Tag: Sustainability

Emerging Trends in Environmental Testing

In recent years, environmental testing has undergone a remarkable transformation as the world faces mounting challenges related to pollution, climate change, and public health. Laboratories are tasked with identifying a growing list of contaminants, many of which were previously undetected or unregulated. Among these, per- and poly-fluoroalkyl substances (PFAS), often referred to as “forever chemicals,” have emerged as a significant concern due to their persistence in the environment and potential health impacts.

There are important key trends shaping the future of environmental testing. We will share some of the technologies and techniques that enable labs to meet evolving demands.

 

The growing importance of Environmental Testing

Environmental testing plays a crucial role in monitoring and safeguarding the health of ecosystems and communities. As scientific understanding of contaminants deepens, regulatory frameworks worldwide are becoming more stringent. Laboratories must now detect pollutants at trace levels, often within highly complex matrices like soil, water, and air.

Key drivers for innovation in environmental testing include:

  • Emerging Contaminants: Substances like PFAS, pharmaceuticals, and microplastics are increasingly being scrutinised due to their widespread presence and potential risks.
  • Tighter Regulations: Agencies such as the European Chemicals Agency (ECHA) and the United States Environmental Protection Agency (EPA) are implementing stricter standards for environmental monitoring.
  • Technological Advancements: Innovations in analytical instrumentation are enhancing sensitivity, accuracy, and throughput, enabling faster and more comprehensive testing.

 

PFAS: A persistent challenge

One of the most pressing issues in environmental testing today is the detection and analysis of PFAS. These synthetic chemicals are widely used in industrial applications and consumer products, including non-stick cookware, waterproof fabrics, and firefighting foams. However, their resistance to degradation has led to significant contamination of water supplies, soil, and even the human body.

PFAS are linked to a range of health concerns, including hormonal disruptions, immune system effects, and an increased risk of certain cancers. Regulatory bodies worldwide are responding by establishing lower thresholds for PFAS detection in drinking water and the environment.

Detecting PFAS poses unique challenges due to their chemical stability and low concentration levels. Advanced techniques such as liquid chromatography-tandem mass spectrometry (LC-MS/MS) have become essential for their accurate identification and quantification. This technology offers the sensitivity and specificity needed to meet regulatory requirements and protect public health.

📚 Download the Analysis of PFAS and Other Environmental Contaminants in Soil and Oat Plants Using High-Resolution GC/MS poster that showcases various methods for extracting and analysing PFAS and other pollutants from soil and oat plants using the GC/Q-TOF system: https://chemetrix.co.za/wp-content/uploads/2024/12/po-7250-pcdl-pfas-asms-2024-tp073-en-agilent.pdf

 

Emerging Trends in Environmental Testing

Focus on emerging contaminants

Beyond PFAS, other contaminants such as microplastics, pharmaceuticals, and endocrine-disrupting compounds are gaining attention. These pollutants often originate from industrial discharges, agricultural runoff, and consumer waste, making their detection critical for environmental protection.

Analytical techniques like gas chromatography-mass spectrometry (GC-MS) and LC-MS/MS are increasingly used to identify these substances. Their ability to detect compounds at ultra-trace levels is driving innovation in environmental monitoring.

Increased adoption of High-Resolution Mass Spectrometry (HRMS)

High-resolution mass spectrometry is revolutionising environmental analysis by enabling the detection of unknown and emerging contaminants. Its ability to perform non-targeted analysis allows laboratories to identify previously uncharacterised compounds, paving the way for proactive environmental management.

Automation and digitalisation

Laboratories are embracing automation to enhance efficiency and reduce human error. Automated sample preparation systems and robotic workflows streamline processes, allowing labs to handle higher volumes of samples without compromising quality.

Digitalisation also plays a pivotal role, with data analytics and cloud-based platforms enabling real-time monitoring, sharing of results, and improved traceability. These advancements are critical as labs face increasing demands for transparency and accountability.

Focus on sustainability

Environmental testing laboratories are prioritising sustainable practices by minimising waste, reducing energy consumption, and adopting green chemistry techniques. Instrument manufacturers are responding by developing energy-efficient systems and methods that use fewer reagents and solvents.

