more bulk; it can also be difficult to access samples that are near the bottom.
  • Ultra-Low Temperature Freezers: These laboratory freezers are ideal for storing biological specimens for long periods of time, but be prepared to perform relatively frequent maintenance to maintain optimal performance.
  • Explosion-Proof and Flammable Storage Freezers: This is necessary if your laboratory is handling volatile chemicals, as a lack of sufficient storage for such chemicals is a serious safety risk. 

Evaluate Capacity and Space Constraints

Realizing you don’t have anywhere to put all your samples can bring your research momentum to a screeching halt, so it’s in your best interest to find a lab freezer that has plenty of storage capacity. Take stock of your inventory levels and plan your purchase accordingly. You’ll likely need no more than 10 cubic feet of storage for limited samples, but high-volume research will necessitate storage of over 25 cubic feet.

There’s more to consider than capacity alone, however. A unit with adjustable compartments and shelves will provide versatility and organization options. And finally, make sure your chosen lab freezer will fit in the space you’ve designated for it.

Energy Efficiency and Operational Costs

Your laboratory uses a lot of power, so it’s important to do what you can to minimize that usage—especially if your laboratory is operating with multiple freezers. While shopping around, be on the lookout for freezers with good ENERGY STAR® ratings. These models offer energy-saving features that can reduce your long-term costs.

It’s important to note that a high energy rating doesn’t necessarily mean the unit will function properly. That’s why combining this rating with other research on performance is key to choosing a model that will truly serve your needs while keeping costs low.

Features and Technology to Look For

These days, almost every lab freezer has a combination of features that enhance usability and security. It’s up to you to choose one that offers the features important to your research.

  • Digital Temperature Controls: These controls give you the ability to ensure precise temperature settings and minimize fluctuations.
  • Alarm Systems: If something is malfunctioning, the issue needs to be resolved as quickly as possible. Alarm systems will alert you the moment an issue or anomaly is detected so you can respond accordingly.
  • Backup Power Options: Prolonged lack of power can ruin every sample within a freezer, so backup functionality is crucial for keeping these samples viable if there’s a power outage.
  • Smart Connectivity and Cloud-Based Monitoring: Reliability is increased thanks to remote access and real-time monitoring capabilities.

Maintenance and Longevity

If you want to maximize the lifespan of your thermo scientific freezer and enjoy ideal performance, maintenance is a necessity. Make sure you’re operating on a regular cleaning schedule to maximize airflow and prevent ice buildup. Additionally, keep an eye on your freezer’s temperature readings and make any necessary setting tweaks. For the more involved repairs that may become necessary, for a variety of reasons, it’s recommended that you invest in a professional maintenance agreement. This will save you money on repairs when they’re needed and reduce equipment downtime, so your research isn’t disrupted and your samples aren’t ruined. 

Choose the Lab Freezer That Fits Your Needs

There are several considerations to make when choosing a lab freezer—features, maintenance needs, temperature requirements, capacity, and more. When you evaluate all these factors, you’ll have a better understanding of what kind of unit is best suited for your lab and research. If you’re looking for a place that offers numerous options, you’re already there. Our offerings of laboratory equipment are unmatched. Get in touch and equip your lab with everything you need!

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A Complete Guide to Biosafety Cabinet Types, Uses, and Maintenance

lab worker using a biosafety cabinet

Biological Safety Cabinets—or BSCs—are unsung heroes of the laboratory. They’re not as exciting as microscopes or centrifuges, but they’re vital components of scientific safety, nonetheless. They play a role in protecting not only laboratory personnel, but also the samples within the lab and the environment overall. But as with any other equipment type, not every biosafety cabinet is created equal; there are types, applications, maintenance practices, and more to take into consideration. In this blog, we want to take a look at all the options so you might be better informed when it’s time to purchase one for your own lab.

