Real-time monitoring offers solutions to us in our everyday lives. Whether it’s the real-time alerts that tells you that you’re at risk or in danger, or the subsequent data which provides you accurate information on what you’re monitoring, real-time monitoring has become an essential part of our lives.   

But what about real-time monitoring when it comes to enhancing the workforce? You’d rely on real-time monitoring and alarms to tell you there’s a fire in your home, so why wouldn’t you rely on real-time monitoring to tell you if you were a risk as serious to your health at work? You’d rely on real-time data to tell you if you needed to track nutrition or health trends, so why wouldn’t you rely on essential data in real-time in the workplace? 

Whether it’s for the health and safety of you and your colleagues, to better understand the processes and efficiency of the business, or just to help aid decisions, real-time monitoring can provide valuable data to workforces across a whole range of industries. Whether you are monitoring for hazardous substances like dust or silica, or monitoring for HAV, sound levels or proximity measures, real-time monitoring can enhance your workforce. 

‘PM’ or particulate matter, also known as particle pollution is the term for a mixture of solid particles and liquid droplets found in the air. 

It’s estimated that air pollution is linked to 43,000 deaths per year in the UK. Worldwide, at least 7 million people die each year from exposure to air pollution, with 91% of the worldwide population living in locations where the air quality exceeded the World Health Organisations (WHO) air pollution guidelines.

These guidelines state that that annual average concentrations of PM2.5 should not exceed 5 µg/m³ and PM10 should not exceed 15 µg/m³ (both for 24-hour periods). According to the WHO, ‘fine particulate matter at PM2.5 can penetrate through the lungs and further enter the body through the blood stream, affecting all major organs’. Exposure to dust at PM2.5 can cause serious disease to the respiratory system, such as lung cancer and COPD, and also can effect cardiovascular diseases, such as a stroke.

The image below demonstrates PM2.5 and PM10 size in comparison to a single human hair and a grain of sand.

The Department for Environment Food & Rural Affairs (DEFRA), the UK government ministerial department for environment protection, have also highlighted the severity of exposure to air pollution. This growing concern for the UK government estimated in 2010 that the cost of health impacts of air pollution was likely to exceed estimates of £8bn to £20bn.

Although between 2005 and 2022, the UK’s PM2.5 emissions decreased by 41%, emission levels have been relatively steady with small annual fluctuations in the last decade. Industrial combustion is a major source of PM emissions, as well as emissions from industrial production also playing a major part, which can be linked to heavy-dust industry where hazardous particulates can become airborne. Despite some reductions in PM emissions, the threat still very much remains.

A solution to this is real-time dust monitoring. Real-time particulate monitoring allows people in heavy dust loading environments, including industrial applications, to not only understand, but alert them instantaneously when they are exposed to dangerous levels of air pollution. For example, our AIR XD Dust Monitor can alert people in real-time when legislative levels of µg/m³ are breached, over a time-weighted average (TWA) 8-hour period, for both PM2.5 and PM10.

This technology not only offers a simple solution to individuals at high risk of exposure to air pollution by providing instant alerts, but also can help to prevent exposure in the future, as at-risk individuals can learn exactly when and where exposure to air pollution is highest and will likely occur. Thanks to real-time monitoring, both in the UK and Worldwide, we can reduce exposure to air pollution.

You may have seen The All Party Parliamentary Group (APPG) for Respiratory Health report ‘Silica – the next asbestos’ released in March 2020?

In it, it states:

“Construction workers are still 100 times more likely to die from a preventable occupational disease than from an accident. We also know that approximately 12,000 deaths in the industry each year are linked to exposure to dust and chemicals.”

“Figures from IOSH show that roughly half a million people are exposed to RCS at work in the UK. They estimate that in Europe as a whole, 81% of these are employed in construction or in manufacturing products used in that industry.”

Experts at Trolex brought our new technology to the APPG’s attention and explained our nine-year silica detection R&D project that resulted in development of the new real-time silica monitor – work that we’d kept closely under wraps until mid 2021.

The original report refers to Workplace Exposure Limits (WELs) of dust. It says:

“Dust monitoring is vital. Technology advances mean that new methods of real-time exposure level monitoring are now possible. Knowing what the actual exposure levels are is important as exposure will depend on the actual task (e.g. cutting concrete is higher risk than breaking concrete, and the actual exposures depend on the concrete mixture).