📚 Download the Automated System for the Routine Cleanup of Environmental Samples Prior to Instrument Analysis poster to discover the automated system for routine clean-up of samples prior to analysis that is used by this organisation: https://chemetrix.co.za/wp-content/uploads/2024/12/Poster_gpc_enviro_A4_0107.pdf

 

How Chemetrix Supports Environmental Testing

Chemetrix is at the forefront of providing advanced solutions to address the challenges of modern environmental testing. With a comprehensive portfolio of analytical instruments and expertise in environmental analysis, Chemetrix empowers laboratories to stay ahead of emerging trends.

Advanced analytical tools

Chemetrix offers cutting-edge technologies such as LC-MS/MS and ICP-MS, which are essential for detecting trace contaminants like PFAS, heavy metals, and microplastics. These instruments deliver the sensitivity and precision required to meet stringent regulatory standards.

Agilent 7900 ICP-MS
Agilent 6475 LC/MSMS

Expert support and training

From instrument installation to ongoing maintenance, Chemetrix provides unparalleled support to ensure laboratories maximise the performance of their equipment. Comprehensive training support helps lab personnel stay updated on the latest methodologies and best practices.

Customised solutions

Recognising that each laboratory has unique needs, Chemetrix works closely with clients to develop tailored workflows. This approach ensures that labs can optimise their operations while meeting the specific demands of their applications.

Commitment to sustainability

Chemetrix is committed to promoting sustainable practices in environmental testing. By offering energy-efficient instruments and supporting the adoption of green chemistry, Chemetrix helps laboratories reduce their environmental footprint while maintaining high standards of analysis.

 

A Future-focused approach

As environmental challenges continue to evolve, so too must the methods and technologies used to address them. Emerging contaminants like PFAS underscore the need for innovative approaches to environmental testing, while trends such as automation and sustainability highlight the broader shifts shaping the industry.

📚 Watch The PFAS Lab of the Future webinar to discuss how the PFAS Lab of the Future leverages automated sample collection & preparation strategies to reduce labour and drive productivity >

For laboratories, staying ahead of these changes requires a combination of advanced technology, skilled personnel, and strategic partnerships. With Chemetrix as a trusted partner, labs can confidently navigate the complexities of modern environmental testing, ensuring they remain equipped to protect ecosystems and public health.

 

Why Labs Are Looking to More Environmentally Responsible Instruments

Laboratories, often associated with high energy consumption and waste production, are under pressure to adopt more sustainable practices. As the world increasingly focuses on sustainability, the scientific community has a significant role to play. It’s not only about the research to help guide the world on how to be more environmentally conscious, it’s also about labs themselves being more environmentally responsible and setting the example.

Agilent Technologies, a leader in life sciences and diagnostics, has been at the forefront of the movement in the scientific community. Recently, Agilent won two sustainability awards, underscoring their commitment to environmentally friendly lab instruments. This recognition raises an important question:

Why are sustainable lab instruments important, and how can we verify their environmental friendliness?

 

How sustainable is your lab

It’s no surprise that high energy consumption, extensive use of water and chemicals, and generation of hazardous waste gives labs a significant environmental impact. Labs can consume three to ten times more energy than office buildings due to the operation of energy-intensive equipment and the need for stringent climate control. This substantial environmental footprint underscores the importance of adopting sustainable practices and technologies to mitigate these impacts and promote a more eco-friendly approach to scientific research.

There are regulatory compliance, legislative and business operation reasons why labs are trying to change their environmental impact. A sustainable lab can reduce its operating costs and optimise its resources. Demonstrating a commitment to sustainability can enhance a lab’s reputation and fulfil corporate social responsibility (CSR) goals. Finally, sustainable practices often involve the use of safer materials and chemicals, reducing potential health risks for lab personnel.

Look at your lab’s instruments

One area of lab operations that needs focus for sustainability is the analytical instruments. Environmentally conscious product design is a central feature of Agilent’s business. Their instruments are engineered to improve sustainability in a holistic way — from product design and manufacturing to usage and disposal.