Biosafety Cabinet Types

Class I Biological Safety Cabinet

These provide environmental and personnel protection, but be warned that they don’t safeguard their actual contents. The primary role of a Class 1 cabinet is to prevent exposure to hazardous aerosols.

Some common applications include handling of biological materials that post low or moderate risk, procedures that include aerosol-generating processes, and the protection of lab employees working with non-sterile substances.

Class II Biological Safety Cabinet

This is where you’ll find the most variety. A combination of HEPA filtrations and controlled airflow results in the protection of people, the environment, and the product.

  • Class II, Type A1: 70% of the air within these cabinets is recirculated, making it suitable for low-risk operations.
  • Class II, Type A2: This is similar to A1, the main difference being greater inward air velocity. As a result, it’s much more suitable for handling hazardous agents.
  • Class II, Type B1: Type B1 expels 60% of its air, making it a good choice for any work that involves biological hazards and other volatile chemicals.
  • Class II, Type B2: This is a fully exhausted system that doesn’t allow any recirculation. It’s highly recommended when dealing with high-risk pathogens and toxic chemicals.

Regardless of subtype, a class II biological safety cabinet is an essential part of microbiology and pharmaceutical labs. It allows for the safe manipulation of infectious agents, cell-culture research, viral studies, and the preparation of sterile products.

Class III Biological Safety Cabinet

If you’re looking for the highest possible level of containment, you should be prioritizing class III cabinets. They operate as fully enclosed units with glove ports, and are meant for handling the most hazardous biological materials—including Biosafety Level 4 (BSL-4) pathogens.

Typically, class III cabinets are found serving the following industries and areas of research:

  • High-containment labs and bioweapons research
  • Highly infectious virus studies, such as research into Ebola
  • The development of vaccines and biopharmaceutical manufacturing

Common Biological Safety Cabinet Uses

To say these cabinets are important to several fields of research may be an understatement. In many cases, proper research can’t be conducted without them. Their common applications are plenty, but here are the primary uses:

  • Infectious agent containment in microbiology and virology
  • Drug formulation within the biotechnology and pharmaceutical industries
  • Diagnostic procedures in clinical and hospital laboratories
  • COVID-19 testing and research

Maintenance and Best Practices

With so many substances being handled within these cabinets, a bit of maintenance is to be expected. Here’s a short rundown of the bases you should be covering.

Regular Cleaning and Decontamination

Make sure you’re cleaning every surface with the appropriate disinfectants, such as 70% ethanol and bleach solutions. Do this before and after use. When cleaning is complete, autoclave or safely dispose of any contaminated waste materials.

Importance of Annual Certification

To ensure that your biosafety cabinet meets all industry standards (and functions properly), an annual certification is necessary. The tests involved in this certification include airflow validations, containment efficiency, and HEPA filter integrity checks.

Proper Airflow Management

When choosing a spot for your cabinet, ensure you allow plenty of space near the airflow grills to maintain circulation. In addition, train all personnel to follow proper hand and arm movement techniques to prevent turbulence.

Common Troubleshooting Tips

If you’re experiencing issues with your biosafety cabinet, here are some troubleshooting tips we suggest:

  • Low Airflow Alarms: Ensure no filters are clogged and inspect the blower motor.
  • HEPA Filter Saturation: Stick to a timely schedule of filter replacements for optimal airflow. Manufacturer guidelines should detail how frequently filters need to be changed.
  • Inconsistent Air Velocity: Minimize external airflow disturbances (like HVAC changes).

Choosing the Right Biosafety Cabinet for Your Needs

Before you make a final decision on which cabinet to purchase, you should carefully consider your research needs.

  • Work Type: Do you require protection for your people, the environment, your product, or a combination of the three?
  • Containment Level: It’s vital to get a biological safety cabinet that can handle the biosafety level (BSL-1 to BSL-4) of the substances you’ll be working with.
  • Lab Space and Configuration: Make sure you have enough space in your laboratory for the cabinet to have a permanent placement.
  • Regulatory Compliance: Make sure you adhere to standards set by OSHA, CDC, and NSF.