“The new Code of Practice for Tunnelling […] that requires the use of new technology which is just becoming available and gives an instantaneous measurement.”

The instantaneous measurement the report refers to is the measurement of a variety of dust and particulates (something we already do with our AIR XD Dust Monitor and XD One Portable Dust Monitor, XD1+ Personal Dust Monitor products) – not specifically silica. Silica always being too difficult to uniquely identify. 

Until now.

Our new silica-specific monitoring technology is a game changer.

By working with the authors of the APPG to share the features, benefits and thinking behind the new real-time silica monitoring technology they’ve been able to update the report with new advice on how to best protect workers from the dangers of respirable crystalline silica (RCS). 

As strange as this question may sound…have you ever taken a moment to sit down and think about dust? Really think about it? Think about what it actually is, where it comes from, why it exists, and the impact it might have on our lives? 

Probably not. And why would anyone? It’s just ‘there’ after all, hanging around, doing its thing. A staple accompaniment to life, only momentarily revealed in a shaft of sunlight or a sneeze, or lying on an expensive piece of machinery waiting to be…dusted. 

And while we’re all aware that exposure to dust or particulates can impact health, isn’t it the case that because dust is so small, so ephemeral, and so everywhere, questions of what it actually is, and what it really does, tend to get swept under the carpet?

So here’s a chance to take a closer look at what we’re dealing with when we refer to ‘dust’ and reflect on the significant health implications of exposure to something largely unseen that threatens the lives of many thousands of workers, in many hundreds of different industries around the world.

Dust, or for the purposes of this explanation, particulate matter, is, defined by Greenfacts as, ‘the sum of all solid and liquid particles suspended in air.’ 

A complex range of components including organic and inorganic particles, such as pollen, soot, smoke, and liquid droplets, particulates can vary greatly in size (from coarse, to fine, to ultrafine), in composition, and in origin. 

Many types of particulate are considered hazardous. 

Putting dust in the home (​composed of about 20–50% dead skin) to one side, about a third of the particulates that make up air pollution are created by vehicles, exhaust fumes, and particles from tyres and brakes. 

These coarse particles are made up of broken-up larger particles, with a size ranging from 2.5 to 10 µm (a micron is a millionth of a meter). They are also released by agricultural processes, mining, and burning fossil fuels, as well as naturally through pollen, mould spores, and plants and insects.

While industry and the burning of fossil fuels can produce particles from the release of non-combustible materials, other fine sub-micron particles are produced by the condensation of vapourised materials and atmospheric reactions of sulphur oxides and nitrogen oxides initially released as gases. 

These fine particulates between 0.1 µm to 2.5 µm, make up most of the airborne particulate mass and represent the main danger to people living or working in a polluted environment.

Ultra fine particles which are smaller than 0.1 µm make up only a few percent of total particulate mass, though they represent over 90% of the number of particles. They’re largely formed from gases that will often end up coagulating to form a larger particulate.

Worldwide, the main cause of air pollution is coal burning, with dirty air killing more people than smoking, car crashes and HIV/Aids. It also shortens billions of people’s lives by up to six years according to a new report. 

The climate crisis too, largely a product of burning fossil fuels, is now making a significant contribution to air pollution through wildfires.

But that doesn’t mean the dangers of inhaling dangerous particulates are limited to smoggy city life or pollution blown cross country from burning forests.

At Trolex, our mission is focused on protecting the millions of people exposed to dangerous workplace dust, mist, fumes, vapour or gas – particulate threats that cover the full spectrum of particulate size.

As we wrote in our The importance of reading the room ebook:

‘Potentially lethal dust is everywhere – from construction dust, to the fibreglass/Glass Reinforced Plastics (GRP) used in loft insulation, and 3D printing that fuses layers and layers of extremely fine dust to create the final shape. 

There’s coffee dust, soldering fumes (20% of people soldering or working around solder develop asthma), carbon fibre and plaster related lime, sulphate hemihydrates, silica, and mica dust that leads to asthma, COPD, chronic bronchitis, and emphysema.

There’s cement dust, plus the ubiquitous Amorphous Silica used in car tires, agri chemicals and animal feed, in toothpaste and cosmetics, paint, insulation materials, adhesives, coatings, and printer ink.

There’s biomass dust, dust created by waste disposal and recycling, sawmill wood dust, dust in nail bars, chiropodists, and podiatry clinics, tool sharpening dust and MDF dust particles coated in formaldehyde.’