At the 2023 Sustainability Scientists’ Choice awards, Agilent won Sustainable Supplier of the Year and Sustainable Product of the Year. The Agilent Cary 3500 Flexible UV-Vis Spectrophotometer also received the award for Sustainable Product of the Year in the reducing consumables and reagents category. The Cary 3500 Flexible UV-Vis is a double-beam spectrophotometer with superior photometric performance. This instrument is also ACT label accredited, demonstrating a commitment to environmentally responsible practices and adherence to sustainability standards.

Watch our webinar on Maximising the Up-Time in Your Lab >

Agilent Cary 3500 UV-Vis

 

The ACT label

The ACT (Accountability, Consistency, and Transparency) Label is a recognised standard for evaluating the environmental impact of laboratory products. Managed by My Green Lab, a non-profit organisation dedicated to improving the sustainability of scientific research, the ACT Label provides transparent information on the environmental impact of lab products throughout their lifecycle. The ACT Label assesses factors such as energy consumption, water usage, end-of-life disposal, packaging, and manufacturing impact. By providing detailed information on a product’s environmental impact, the ACT Label helps labs choose products that align with their sustainability goals.

Quick note: Agilent’s My Green Lab initiative is another significant effort to promote sustainability in laboratories. This program focuses on integrating sustainable practices into everyday lab operations and product design.

Making an eco-choice

At Chemetrix, we are asked why labs should choose sustainable instruments and consumables. It’s because sustainable products offer:

  • Durability and reliability: Sustainable products are often designed for longevity, reducing the frequency of replacements and associated waste.
  • Future-proofing: As regulations become stricter, investing in sustainable products ensures compliance with future environmental standards, protecting labs from potential legal and financial penalties.
  • Enhanced performance: Sustainable products often incorporate the latest technologies and innovations, leading to improved performance and efficiency.

Download the eBook on how to Maintain Sustainability While Meeting your GC and GC/MS Efficiency and Productivity Goals >

Reducing the environmental impact of labs is going beyond turning down the air-conditioning and switching to recyclable consumables. It’s a paradigm shift for the lab as a whole, with the employees committing to do as much as possible to achieve the lab’s sustainability goals. As the scientific community continues to prioritise sustainability, the adoption of environmentally friendly lab instruments will be integral to advancing both scientific research and environmental stewardship.

 

Imagining the Zero Waste Labs of Tomorrow

Scientific research laboratories play a crucial role in advancing our understanding of science and developing transformative healthcare solutions. However, the intensive nature of lab work has raised concerns about their environmental impact. These concerns primarily focus on energy consumption, waste production, chemical handling, and equipment disposal, all of which can leave a significant environmental footprint.

Life science research, in particular, is known for its high consumption of water and energy. Labs dedicated to addressing some of society’s most pressing challenges generate a disproportionate amount of waste. According to a study from the University of Exeter, nearly 5.5 million tons of plastic waste originate from labs, accounting for approximately 2% of all plastic waste globally.

In an era where global sustainability is of increasing importance, labs are facing the challenge of balancing scientific progress with ecological responsibility. Encouragingly, significant strides are being made in this area. A recent survey on lab sustainability by Frost & Sullivan revealed that 82% of the labs surveyed have adopted sustainability metrics. Impressively, 92% of these labs use these metrics to monitor resource use, and 87% have committed to goals aimed at reducing their global greenhouse gas (GHG) and carbon emissions. So, what are some of the key moves these labs are making to achieve these goals?

View the full survey on Reducing the Environmental Footprint of Research >

Reducing waste in labs

Waste management is a major environmental concern, with many labs recognising the need to reduce waste production. They are finding that even small, straightforward behavioural changes can lead to substantial results. Managing plastic waste, in particular, is a critical issue for labs.

Traditionally, plastic waste in labs is sterilised, incinerated, and transported over long distances, significantly contributing to carbon emissions. Furthermore, the incineration of plastic releases numerous toxic chemicals into the environment.

Watch our webinar on Boost Productivity and Eliminate Waste in Raw Material ID >

Fortunately, the market is seeing the development of innovative solutions for better plastic waste management in labs. One such solution is a sterilisation process that is over 90% more carbon-efficient, using a combination of mechanical and chemical processes. This innovative process eliminates the need for autoclave sterilisation, which disinfects plastic waste using heat—steam—along with pressure and time.

