Waste Management in Olive Oil Industry

The olive oil industry offers valuable opportunities to farmers in terms of seasonal employment as well as significant employment to the off-farm milling and processing industry.  While this industry has significant economic benefits in regards to profit and jobs; the downside is it leads to severe environmental harm and degradation. In 2012, an estimated 2,903,676 tons of olive oil was produced worldwide, the largest olive oil producers being Spain, Italy, and Greece followed by Turkey and Tunisia and to a lesser extent Portugal, Morocco and Algeria. Within the European Union’s olive sector alone, there are roughly 2.5 million producers, who make up roughly one-third of all EU farmers.

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Types of Wastes

Currently, there are two processes that are used for the extraction of olive oil, the three-phase and the two-phase. Both systems generate large amounts of byproducts.  The two byproducts  produced by the three-phase system are a solid residue known as olive press cake (OPC) and large amounts of aqueous liquid known as olive-mill wastewater (OMW).  The three-phase process usually yields 20% olive oil, 30% OPC waste, and 50% OMW.  This equates to 80% more waste being produced than actual product.

Regardless of system used, the effluents produced from olive oil production exhibit highly phytotoxic and antimicrobial properties, mainly due to phenols.  Phenols are a poisonous caustic crystalline compound.  These effluents unless disposed of properly can result in serious environmental damage.  There is no general policy for waste management in the olive oil producing nations around the world.  This results in inconsistent monitoring and non-uniform application of guidelines across these regions.

State of Affairs

Around 30 million m3 of olive mill wastewater is produced annually in the Mediterranean area.  This wastewater cannot be sent to ordinary wastewater treatment systems, thus, safe disposal of this waste is of serious environmental concern.  Moreover, due to its complex compounds, olive processing waste (OPW) is not easily biodegradable and needs to be detoxified before it can properly be used in agricultural and other industrial processes.

This poses a serious problem when the sophisticated treatment and detoxification solutions needed are too expensive for developing countries in North Africa, such as Morocco, Algeria and Tunisia, where it is common for OMW to be dumped into rivers and lakes or used for farming irrigation.  This results in the contamination of ground water and eutrophication of lakes, rivers and canals.  Eutrophication results in reductions in aquatic plants, fish and other animal populations as it promotes excessive growth of algae. As the algae die and decompose, high levels of organic matter and the decomposing organisms deplete the water of oxygen, causing aquatic populations to plummet.

Another common tactic for disposal of olive mill wastewater is to collect and retain it in large evaporation basins or ponds.  It is then dried to a semi-solid fraction. In less developed countries where olive processing wastes is disposed of, this waste, as well as olive processing cake and SOR waste is commonly unloaded and spread across the surrounding lands where it sits building up throughout the olive oil production season.  Over time these toxic compounds accumulate in the soil, saturating it, and are often transported by rain water to other nearby areas, causing serious hazardous runoff. Because these effluents are generally untreated it leads to land degradation, soil contamination as well as contamination of groundwater and of the water table itself.

Even a small quantity of olive wastewater in contact with groundwater has the potential to cause significant pollution to drinking water sources. The problem is more serious where chlorine is used to disinfect drinking water. Chlorine in contact with phenol reacts to form chlorophenol which is even more dangerous to human health than phenol alone.

Remedial Measures

The problems associated with olive processing wastes have been extensively studied for the past 50 years.  Unfortunately, research has continued to fall short on discovering a technologically feasible, economically viable, and socially acceptable solution to OPW.  The most common solutions to date have been strategies of detoxification, production system modification, and recycling and recovery of valuable components.  Because the latter results in reductions in the pollution and transformation of OPW into valuable products, it has gained popularity over the past decade. Weed control is a common example of reusing OPW; due to its plant inhibiting characteristics OPW once properly treated can be used as an alternative to chemical weed control.

Research has also been done on using the semisolid waste generated from olive oil production to absorb oil from hazardous oil spills.  Finally, in terms of health, studies are suggesting that due to OPW containing high amounts of phenolic compounds, which have high in antioxidant rates, OPW may be an affordable source of natural antioxidants. Still, none of these techniques on an individual basis solve the problem of disposal of OMW to a complete and exhaustive extent.