 There’s a huge amount that can be done to protect people from the dangers of inhaling dangerous particulates.

On a national level, governments can actually back up the rhetoric with action, instead of just paying lip service to environmental protection. China’s “war against pollution” that started in 2013 has already, supposedly, reduced levels of fossil fuel pollution by 29%. 

But clearly much more needs to be done by politicians and business leaders to transition industry to greener, less damaging energy and manufacturing production. To promote production methods which will reduce the creation of hazardous dust.

Which is why we’re working so hard to both raise awareness of the problem and to put our Trolex AIR XD Dust Monitor, XD ONE Portable Dust Monitor, XD1+ Personal Dust Monitor andAIR XS Silica Monitor in the hands of people on the frontline who we can help protect.

With 12,000 UK, and half a million workers around the world dying every year from preventable diseases directly related to dust and particulate inhalation, our mission is as simple as it’s singularly focused, as it’s important.

It’s this: To educate the world’s construction, mining, tunnelling, heavy and manufacturing industries on the dust and particulate dangers their workers face. Then to make clear the smart, simple, cost effective ways our XD One and other duct monitoring technology can help them protect them. And ultimately…

For every worker exposed to dangerous particulates to have wearable personal dust monitoring equipment by 2031.

Get in touch today to speak to one of our experts about how real-time dust monitoring can help improve your safety processes and keep your workers safe from harmful respirable dusts.

When it comes to occupational health and safety, new real-time dust monitoring such as the XD ONE Portable Dust Monitor can help to make decisions for the hierarchy of controls. 

In this e-book we explain how the arrival of affordable, real-time monitoring, and both wearable and portable dust monitoring technologies promote this new awareness of the dangers of dust in a far broader range of working environments. 

Employers and the health and safety community are now shifting their attention. Where they’ve traditionally focused on safety, they now look at the major impacts on long-term health associated with working in hazardous environments. 

There’s also an increasing awareness of the range of industries that can present long-term health hazards through the inhalation of dangerous dust particles, from traditional industrial environments to commercial activities. 

The HSE are reporting an estimated 1.4 million people in the UK report ‘lung or breathing problems that were caused or made worse by work’ – and whilst it’s great that people are starting to pay more attention to this issue, there’s plenty of room for improvement. 

Whilst financial costs of lung diseases effect both businesses and individuals, respiratory diseases are more than just an economic drain. It’s a personal tragedy, and there are a whole raft of occupations and jobs where people are exposed to dangerous dust across the world. 

However, through the hierarchy of controls, businesses can determine the most effective solutions in order to keep workers protected from dangerous dust exposure. 

Knowing that dangerous dust exists, knowing its effects are potentially lethal, and knowing that the damage it causes is preventable, only takes you so far. Knowing how to prevent that harm is what matters, and this is how the hierarchy of controls can help businesses become more efficient, by understanding how effective each method is in benefitting the workforce. 

Fortunately, new accurate, real-time, fixed, wearable and portable dust and silica monitoring sensors are leading the detection charge across every use case. By precisely reading the real-time dust load in any given environment, and the enemy now ‘visible’, businesses can begin to apply the hierarchy of controls in a far more meaningful way. 

Congratulations to the New South Wales Government for the foresight and resolution in driving through new legislation to protect workers from the hazards of silica, coal dust, and diesel particulates.

Speaking to Australian Mining, the state’s Deputy Premier and Minister responsible for resources John Barilaro said, “The decision to fast-track these more stringent standards for coal dust exposure was an easy one and is a great example of mine workers, mine operators and government working together to ensure we have robust frameworks in place to address this insidious disease.”

The legislation, which took effect from July 1st 2021, is hugely ambitious too. The legal exposure limit to respirable coal dust was reduced from 2.5 to 1.5 mg/m³ and respirable crystalline silica from 0.1 to 0.05 mg/m³. A new diesel exposure standard of 0.1  mg/m³ commenced 1 February 2021.

In the UK, respirable crystalline silica (RCS) control measures need only be effective in keeping exposure below the Workplace Exposure Limit (WEL) at the old NSW level of 0.1 mg/m³ respirable dust, averaged over eight hours.

With efforts underway to determine whether these levels might be made even more stringent, the good work is clearly an ongoing priority.