Download the The Carbon Impact of Biotech & Pharma Report >

Real-time monitoring of lab assets

Enhancing the management of lab systems and processes presents a promising opportunity for innovations that leverage the rapid advancement of digital tools. The cost-effectiveness of data monitoring and collection across various analytical instruments, along with the implementation of technologies such as artificial intelligence (AI) and machine learning (ML), can optimise asset usage and improve overall lab efficiency.

Future lab instruments will likely be equipped with features for monitoring and providing real-time feedback on their operational status. They will have built-in intelligence to alert lab technicians if there is an operational issue that needs attention or if consumables are running low. This real-time data will enable operators to make better-informed decisions, thereby optimising their lab assets for efficient management, superior scientific output, and sustainability benefits.

It is also important to analyse a lab’s end-to-end supply chain to ensure suppliers are being engaged that share similar sustainability values and provide transparency on their sustainability performance. Such choices are made easier by My Green Lab’s ACT label which provides information regarding the environmental impact of manufacturing, using, and disposing of a product and its packaging. One of the instrument that proudly carries this label is the versatile Agilent 1260 Infinity II LC System.

Watch this video to learn more about My Green Lab >

Agilent 1260 Infinity II Manual Preparative LC System

Re-educating lab staff

At every step, it is critical that lab technicians and support staff are educated and share the responsibility for using new technology and implementing sustainability policies. Having goals is essential, but they cannot be achieved without the collective efforts of the staff. They need to understand how to properly dispose of plastic waste, implement practices to reduce water and energy consumption and be inspired to seek new ideas and solutions to help labs achieve their sustainability goals.

Companies like Chemetrix and its suppliers, such as Agilent, provide a wide range of resources to support this educational effort. By fostering a culture of sustainability and equipping staff with the knowledge and tools needed to make a difference, labs can significantly reduce their environmental impact while continuing to advance scientific research.

Download the The Carbon Impact of Biotech & Pharma Report >

As we look to the future, it is possible that potential clients or potential contracts could be secured if there’s evidence that the lab operations are sustainable and waste reduction efforts are paying off. It’s become an influencing factor in business relationships as clients with their own sustainability initiatives want to know if their service providers or in-house labs are doing the same. For some labs, achieving sustainability and waste reduction goals can directly influence their operational budget. It could also boost efficiency and lead to innovation because it requires a different way of thinking that can spark fresh ideas. There’s so much to gain and nothing to lose from choosing to make a lab more sustainable and the rewards can be seen almost immediately and in years to come.

Exploring sustainability solutions and options can be daunting. It’s unknown territory and one can feel unsure about which option would work best for a specific lab. Chemetrix can help by hearing your sustainability challenges, and your lab goals, and finding the right instruments and consumables that’ll be a more eco-friendly choice. As labs endeavour to reduce waste, it’s helpful to trust Chemetrix to provide solutions and product suggestions that align with sustainability goals. Contact us and let’s make tomorrow possible today.

 

Analyse Microplastics in Minutes, Not Hours

Want to bring exceptional speed and throughput to your microplastics research?

Microplastics in the environment are becoming a greater concern as scientists begin to understand their penetration into our ecosystems and food chains. Typically, techniques such as vibrational spectroscopy have been used to chemically identify microplastics. However, this approach is often complex and slow.

What you will learn

The Agilent Laser Direct Infrared (LDIR) chemical imaging system introduces an automated approach to imaging and spectral analysis. Its Quantum Cascade Laser (QCL) technology—coupled with rapidly scanning optics—provides fast, high-quality images and spectral data. Using the 8700 LDIR, experts and non-experts alike can:

  • Analyse samples in minutes, not hours.
  • Determine the chemical identity, size, and shape of microplastics in their samples.
  • Obtain useful statistical data to advance their microplastics research.
  • Take rapid, detailed images of large sample areas with intuitive Agilent Clarity software.

 

Register now >

 

Mitigating Plastic Pollution While Regenerating Our Oceans

It is estimated that more than 75% of the 8.3 billion metric tons of plastic produced over the last 65 years have turned into waste, of which up to 13 million metric tons end up in our oceans every year.