At the present state of olive mill wastewater treatment technology, industry has shown little interest in supporting any traditional process (physical, chemical, thermal or biological) on a wide scale.This is because of the high investment and operational costs, the short duration of the production period (3-5 months) and the small size of the olive mills.

Conclusion

Overall, the problems associated with olive processing wastes are further exemplified by lack of common policy among the olive oil producing regions, funding and infrastructure for proper treatment and disposal, and a general lack of education on the environmental and health effects caused by olive processing wastes.

While some progress has been made with regards to methods of treatment and detoxification of OPW there is still significant scope for further research.  Given the severity of environmental impact of olive processing wastes, it is imperative on policy-makers and industry leaders to undertake more concrete initiatives to develop a sustainable framework to tackle the problem of olive oil waste disposal.

5 Common Soil Contaminants in Urban Areas

Soil is a very important part of the preservation and continuation of life. Healthy soil is essential for growing healthy crops and plants for human and animal nutrition. Soil is usually uncontaminated, but due to human activities, toxic substances get into the soil, harming plants and animals.

Many people live in urban areas; hence more human activities affect the soil in these urban areas. Soil can get contaminated through illegal waste disposal, wastewater discharge, and acid rain, among others.

Here are some of the common contaminants that are present in contaminated soils in urban areas.

Common Soil Contaminants in Urban Areas

1. Pesticides

Pesticides are among the top soil contaminants in urban areas. When people try to control pests using chemical pesticides, most of the pesticide ends up in the soil. Contaminated soils can be harmful to animals that live underground. When it rains, the rainwater can be contaminated with the toxic pesticide and reach the groundwater, making it unfit for consumption.

2. Petroleum Products

Petroleum products such as oil and gas are among urban areas’ most common soil contaminants. Oil or gasoline can leak from cars and other moving machines and reach the soil. Contaminated soils usually contain harmful chemicals such as lead, which is present in some oil and gasoline products.

disposal of contaminated soil

3. Radon

Radon is a naturally-occurring radioactive gas that is harmful to human beings. Radon gas can cause lung cancer if you breathe it for an extended period. Most industries opt to build underground ventilation systems to prevent radon from escaping contaminated soils and reaching the surface.

4. Creosote

Another contaminated present in urban contaminated soils is Creosote, a chemical derived from Tar and is used for wood preservations. Creosote usually contaminates the soil when poles preserved by creosote are placed into the soil.

Even though Creosote is important in preventing termites and other pests from damaging timber, it can also cause harm to human beings and other animals.

5. Asbestos

Asbestos is a harmful substance that was used in the insulation of houses before it was phased out in the 1980s due to its potential danger to human life. Asbestos usually finds its way to the soil through poor demolition of houses and illegal dumping.

Call experts immediately if you suspect you are living close to asbestos-contaminated soil.

Protect the Soil from Contamination

Soil plays an important role in providing nutrition to humans and other animals and cleaning water. If the soil gets contaminated, the toxins can kill plants and animals and make groundwater unfit for consumption.

The Environmental Benefits of Using Titanium

When titanium was first brought into widespread usage, it was lauded for its strong and weathering-resistant properties. Due to energy costs, production declined over the past 10 years; however, a new process established by the UK’s Dstl has reduced titanium processing time by 50%. The result –  Cheap, low-energy titanium production.

Titanium is used in a startlingly diverse array of applications, too. From paint, to bikes, to eco friendly party glitter, you will likely encounter titanium in your day-to-day life more frequently than you’d notice. It’s good news, then, that titanium is being used to support positive environmental change in numerous ways.

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Titanium taking over plastic

One of the foremost ways in which titanium is helping to improve our natural environment is through offering alternatives to polluting items. A great example of this is plastic replacement.

According to clean ocean advocates The Ocean Cleanup, there’s over 80m tonnes of plastic in the oceans. A large contributor to this is the plastic straw, which features at 11th in the list of Get Green’s most commonly littered plastics. Many manufacturers, by utilizing the non-rusting and sturdy quality of titanium tubes, have opted to replace drinking straws with titanium. Given the possibility of cheap, low energy tubes, this means ocean cleanliness can be improved and carbon emissions mitigated.