A Laboratory Necessity

The biosafety cabinet is an essential tool for any laboratory researching hazardous biological agents. By familiarizing yourself with different cabinet types, biosafety levels, and maintenance requirements, you can make an informed purchase for your lab’s needs. Whether you’re in the market for biosafety cabinets or you have some you need to sell, get in touch with us at BaneBio—the Scientific Supermarket.

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Understanding Lab Closures: A Comprehensive Lab Logistics Guide

empty laboratory filled with equipment in need of lab logistics

Lab logistics are a critical component in the process of closing a lab. Without them, there’s no plan, communication, or organization. And most importantly, you run the risk of unsafe, uncompliant shutdown procedures. A well-planned closure can do wonders for your lab closure process by minimizing risk, protecting the environment, and preserving valuable resources. Do you want to navigate the lab-closure process efficiently and effectively through professional lab logistics solutions? Want to know what to do with all your used lab equipment? First, you need an understanding of everything involved. On top of that, services from the team at BaneBio can go a long way towards a smooth closure. This blog covers everything you need to know!

What’s Involved in a Lab Closure?

There are so many moving parts involved in closing a lab, doing it yourself is likely an insurmountable task. That’s why you want someone like BaneBio at your back, utilizing years of experience and refined lab logistics processes to ensure success. The process we follow is intricate, and is most effective when our customers understand it. So without delay, we’re going to get into the sequence of events that make for a seamless closure.

Planning

Before any equipment is even touched, we take stock of your lab—the equipment you have, the types of substances you work with, and the size of your lab—and come up with an action plan. How will the equipment be disposed of? What codes need to be followed to remain in compliance? What needs to be done with your lease if one exists?

Lab Equipment

Taking care of lab equipment is a large part of the lab closure process. Once we finish inventorying it, we assess its condition. If it doesn’t meet our standards, arrangements will be made to dispose of it in a safe, compliant manner. However, this is a last resort, as we want to avoid producing unnecessary waste. In many cases, equipment in a lab that’s closing is still in full working condition. If it doesn’t quite hit the mark, it gets refurbished. At this point, there are a few options available to you.

  • Sell to BaneBio: We’re happy to buy used lab equipment you no longer need so it can continue to be used in other scientific efforts elsewhere. We will create a purchase proposal and work with you to come to an agreement. Our offer factors in things like the current value of the equipment in the used market, trends in equipment, and our own observations on pieces of equipment and their demand.
  • Give it to Other Labs: There are likely many labs that could make use of the equipment you’re getting rid of. We’ll search for potential takers in the area and arrange the transportation of lab equipment, as well as any other logistics.
  • Donate: Another option is to donate the laboratory equipment to a nearby institution such as a school or museum. 

Lab Space

Once the lab equipment itself is taken care of, there is still plenty to be done to decommission the space. For starters, strict cleaning procedures must be followed. The space has an uncertain future use at this point, and because of this, we need to make sure we don’t leave behind toxic residue of any kind. Every room gets thorough, top-to-bottom sanitization treatment.

The majority of closing labs are on lease, and thus, the owner of the property needs to be involved in the process. It’s up to them to let us know (and make sure we follow) their guidelines for getting the space rent ready, so it’s important that we maintain communication until the job is done.

Key Considerations for Lab Logistics

It doesn’t matter how large or small your lab is. The process of a lab closure has some key considerations that should be at the forefront of your mind when planning. For one, the handling and disposal of hazardous materials should be handled with care in order to comply with environmental regulations. Failure to comply not only puts personnel at risk, but it could result in various legal issues.

New and used lab equipment decontamination—as well as its removal—should be carried out by following industry best practices so as to avoid residual hazards. While compliance is vital, its documentation is equally important in case it needs to be referenced for any reason in the future. Developing a timeline and budget plan can go a long way towards a successful, compliant, and safe decommissioning.