Plastic is one of the most enduring materials created by humans. Unfortunately, it can take hundreds of years to degrade, and even then, it often becomes microplastics – tiny particles that can be ingested by marine animals. These microplastics enter the food chain, leading to disastrous consequences for our planet and its inhabitants.

Improving plastic waste management globally is critical and individuals and organisations can play a part in reducing plastic pollution and regenerating oceans. Researchers are exploring biodegradable plastics and alternative materials to reduce plastic’s impact and there are many alternative solutions available to reduce single-use plastics.

 

What labs are doing to reduce plastic pollution

Labs can be influential advocates and encourage industry-wide shifts toward more sustainable practices. Of course, labs are key players in the research of plastic pollution, analyzing to help organisations develop a better understanding of the scope of plastic waste worldwide and use those insights to create innovative solutions, especially for marine environments.

But there’s also no denying that labs consume vast amounts of single-use plastic items, including pipette tips, tubes, gloves, and reagent bottles. These plastics are essential for maintaining sterile conditions and avoiding contamination, but their disposal contributes significantly to plastic waste. Lab instruments are also made up of plastic parts and do most of us know the process for disposing of those instruments at the end of their life?

What’s exciting to see is the scientific community strongly advocating for change and implementing practices that already have a significant impact such as:

  • Reviewing the materials used in common consumables and opting for products with minimal plastic content or those made from recyclable materials.
  • Incorporating re-using along with recycling and engaging with suppliers to support re-useable product options and recycling programs
  • Designing experiments and workflows with circular economy principles in mind.
  • Setting targets for reducing plastic waste.

 

An example of plastic sustainable solutions

With a focus on forming a biotech company to tackle plastic pollution, ULUU was started in 2020 by Dr Julia Reisser and Michael Kingsbury. They are trying to solve the growing issue of plastic pollution by prototyping alternative materials to market.

ULUU’s PHA product sample

 

“Unlike synthetic plastics, our materials are not produced using petrochemicals derived from fossil fuels. Instead, they are made from sustainable feedstocks with much more sustainable production processes. And, in the end, our products are compostable and marine-biodegradable, so they don’t pose a lasting impact on the environment,” described Dr. Luke Richards, lead scientist at ULUU.

The mission at ULUU is to replace plastics with materials that are good for the world. They’re producing a versatile natural polymer called polyhydroxyalkanoates (PHA), using seaweed as a sustainable resource for that process. The result is a material that is biodegradable and won’t accumulate in oceans and landfills or linger as microplastics in biological systems.

Discover the Challenges in Microplastics Analysis in our webinar >

ULUU scientists Dr Sheik Md Moniruzzaman and Vatsal Meshram in their QC lab using the Agilent 1260 Infinity II LC with Agilent InfinityLab LC/MSD iQ

 

In terms of climate change, using seaweed as a feedstock, ULUU captures carbon dioxide from the atmosphere and converts it into PHA. Their process also doesn’t rely on conventional land-based farming, which can take land away from natural ecosystems. Additionally, farming seaweed has some positive impacts on oceans. Research indicates that seaweed helps clean up environmental pollutants and reverses acidification and eutrophication.

ULUU uses bioreactors ranging from 1 to 50 L to make their products. They also use specialised equipment to investigate injection moulding and turn their PHA product into solid objects for prototyping. The entire production process from seaweed input to the finished PHA powder is monitored by their QC lab, in which most assays use chromatography instruments. These instruments include two Agilent 1260 Infinity II liquid chromatographs (LCs) and one Agilent 8890 gas chromatograph (GC), with detection by an Agilent InfinityLab LC/MSD iQ, an Agilent 1260 Infinity II refractive index detector (RID), and an Agilent 5977B GC/MSD.

Agilent 8890
Agilent LC/MSD iQ
Agilent 1260 Infinity II
Agilent 5977B GC-MSD

 

Sustainability is the way of the future for all laboratories and investing in the right solutions now can turn the tide for the future. Chemetrix is the partner labs that need to reach its sustainability goals and implement solutions that will reduce its environmental impact and plastic waste now and in years to come.

 

Reducing the Environmental Impact of Laboratories: A Call to Sustainable Action

Did you know that laboratories, the epicentres of scientific discovery, also leave an indelible footprint on the environment, contributing significantly to waste and energy consumption? It’s time we scrutinise the environmental impact of labs and explore actionable steps toward a more sustainable future.