Taking titanium to the next level

The material properties of titanium are being taken to the next level by modern science. Another huge cause of carbon emissions and pollution is the plastic bottle. A key target for environmental plans, the reusable bottle industry grew to $7.6bn last year, according to Nielson.

Titanium has entered the market through a  clever flexible bottle, with titanium a key component. The metal has again been chosen due to its resistant quality and the improving environmental impact of producing it.

Tackling the oxides

Oxides have been the main use of titanium for a while. Paint, ink, sunscreen, medicines, paper – there are countless products that use titanium oxide. Historically, the process for oxide extraction has been environmentally damaging, as has the product itself; for example, the USA’s National Park Service states that various sunscreens with Ti oxide will damage coral.

Many manufacturers are replacing plastic drinking straws with titanium.

Now, Titanium Oxide is likely to be brought into the green sphere, too. A novel new study published in the Journal for Pharmaceutical Sciences found that titanium oxide can be synthesized using bacteria, and that this could spell a much brighter future for the historically damaging extraction.

Conclusion

Titanium is a versatile and well renowned metal used in a huge range of applications. As such it’s not an easy proposition to remove it from the market on the grounds of environmentalism. However, through determined scientific study and consumer action, it’s becoming a figurehead in helping the public to use its quality and simultaneously protect the planet.

What is a Nitrogen Generator and Why Should You Buy One?

For many businesses, nitrogen gas is deeply integrated into the workday. Industries ranging from food processing to mining use this resource regularly, and the supply of it is essential to the core of operations. Unfortunately, traditional nitrogen gas acquisition requires the rental, delivery, installation, and removal of high-pressure cylinders. Canisters are inefficient, causing a lapse in production if delivery is late or supply is low. This process is not only more expensive than it needs to be, but it also creates more opportunities for workplace injuries.

Nitrogen generators, on the other hand, offer a better option. If your company is a regular user of nitrogen systems, consider installing your own nitrogen generator to enjoy the extensive benefits they provide.

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What is a Nitrogen Generator?

Before exploring the many advantages of on-site nitrogen generation, it’s imperative to know what a nitrogen generator is and how it works. These machines perform processes called Pressure Swing Adsorption (PSA) and Membrane Technology, which extract nitrogen from the air and compress it.

Nitrogen generators offer a continuous flow of pure nitrogen right to your production floor and eliminate any need to wait for canister deliveries or remain at the mercy of supplier prices. While the resource provided is essentially the same, the generator produces the nitrogen rather than having it transported in cylinders.

Uses of a Nitrogen Generator

There are many applications for nitrogen gas across a variety of industries. Any industry that currently uses nitrogen canister, cylinder, dewar, or liquid deliveries can benefit from an in-house nitrogen generation system. Depending on what line of business you’re in, a nitrogen gas generator can work seamlessly into your manufacturing process in different ways.

One of the most common industries for nitrogen gas is food and beverage production. Nitrogen helps to preserve food inside its packaging and extend its shelf life. This is doubly important for bulk food products that might be stored for longer periods, as well as foods that don’t include preservatives in their ingredient lists.

The wine industry also benefits from nitrogen, as it helps keep the wine from going bad. In a non-consumable sense, nitrogen also extends the shelf life of things like paint and household solvents and prevents moisture and condensation in electronic part production. Additionally, nitrogen plays an integral role in quality assurance and consistency. On-site generators allow you to perform all of these tasks and more without a third-party supplier.

Why Make the Switch?

While disrupting and changing your current process can seem daunting, owning a nitrogen generator has numerous benefits that far outweigh any reservations you may have. The advantages of a nitrogen generator are widespread and touch on nearly every aspect of your business.

nitrogen-applications

Below are the primary benefits of switching to an in-house nitrogen generator:

1. Improved Safety

Replacing and transporting nitrogen cylinders presents a safety hazard to your team. Nitrogen generators stabilize the gas, so you don’t have to worry about explosions or injuries. In fact, they’re so safe that they can be installed right on the floor of your production room where they’re needed most. There is no risk to your employees’ wellbeing.

2. Unparalleled Reliability

Unlike canisters, cylinders, dewars, and liquid methods, nitrogen generators produce an infinite supply of gas, so you never have to worry about pausing production to wait for a delivery. While local nitrogen deliveries can run out or run late, a generator system keeps up with your demand and works on your schedule.