Common Challenges and How to Overcome Them

A lab closure is no small task. Because of this, there are a number of challenges that could rear their ugly heads if you don’t plan properly. Communication can alleviate these risks. Work closely with both your legal and safety teams in order to properly manage people and resources.

There are also concerns around environmental safety to consider. Perform a thorough risk assessment that involves multiple stakeholders, with mitigation strategies and emergency plans in place. Also important in this process is public perception, so it’s important to be publicly transparent. This will go a long way towards gaining trust with all stakeholders.

BaneBio’s Lab Logistics Services Are Here to Help

A lot goes into a lab closure. There are safety, environmental, and operational factors to take into consideration, so it’s important to have a solid plan. While the researchers in a lab are operating in a highly specialized field, they often lack the qualifications or and time to properly close the lab when the time comes. What’s more, our lab logistics services follow your timeline, not the other way around! If you want to cover all your bases, get in touch with us and we’ll provide a smooth decommissioning process.

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How to Choose a Flammable Storage Refrigerator

scientists working with hazardous materials that need flammable storage solutions

Throughout the ages, fire has been both friend and foe to humankind. We need it, and we want it around, but only at specific times and in specific places. The laboratory is one of those places where there’s probably more chance of the unwanted variety than most, given that so much of the work there is done with flammable materials. But unwanted fire isn’t just a concern for laboratories. In medical facilities and industrial settings, the safe storage of flammable materials is equally crucial to preventing accidents and ensuring the well-being of employees. Flammable storage refrigerators are specifically engineered to safely store volatile substances, maintaining controlled environments that minimize risks. In today’s blog, we’ll explore in-depth how to go about choosing the right kind of storage refrigerator for your particular needs.

Key Considerations

Compliance With Regulations

The first step in selecting a refrigerator like this is ensuring compliance with relevant safety regulations. The Occupational Safety and Health Administration (OSHA) and the National Fire Protection Association (NFPA) have set forth guidelines that govern the storage of flammable materials. OSHA requires that flammable liquids be stored in approved containers and cabinets. NFPA provides specific classifications for the storage of flammable liquids, including recommendations on the type of refrigeration unit to use. Understanding these regulations will go a long way toward keeping your facility compliant and keeping potential hazards at bay.

Storage Capacity

Before purchasing a flammable storage refrigerator, assess the volume of flammable materials you need to store. This requires a thorough inventory of your current stock, as well as your best estimate of future needs. Choosing the right size is crucial; a unit that’s too small may be overcrowded, while a unit that’s too big may lead to excessive energy costs. Do your best to find a refrigerator that accommodates your current inventory with room for growth.

Temperature Control

Consistent and reliable temperature control is vital in a storage refrigerator. Flammable materials often require specific temperature ranges to maintain their integrity and prevent dangerous reactions. As such, look for refrigerators that offer precise temperature settings and stable performance, ensuring that your materials are stored safely. Additionally, consider models with built-in temperature alarms that notify you of any fluctuations outside of acceptable ranges.

Explosion-Proof Features

A good flammable storage refrigerator is also an explosion proof refrigerator. This means it will have a spark-free interior and sealed electrical components, to reduce the risk of ignition of whatever flammable material you’re storing inside of it. When selecting a flammable storage refrigerator, then, make sure it’s also an explosion proof refrigerator—meeting the necessary explosion-proof standards to protect against hazards associated with volatile materials.

Durability & Material

Durability is another critical factor in choosing a flammable storage refrigerator. Look for models constructed from sturdy materials that can withstand harsh environments. Corrosion-resistant materials are essential, especially in settings where spills may occur or humidity levels are high. A durable refrigerator will enhance safety and extend the lifespan of your unit.