In the pursuit of scientific breakthroughs, laboratories often overlook their environmental impact, but the repercussions are significant. As we grapple with climate change and environmental degradation, the imperative to reduce the ecological footprint of labs becomes ever more critical. Sustainable practices in laboratories not only contribute to global environmental conservation but also foster a culture of responsibility and forward-thinking innovation within the scientific community.

 

Why it matters: The environmental imperative for labs

The environmental impact of laboratories is substantial, from energy-intensive equipment to disposable plastics and hazardous waste. A survey by Agilent revealed that nearly 80% of labs surveyed recognise the importance of sustainability but only 44% have established formal sustainability initiatives. The urgency to address this dissonance lies in the fact that labs are significant contributors to pollution, resource depletion, and carbon emissions. By adopting eco-friendly practices, labs can mitigate their environmental impact and lead the charge toward a more sustainable scientific future.

 

Tips for reducing lab environmental impact: A roadmap to sustainability

  • Energy efficiency: Invest in energy-efficient lab equipment, such as fume hoods, freezers, and autoclaves. Regular maintenance and calibration can further optimise energy usage.
  • Waste reduction: Minimise single-use plastics by opting for reusable alternatives. Implement waste segregation practices and explore recycling programs for items like pipette tip boxes and sample vials.
  • Green procurement: Choose suppliers and products with eco-friendly certifications. Consider the life cycle of consumables and equipment, prioritising those with minimal environmental impact.
  • Water conservation: Implement water-saving measures, such as using water-efficient autoclaves and incorporating responsible water-use practices in experiments.
  • Sustainable lab practices: Foster a culture of sustainability within the lab. Encourage staff to turn off equipment when not in use, adopt electronic documentation systems, and participate in eco-friendly initiatives.
  • Decreasing Helium usage: There is an increased shortage in the supply of helium, which is causing a shift to using hydrogen for GCMS instead. Agilent is realising new upgrades on various instruments to allow GCMS to run on hydrogen safely.

Agilent is also focusing on decreasing argon consumption in their Agilent 4210 MP-AES by using nitrogen as an alternative. The Agilent 5800 ICP-OES also utilises the least amount of argon.

Did you know that utilising more efficient UHPLC methods can decrease waste generation by 5 times or more on average? It can also increase lab productivity substantially.

Explore our range of Agilent 1290 HPLC systems with a variety of different detectors and MassSpecs to suit your lab’s needs.

Explore our products

Sustainability has always been a crucial factor for Agilent Technologies. The below article shares how they are leading the way in sustainable supply chains and instrument production from a holistic approach.

Read the article here

 

Reflecting on your lab’s impact

Imagine the collective impact of every lab committed to sustainable practices. By reflecting on your lab’s environmental impact, you not only contribute to a healthier planet but also set an example for the broader scientific community.

The responsibility to reduce the environmental impact of laboratories rests not just on researchers and lab managers but on the entire scientific community. By adopting sustainable practices, labs can align their efforts with global initiatives for environmental conservation and contribute meaningfully to a healthier planet. Consider the legacy your lab leaves behind – one that goes beyond scientific discoveries to embrace a commitment to environmental stewardship.

 

Partnering with Chemetrix for a sustainable tomorrow

As we embark on the journey toward greener labs, it’s essential to collaborate with industry leaders committed to sustainable solutions. Chemetrix stands at the forefront of providing environmentally conscious options for analytical instruments and consumables. By partnering with Chemetrix, your lab can actively contribute to a sustainable tomorrow.

Reach out today to explore how together, we can redefine the future of scientific research with a shared commitment to environmental responsibility.

Nuclear Fusion: A Vision for Clean Energy

On 13 December 2022, the U.S. Secretary of Energy announced a major scientific breakthrough from a Department of Energy (DOE) National Laboratory: Lawrence Livermore National Laboratory (LLNL) in California has carried out the first nuclear fusion experiment to achieve a net energy gain in the context of the National Ignition Facility (NIF) project.

 

What is nuclear fusion?