3. Fewer Wasted Resources

Approximately 10 to 20 percent of a canister’s, cylinder’s, dewar’s or liquid method’s nitrogen gas is left unused. This can lead to higher costs and waste production levels. Generators do not have this issue, so you can rest assured that all of your reserves are being used efficiently.

4. Increased Savings

While canisters, cylinders, dewars, and liquid methods come with expensive rental and delivery fees and restrictive contracts, generators require very little beyond their initial cost. In fact, most companies see a return on investment in under two years.

After the initial investment is recouped, generators cost about one-tenth of the price of canisters, cylinders, dewars, and liquid methods per year. That’s a 90 percent difference in operating costs, which creates a significant surplus for most companies.

5. Customization Options

Canister, cylinders, dewars, and liquid methods are one-size-fits-all, but generators can be tailored to meet your exact requirements. This means that your machine will work at maximum efficiency, producing the precise amount of gas you need to maintain operations.

Bottom Line

Nitrogen generators can revolutionize your company’s production process, lowering your utility costs and improving your efficiency. Without dealing with the hassles of nitrogen cylinder delivery, you can grow your business to new heights.

How To Find Sustainable Building Material Suppliers: Our Top Tips

Transitioning to sustainable building materials offers plenty of advantages for the construction sector and the communities it serves. Sustainable structures reduce the amount of waste associated with building a new property. They’re usually less expensive to maintain and healthier for their occupants. As a result, sustainable construction has become an evolutionary advancement, which involves innovative techniques and materials.

Nevertheless, it can be challenging to find a reliable sustainable building material supplier to deliver high-quality and durable products. To make the process of searching easier, we will share our top tips to identify the right supplier for your business.

choosing sustainable building material suppliers

Learn More About Specific Characteristics

The definition of sustainable building materials can be a little vague. In general, it’s defined as any product that has a low impact on the environment and human health. For example, this often refers to reducing carbon emissions and improving indoor air quality. As a result, there are a few key supply features to keep in mind when it comes to green materials.

Be sure to check that products are durable and low-maintenance. Ensure that they use recycled content and are made from natural or renewable sources. It’s also important to confirm that they don’t contain highly toxic compounds and are obtained through a local manufacturer.

Research Delivery Logistics

To ensure that your project doesn’t get delayed, you will need to consider delivery logistics. For example, you might need to check that an aggregates supplier has a vast network of locations that can quickly ship products when required.

For example, Hanson is a supplier for aggregates, which uses road, rail, and water to distribute products from a network of depots, quarries, and wharves. In addition, this aggregates supplier has its own fleet of locomotives and wagons, created to manage aggregates distribution by rail. As a result, they offer products with nationwide delivery, ensuring they arrive on time.

Optimise Your Search

At times, searching for information on the internet can be frustrating, as you may often end up sifting through a stack of irrelevant information. This is why it’s important to refine your search, which will help you find the right green building material supplier. You’ll need to make your keywords as specific as possible to track down the information that you want.

Also, wherever possible, try to simplify your search terms by eliminating prepositions, conjugations, and articles from your search. You can further improve your search by adding your location to find local suppliers.

Read Up On Their Offerings

Next, you’ll need to spend some time reading up on potential suppliers’ offerings and ensure they have all the materials you require for your project. It’s important to determine if their decision-making and processes align with their values and priorities.

You may also ask to see a list of clients whom the supplier has worked with so that you can cross-check them. This will provide you with a better idea of the quality of their services and the types of materials they supply. Remember that quality is a crucial factor, so you’ll need to check that products meet the required standards.

bamboo as a construction material

Schedule Meetings

It may be helpful to schedule meetings with different suppliers so that you can find out more about their processes. This will help you find a supplier that prioritises your specific needs. Remember that a knowledgeable supplier will always ask about what their clients are building before proposing to sell any of their products.

For example, if you request a particular material, a good supplier may ask about its use first. They may want to know if you’re planning to address a structural deficit, use it on a new project, or simply fix a crack.

Check Their Sourcing Certification

You will want to find a building material supplier who adheres to responsible sourcing. It’s crucial that they are aware of exactly how building materials are made and by whom. For example, you should avoid working with suppliers who obtain their building materials through manufacturers who utilise risky working conditions. Such a supplier can damage your reputation and this can result in lost business and lawsuits.