Additional Features to Look For

When evaluating flammable storage refrigerators, consider additional features that enhance usability and safety:

  • Adjustable Shelving
    Flexible shelving options allow you to customize the interior space to fit different container sizes, maximizing storage efficiency and making the most of your investment.
  • Lockable Doors
    Security is paramount when storing hazardous materials. Lockable doors help prevent unauthorized access, protecting your inventory and potentially even your facility.
  • Alarms and Monitoring Systems
    Advanced refrigerators may include alarm systems that alert you to temperature fluctuations or door openings, providing an added layer of security and peace of mind.

Common Pitfalls to Avoid

When choosing a flammable storage refrigerator, be aware of common mistakes that can lead to safety hazards:

  • Using Standard Refrigerators for Flammable Materials
    A big no-no. Standard refrigerators are not designed to handle the risks associated with flammable materials. Always use a specialized refrigerator for this highly specialized job.
  • Ignoring Certification Labels and Testing
    Due your due diligence. Always check for certification labels that confirm compliance with safety standards. Units that are not certified may pose significant risks.

Keep Fire Where It Belongs: Elsewhere

No matter where it pops up, unwanted fire is, well, unwanted. You can’t keep the world safe, but you can keep your laboratory, medical facility, or industrial space safe. Choosing the right flammable storage refrigerator is crucial for maintaining a safe environment when volatile materials are involved. By considering factors such as regulatory compliance, storage capacity, temperature control, explosion-proof features, and durability, you can make an informed decision that protects your employees and your assets. For tailored advice, make sure you work with suppliers who specialize in such storage solutions. At BaneBio, we’re always ready to provide insights and recommendations to ensure you select the best refrigerator for your needs.

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Exploring the Different Types of Scientists

decorative image showing 3 scientists performing research

In 1953, James Watson and Francis Crick made a discovery that changed the world forever—the structure of DNA, the genetic code that underpins all life. This discovery, often hailed as one of the most important in biology, was made not by just one scientist but by a team of different types of scientists, all from various scientific disciplines. Watson was a biologist, Crick a physicist. Both relied on the X-ray crystallography data provided by Rosalind Franklin, a chemist, to unlock the double-helix structure of DNA. 

This collaboration between biologists, chemists, and physicists highlights not just the incredible diversity within the scientific community, but how each specialization brings its own unique skillset to the task of solving complex problems. Scientists, in their many forms, are constantly working to unravel the mysteries of the universe, each contributing to the larger tapestry of human knowledge. In this blog, we’ll explore the different types of scientists and how each plays a role in advancing our understanding of the world.

The Importance of Scientists: Diversity of Scientific Fields

“Science” is a single word that covers an absurdly large number of distinct specialties. From studying the infinitesimally small world of atoms and molecules to exploring the vast reaches of space, scientists work across a wide spectrum of professional disciplines. Their expertise helps us understand everything from how our bodies function to how the universe operates. While each discipline has its own focus, all scientists share a common goal: to answer questions, solve problems, and improve our understanding of the world. 

What Defines a Scientist?

Simply put, a scientist is someone who seeks to understand the natural world through observation, experimentation, and analysis. Scientists use the scientific method to form hypotheses, conduct experiments, and analyze data in order to draw conclusions that expand human knowledge. Scientific inquiry is constantly evolving, which leads to the emergence of specialized fields. As our understanding of the world deepens, scientists focus on increasingly specific areas of study. This specialization is essential for addressing the complexity of the universe and solving highly specialized problems.

The Different Types of Scientists

Biologists: Studying Living Organisms and Their Environments
Biologists seek to understand life in all its forms, studying everything from individual cells to complex ecosystems. Their work is foundational in fields like medicine, agriculture, and environmental science. Biologists may specialize in areas such as genetics, ecology, or evolutionary biology, each contributing vital insights into the processes that sustain life.

Chemists: Exploring Substances at the Molecular and Atomic Levels
Chemists focus on the composition, properties, and reactions of substances. They examine how different chemicals interact, how new substances are formed, and how these processes can be harnessed for practical applications. Chemists are critical to fields like drug development, materials science, and environmental protection.