Nuclear fusion is a reaction that powers our main source of light and energy: the sun, as well as other stars. In the reaction, two (or more) atomic nuclei – encompassing protons and neutrons – fuse to form larger nuclei while releasing energy. This energy release occurs because the total mass of the resulting nuclei is less than the mass of the original nuclei that were fused. The leftover mass becomes energy that can be used to run a turbine-electrical power generator.

 

Making a star on Earth to create energy

Research scientists are attempting to recreate nuclear fusion – the reaction in which stars of our universe are generated – on Earth because the reaction can create enormous amounts of energy.
For nuclear fusion to occur, stellar-like temperatures (i.e., 100 million+ degrees) must be achieved. This process forces the positively charged nuclei to form plasma within a contained vector, overcome their repulsion by moving independently at speeds of around 1,000 km/s, and fuse.

Theoretically, if the energy generated from lab-controlled nuclear fusion could be harnessed and effectively stored on a global scale, this technology could transform how we fuel our homes, businesses, and vehicle transportation. The reaction is so efficient that 1 kg of fusion fuel could provide the same amount of energy as 10 million kg of fossil fuel.

 

Urgent demand for clean energy

Since the 19th century, Earth’s temperature has increased by approximately 1.1 °C. The amount of carbon dioxide has risen by 50% because greenhouse gases have been released from fossil fuels burnt for energy.

Average temperature increases should not exceed 1.5 °C by the start of the 22nd century, scientists are warning. However, there is an urgent demand for clean energy implementation on a global scale, as a UN report from October 2022 predicts Earth’s temperature will rise by at least 2.4 °C by 2100.4

 

An emerging solution for clean energy

Research scientists in this field highlight the fact that nuclear fusion may be the solution for generating clean energy while mitigating the effects of global warming. The process does not rely on using energy sourced from fossil fuels and does not produce greenhouse gas pollutants or long-lived radioactive waste. Fusion reactor materials can also be recycled or re-used within 100 years.

In essence, nuclear fusion provides a vision toward clean and low-price energy that is within our grasp, and which one day may be able to support our daily lives, economies, and technological evolutions.

 

A milestone achievement at LLNL

On 5 December 2022, the LLNL team at its National Ignition Facility (NIF) conducted a nuclear fusion experiment that resulted in a milestone achievement to date: energy breakeven – meaning that the experiment produced more energy than required to initiate the process.
The breakthrough represents a historic moment; it comes at a much-needed time, as the world faces high and unstable energy prices and unprecedented effects of global warming due to continual, global fossil-fueled energy use.

NIF development and testing spans over 50 years, and the facility leads the international laser fusion scientific community where other experiments operate, such as the Japanese FIREX and SG-III in China.

 

Advancing the research field

Now that LLNL’s research team has successfully demonstrated net-energy gain from a nuclear fusion experiment, there are still some technical challenges to overcome, such as:

  1. Replicating the experiment – if the conditions of the reaction are not favourable, it halts
  2. Further optimisation of all reaction conditions while ensuring that all components are robust enough to withstand the extreme environment necessary for nuclear fusion to occur
  3. Yielding and extracting an even higher energy output from the nuclear fusion reaction

The next R&D phase at LLNL – as well as associated research labs – will most likely involve replication and method development to achieve higher energy gains, and make advancements toward longer-term commercial viability. When it comes to vacuum technology support, Agilent products and expertise will continue to play an important role in advancing this research field.

 

In the meantime, sustainable lab solutions

While work continues to produce clean energy, what we can do now is make better choices that are in line with sustainability goals. Partnered with My Green Lab, Agilent supports scientists in achieving their lab sustainability goals. Several Agilent instruments also carry My Green Lab certification.

The opportunity to reduce the environmental impact of labs through smarter purchases is tremendous. By procuring instruments and products that will reduce waste, reduce energy consumption, reduce solvent/consumable consumption, and last longer (reducing the need to buy and discard more instruments), laboratories can operate in a more environmentally sustainable way.

Speak to a consultant at Chemetrix to learn more about sustainable instruments with technology that can help your lab achieve its sustainability goals. View our products to learn more about technology that’ll save energy and other resources for a more efficient lab.