As The New South Wales Resources Regulator says in its compliance priority January-June 2021 report. ‘With the implementation of the revised exposure standards for silica and respirable dust, and a new exposure standard for diesel exhaust emissions, airborne contaminants was a priority project between July and December in 2020 and will continue to be a focus area.’

With much of the legacy technology on the market anything but accurate, realistically deployable and affordable, clearly the challenge for technology companies is to step up and find new ways for industry to meet these new standards.

At Trolex we’ve been working tirelessly on meeting these challenges for years.

And now we have.

It’s called the Trolex real-time dust monitoring range of fixed and wearable dust monitors.

You might also call it an overnight 40-year success story, as we’ve turned our vast experience in environmental monitoring in mining and tunnelling, to designing, manufacturing and distributing world leading dust and particulate monitoring technology.

Did you hear about the plane crash that killed everyone on board? Your answer likely depends on where you live.

According to researchers at the University of Oxford: ‘English Wikipedia readers were much more likely to read about North American and European crashes, and Spanish Wikipedia readers were more likely to read about Latin American crashes.

Page views on English and Spanish Wikipedia for North American and Latin American aircraft crashes, respectively, were each about 50 times greater than for African crashes.’

These events are tragic, to be sure, but the deaths from these situations are more generally heard about than others, such as from dust inhalation – despite technology and processes available to help prevent them.

And then there’s how much capacity you have left to care, the concept scholars refer to as the ‘finite pool of worry’.

‘Because people have a limited capacity for how many issues they can worry about at once, as worry increases about one type of risk, concern about other risks may lessen.’ says The Centre for Research on Environmental Decisions.

Proximity. Timing. The competition with other concerns for a limited capacity to impact emotions. It’s a complicated old business. Disaster, its impact, its legacy and even the ways we look at – or away – from it. That’s only talking about sudden disastrous events; the plane crash, typhoon, earthquake, and other similar events.

The problem of particulate and dust inhalation is widely ignored, so too is the priority in finding viable solutions.

This is why we do what we do at Trolex, and why we’ve set ourselves the challenge of reducing the risk and impact dust inhalation can have on workers around the world who are rarely spoken about.

This is done through the development of technology like the AIR XD Dust Monitor, XD ONE Portable Dust Monitor,  XD1+ Personal Dust Monitor and AIR XS Silica Monitor alongside supporting software, to deliver data in realtime and make sure every worker knows the state of air around them.

We haven’t stopped there, however. Our engineers are constantly asking “what can we do so that, in 10 years time, every worker in the world exposed to dangerous particulates is wearing personal dust monitoring?”

This is easier said than done, of course, but it’s a challenge we’re committed to undertaking and beating. As well as setting ourselves the task of overcoming the engineering challenge, we’re having to face those natural ‘hidden in plain sight’ biases discussed above.

We’ve privately funded each project every step of the way – from research and development, to manufacturing and distribution. Every penny.

We’re living through an air pollution emergency. One that’s already claiming thousands of lives and costing billions of pounds. And that news shouldn’t come as a surprise.

We wrote in a recent blog, The threat from particulates: It gets worse about an American academic study: “Long-Term Exposure to Fine Particulate Matter, Residential Proximity to Major Roads and Measures of Brain Structure.”

The report clearly shows the risks that people living over extended periods near busy main roads face from fine dust that causes respiratory diseases, results in brain atrophy (brain shrinkage) and leads to an increased risk of stroke and other disease.

Another academic paper, ‘Air Pollution and Noncommunicable Diseases’ suggests that air pollution may be damaging ‘every organ in the body.’

Unfortunately there was nothing ‘academic’ about the consequences of particulate inhalation for nine year old Ella Kissi-Debrah, whose death in 2013 was caused by ‘acute respiratory failure, severe asthma and air pollution exposure’.

“The whole of Ella’s life was lived in close proximity to highly polluting roads. I have no difficulty in concluding that her personal exposure to nitrogen dioxide and PM was very high,” stated the coroner.

So what’s going on? How is it possible that so many people suffer so much through filthy, contaminated air?

A rush for profits? For progress? For economic advancement? A lack of technology? Insufficient knowledge? Clarity of thought? Understanding? Will? A short-termism that prioritised wealth over health? 

In truth it’s all these factors and more. Reasons, more often excuses, that in the not so distant future people will look back at in horror. A situation where people simply won’t believe that things were allowed to get so bad and stay so bad for so long.