Thus, it is essential to check their credentials and ensure they have responsible sourcing certification. As a result, you will be able to trust your supplier and form a better relationship.

Consider Pricing

Getting an idea about the current price in the market will help you ensure that you’re getting value for money. Therefore, if you find out that a supplier that you’re using is charging you more than normal, you may need to move to a different supplier.

To make an informed decision, be sure to find the lowest prices among suppliers in your area and look at trends that indicate whether the price is rising or declining. When it comes to choosing sustainable building material suppliers, you shouldn’t take any chances.

The Role of IT in the Bioenergy Sector

The bioenergy sector is growing rapidly, and it’s widely seen as a key solution to the global challenge of climate change. It has great potential to reduce greenhouse gas emissions while also providing energy security through renewable sources. However, a lack of IT can be an obstacle to further developments in this sector. That’s because IT is essential to accessing real-time data that helps make more informed decisions about production and distribution processes for bioenergy products, including biogas and ethanol.

IT in the bioenergy sector

If you’re in the bioenergy sector, you’re going to find that having robust IT systems set up for you by professionals is going to do most of the heavy lifting for you. To browse what this set up may entail, you can head over to https://tenecom.com/ where they go in much more detail.

In this article, the focus will be on the specific role that IT plays in the bioenergy sector:

1. Gives Access To Real-Time Data

In an industry as dynamic and rapidly changing as bioenergy, it’s important to have access to real-time data. Real time data allows stakeholders to always have their eyes on their plants and monitor close growths, threats and changes as they come.

A farmer may want a system that allows them to monitor their crop growth rate over time by using satellite imagery of their land; this type is called ‘remote sensing.’ This would help them determine when they need more fertilizer or irrigation water, so they don’t waste money on things that aren’t necessary at certain times (or too much of either). They could also use remote sensing technology on their crops during specific seasons when pests tend to attack certain plants and then use this information along with other sources like weather forecasts.

2. Improved Decision-Making Capabilities

In the bioenergy sector, information technology can be used to make better decisions. It can help you to make them faster and with more accuracy.

For example, a company that has its own fleet of trucks may want to use an application on a tablet-style device to monitor the location of its drivers at any given moment. With this technology in place, they could see when one of their drivers is running late or if they arrive at work before they’re supposed to (or not). This would allow them to make adjustments as necessary because they’ll have access to accurate information about what’s happening on the road at the moment.

3. Improved Processes

Bioenergy is becoming a more important part of the energy industry, but it’s still in its early stages. As the bioenergy sector grows, so will the need for IT professionals who can help manage and improve processes.

The creation of bioenergy requires a lot of complicated processes that must be monitored and managed to ensure efficiency. For example, if a company wants to build an ethanol plant from scratch, it must make sure that each step in its manufacturing process works as intended—from growing plants to distilling alcohol out of them on an industrial scale—and that nothing goes wrong along the way. If anything goes wrong (and it often does), then there will be delays or even complete stoppage until repairs are made or new equipment is installed.

hazards of biofuel production

With modern technology at their disposal via IT solutions such as data analytics software or sensor networks, companies can make sure that everything runs smoothly before something bad happens, and they lose valuable time trying to fix problems after-the-fact rather than preventing them beforehand. This can be done through better planning beforehand with proper data collection methods such as sensors placed all over production facilities throughout entire supply chains.

4. Increased Operational Efficiencies

As more and more businesses turn to IT, it’s becoming clear that technology is critical for improving efficiencies across the board. In the bioenergy sector, there are many ways that IT has improved operations:

  • Reduced Cost of Operations: Improved communication means less time between management and employees, which means reduced labor costs. Additionally, better data management allows you to make smarter decisions about your business plan moving forward. This might involve reducing inventory or cutting back on energy consumption in order to save money on capital expenditure (CAPEX).
  • Reduced Time To Market: By implementing automation tools like artificial intelligence (AI), big data analytics can now accelerate product development cycles by providing insights into what customers want before they even know they want them. AI also improves operational efficiency by helping you reduce waste by predicting when certain products will go bad so they can be replaced before expiration dates arrive—all while increasing overall operational efficiency at every step along this process through automation tools like AI, which provide insights into what customers want before even knowing themselves.