 

Sustainability Through Lab Optimisation

The average lab consumes more energy per square meter than many hospitals or other commercial buildings—the US EPA estimates that a 30% reduction in lab energy use in the United States translates to removing 1.3 million cars from highways per year. Now, imagine what that would mean for labs around the world.

Scientific labs are experiencing an increasing demand for greater efficiency and productivity and, at the same time, a strong desire to maximise sustainability from the organisation-wide level to daily operations. Combining new data intelligence technologies and better industry insight guidance allows for advancing lab operational efficiency through better asset utilisation and increased sustainability in the digital lab era.

 

Lab managers want sustainability and optimisation

The central premise for discussing sustainability and optimisation together is that a more efficient lab is a more sustainable one. Most lab managers are mindful of both sustainability and optimisation needs. A global survey of lab managers highlighted a strong desire to meet sustainability goals and remain conscious of sustainability in their daily operations.

Key takeaways from the survey included:

  • 68% of labs surveyed acknowledged that they require further work to improve sustainability.
  • The most common sustainability expectations from instrument vendors are to reduce emissions and energy consumption. 68% of the respondents expected instrument vendors to help them reduce emissions, while 58% expected a reduction in energy.
  • Increased efficiency and optimisation are also factors, with the most critical concern being speed as demand for higher sample throughput increases dramatically. The importance that lab leaders place on improving speed, optimisation, and efficiency was also highlighted in a pharmaceutical lab leaders survey.
  • Of those surveyed, 83% believed their workflows needed optimisation, and 63% would welcome innovations to increase efficiency.

 

Advanced asset control, digital analytics, and expert guidance

The opportunity for lab optimisation improvement is profound. On average, lab instruments are running only 35% of the time, and only 4% of labs employ data intelligence to ascertain fleet utilisation.

James Connelly, chief executive officer of My Green Lab agrees, “Lab equipment makes up a significant portion of the total plug load in any lab and can lead to high energy consumption. Optimisation of lab equipment through solutions such as asset performance management can dramatically lower the overall energy consumption and be a significant step toward achieving lab sustainability.”

A holistic method of assuring lab-wide optimisation and efficiency is required to address this gap effectively. A combination of advanced asset control, digital analytics, and expert guidance allows greater visibility and utilisation of all lab assets. Maximising the availability and utilisation of all assets will reduce a lab’s carbon footprint and enable more science to be done. Increasing operational efficiency and productivity positively impacts lab sustainability. Reducing energy consumption through increased efficiency is a win-win, especially for the environment.

Data intelligence systems with real-time sensing technology and interconnectivity provide better visibility into lab operations and help drive decisions. Gaining clarity on asset utilisation enables more informed decision-making that advances lab operations to new levels of efficiency and productivity—while increasing sustainability at the same time. Measuring asset utilisation opens the door to appropriate fleet right-sizing and technology refresh, resulting in higher throughput, less power consumption, a smaller workflow footprint, and redeployment of under-used or redundant instruments.

 

Connected labs reduce waste and increase productivity

Labs that are connected benefit from multiple efficiencies that bolster sustainability. Technologies such as smart alerts foster a proactive approach to instrument monitoring. Rather than reacting to an instrument breakdown, an interconnected lab with smart alert software will prevent it from happening in the first place. Interconnectivity also enables the ability to make data-driven decisions.

Interconnective technology can also increase instrument utilisation because it calculates how much science any particular instrument performs per square meter. Sustainability isn’t limited to the traditional ‘green’ metrics of waste and water— it is equally achieved through technology.

For example, having visibility of all instruments at once to produce an overall lab footprint from which adjustments can be made to make the lab more effective and efficient. Or not having to waste time performing duplicate runs because the smart alert system fires when the first doesn’t go through.

 

Go greener with asset monitoring

The process of lab optimisation involves integrating utilisation data with instrument service histories and end-of-guaranteed support to measure the instrument’s health. Understanding instrument utilisation and health can determine the optimal footprint and workflow composition.

A central operations strategy provides lab managers with profound insight into asset composition and health and the means to make data-driven decisions and optimise lab operations. The subsequent improvement of lab-wide efficiency not only increases the productivity of the laboratory as a whole but also lab sustainability by doing more science with less energy and resources. A win for both science and the environment.

 

This article is modified from content originally published by Agilent