Signs are mixed. For example, despite the UK Government’s recognition that we all need to be protected from toxic air, and despite pledging funds to fight that cause, it has so far voted against proposals to put WHO pollution limits into UK law, arguing that they’re ‘uneconomical.’

‘Were you part of the problem or part of the solution?’ we’ll all be asked in the not too distant future.

Which is why we do what we do here at Trolex – to be a very proud and purposeful part of the solution. 

Enquire today about our new AIR XD Dust Monitor and XD ONE Portable Dust Monitor in our real-time dust monitoring range – accurate, simple to use, easy to maintain, real-time particulate detection technology that keeps people safe. 

In an ideal world, the risk of dangerous airborne particles simply wouldn’t exist in the workplace. We cannot understate how important respiratory protective equipment (RPE) is, even compared to all the other safety technologies available.

The proper application of the Hierarchy of Controls (HoC), though Elimination, Substitution, Engineering, Administration and personal protective equipment (PPE) would mitigate the threat and make sure that everyone was properly protected. 

The unfortunate reality is that many workers still face threats from a wide range of hazardous dust and particulates, such as silica, construction dust, fibreglass, wood, asbestos and many more. Respiratory protective equipment is one of the most effective safety technologies against silica dust and other harmful inhalants.

While every stage of the HoC can play an important role in helping to make workplaces safer, it’s the final stage, the PPE/RPE – the provision and proper wearing of suitably selected and fit tested RPE – that presents the biggest challenge.

Why?

Because too often, RPE fails to provide the protection that providers or wearers think it does.

There’s nothing more dangerous than thinking you’re safe when in reality you’re not. When you’re labouring under the illusion that your RPE is protecting you from harm and all it’s doing is placing you squarely in harm’s way, it’s a big problem.

“People are not so good at assessing exposure to a risk,” says risk perception expert Ann Bostrom, of University of Washington. 

It’s something we’ve seen clearly during the Covid pandemic. Masks acting as signifiers of safety rather than providing genuine protection.

A dangerous combination of availability and confirmation bias, the psychology is explained in this Forbes article, drawing comparisons between respiratory protective equipment and seatbelts. It cites a report that shows people drive faster and more recklessly when they wear seatbelts. The same applies to cyclists riding less cautiously when wearing helmets.

So what’s the answer? If industry is consistently failing to apply the Hierarchy of Controls well enough to protect workers, or even worse, lulling workers into a dangerously false sense of security, what can businesses do to properly protect their people?

The answer is surprisingly simple.

Instead of IPPI equipment, APPW is respiratory protective equipment that’s:

• appropriate – the right equipment for the right job
• properly maintained – RPE is kept in good condition, properly maintained and stored
• properly explained – the employee gets all the training and information on the correct use of the RPE provided they need
• worn correctly – well fitting RPR that prevents the inhalation of dangerous particles 

Get in touch today to find out more about how our new AIR XD Dust Monitor, XD ONE Portable Dust Monitor, XD1+ Personal Dust Monitor and AIR XS Silica Monitor  – accurate, simple to use, easy to maintain, real-time particulate detection technology – helps your teams use their RPE more effectively.

As any responsible employer knows – a clear threat to the health and welfare of your staff demands a clear response.

In industries such as construction, mining, tunnelling and manufacturing, the obvious risks to health posed by clouds of workplace dust can be tackled in new and different ways. Some precautions and protections include:

• staff wearing PPE;
• the installation of dust monitoring equipment;
• the application of various dust suppression techniques such as spraying water, or using local exhaust ventilation (LEV) or on-tool extraction.

With more awareness of the dangers of dust inhalation, these protections become more effective as they are applied more extensively across different scenarios and environments.

However, dust monitors and other other equipment are only part of the story.

It’s a move that’s been welcomed across the board, with the Australian Mining Safety Journal and Mining Review Africa writing, ‘the new standard is likely to place a greater emphasis on the air quality inside the cabin than previously addressed.’

A recent ISO workshop run by Jeff Moredock, Lead at the ISO Working Group, advertised that the new cabin air standard will ‘Improve operator alertness, create a safer work environment and increase productivity.’

Of course, the big question is how do you properly assess the air quality in your cabin? How can you enforce a new and improved standard if you’re not able to accurately record particulate levels in real time?