Physicists: Investigating the Laws of Nature, from Particles to Pulsars
Physicists delve into the fundamental forces of the universe. From understanding the behavior of subatomic particles to studying the laws of motion, gravity, and spacetime, physicists work to explain the underlying principles that govern everything from gluons to galaxies. Their work can lead directly to new technologies, such as lasers or computers.

Astronomers: Focusing on Celestial Phenomena and the Universe
Astronomers study stars, planets, and other objects in the firmament. Using telescopes and other instruments, they investigate the nature of the universe, the lifecycle of stars, and the potential for life on other planets. Their work not only expands our understanding of the cosmos but also informs space exploration and the development of technology.

Geologists: Examining Earth’s Physical Structure, Processes, and History
Geologists study the composition, structure, and the processes that shape Earth’s surface. By understanding how our planet has evolved, geologists help us predict natural disasters, explore for natural resources, and understand climate change. Their research also plays a role in preserving biodiversity and ensuring sustainable land use.

Specialized Types of Scientists

Marine Biologists: Diving Into the Mysteries of Ocean Life
Marine biologists study organisms living in the world’s oceans. They research everything from plankton to whales, exploring how these creatures interact with their environment and each other. Marine biology is crucial for understanding ocean ecosystems, preserving marine biodiversity, and addressing challenges such as climate change.

Forensic Scientists: Solving Crimes Through Scientific Analysis
Forensic scientists apply scientific methods to criminal investigations. By analyzing physical evidence such as DNA, fingerprints, and blood spatter, they help solve crimes and bring criminals to justice. Forensic scientists often work in law enforcement, applying their expertise in chemistry, biology, and toxicology to identify culprits.

Environmental Scientists: Working to Combat Climate Change and Pollution
Environmental scientists study how human activity impacts the planet’s ecosystems and work to develop solutions for mitigating environmental damage. Their research includes monitoring pollution levels, studying biodiversity, and finding ways to reduce human impact on the environment. 

Medical Scientists: Developing Treatments and Medical Advancements
Medical scientists focus on understanding diseases and finding ways to treat or prevent them. They conduct clinical research, develop vaccines, and test new medications. During the COVID-19 pandemic, for example, virologists, immunologists, and biochemists worked together to develop vaccines that helped bring the virus under control. 

Why Understanding the Different Types of Scientists Matters

Science is rarely a solitary pursuit. Many of the most significant achievements come from collaboration between scientists from different disciplines. For example, the development of the COVID-19 vaccine involved virologists who studied the virus, immunologists who developed vaccines, and biochemists who synthesized the vaccine components. Finally, data scientists analyzed vast amounts of information to ensure the vaccine’s efficacy.

This interdisciplinary approach is not just limited to health-related fields. Projects like space exploration, climate change research, and the development of clean energy technologies require the input of physicists, chemists, engineers, and environmental scientists working together. Understanding the various types of scientists and their specialized knowledge allows us to see the interconnected nature of scientific progress.

How to Become a Scientist

If you’re a high school or college student interested in becoming a scientist, the path depends on the field that interests you the most. Generally speaking, aspiring scientists begin with a strong foundation in mathematics and science, earning a bachelor’s degree in fields such as biology, chemistry, physics, or engineering. Afterward, they can pursue a graduate degree (master’s or Ph.D.) in their chosen specialty. 

Along the way, they’ll engage in research, internships, and hands-on experiences to build your expertise. Many fields, such as medicine and environmental science, also offer opportunities for additional training and certification. Scientists have the opportunity to work in academia, government, industry, or private research organizations. Some may even choose to start their own research firms or work as consultants.

It Takes a Village

From the biologists who explore the complexities of life to the physicists who explore the complexities of the universe, scientists are essential to advancing our knowledge and improving our world. Whether solving global challenges or unraveling the mysteries of the cosmos, scientists’ contributions are indispensable to the progress of society. By understanding the different types of scientists and their areas of expertise, we gain a deeper appreciation for the collaborative and ever-evolving nature of scientific discovery.