5. Improved Control Of Biogas Processes And Automation

Automation provides better control of the biogas process and helps to avoid human error. This results in more reliable and consistent production, as well as reduced costs, increased safety, and improved efficiency and productivity.

biogas-enrichment

An automated control system may also include an alarm system that alerts operators of any issues or problems with the process taking place. The information provided by this system can help operators troubleshoot issues quickly and efficiently so that they do not have to wait too long before remedying them. In addition to saving time, this can also prevent delays that might cause customers who rely on your service to go elsewhere for their needs (especially if you’re providing bioenergy).

Conclusion

We’ve covered a lot of ground in this article, but there is still more to explore. IT in the bioenergy sector has the potential to make a significant impact on our environment and our lives. The integration of new data, automation, and communication systems will be key to success. But as we’ve seen with solar panels, wind turbines, and other renewable energy endeavors—the benefits are worth it!

Asbestos Related Illnesses in the Bioenergy Industry

When we think of asbestos, we usually picture old, condemned buildings filled with harmful asbestos-based insulation, but this isn’t always the case.

Since 1989, the use of asbestos has been banned in construction work in the UK and many buildings which contain this harmful substance, are being replaced or made safe.

While this is of course, good news, these buildings are not the only source of asbestos and in this article, we’ll be examining the rising cases of mesothelioma compensation claims by bioenergy industry employees.

Asbestos Related Illnesses in the Bioenergy Industry

What is Asbestos?

A naturally occurring substance, asbestos is a fibrous silicate mineral made up of long, thin microscopic fibrous crystals.  When dormant, asbestos can be relatively harmless but, the danger occurs when fibrils are released into the atmosphere and inhaled by humans.

Inhalation of asbestos can lead to serious diseases such as COPD and mesothelioma, a form of lung cancer which is associated with asbestos and which is almost always terminal.

In recent years, concerns have been growing over the number of bio energy employees who have been diagnosed with this devastating disease

What is Bioenergy?

Bioenergy is the term used for the generation of gas and electricity which is renewable and which causes less harm to the planet’s resources than other, more traditional methods which use coal, oil, natural gas and nuclear energy.

Bioenergy methods use organic matter such as food waste to create a flexible energy source. Wet feedstocks like food and other organise material is placed into sealed tanks and allowed to rot. This creates methane gas which can then be collected and burned to generate electricity. Dry materials like wood pellets are also burned in a furnace to boil water, create steam and thereby generate electricity.

Although bioenergy does produce carbon dioxide and release it into the atmosphere, it does so only at the rate at which the organic matter absorbed the carbon dioxide while growing. This makes it greener and more sustainable.

Energy crops are grown in the UK specifically for the use of producing bio-energy. There are currently 1855 bioenergy plants in the UK, employing around 35,000 people.

What’s the Connection Between Bioenergy and Mesothelioma?

At the beginning of this article, we mentioned that old buildings containing asbestos insulation are not the only places that asbestos can be found. In fact, at any given time, the air we breathe can contain asbestos.

However, this is usually at incredibly low levels of between 0.00001 to 0.0001 fibers per millimeter of air and does not pose any danger to human health. Having said that, many doctors will disagree, as many will argue that no level of asbestos is ever safe.

On average, it’s thought that the ‘danger zone’ for asbestos stands at around 1%. An individual who has been exposed to dangerous levels of asbestos may be unaware of this as symptoms will often not present themselves until ten or even twenty years after the exposure.

Asbestos occurs naturally in rocks, particularly altered ultramafic rocks and some mafic rocks. Asbestos can also occur naturally in some kinds of soil.

The Connection Between Plant Workers and Illnesses

It has been discovered that, in some instances, dedicated bioenergy crop sites have been created on land where the soil has been contaminated by asbestos, either naturally or through previous commercial endeavors.

Employees who are responsible for working with these crops including planting, nurturing and picking, become vulnerable to high levels of asbestos. When inhaled, this level of asbestos can be harmful to health and has led to mesothelioma.

As well as soil contamination, the process of converting food and organic waste into energy such as creating methane, can produce small amounts of asbestos. Although these may be minimal, continued exposure over time can lead to health problems in workers, including mesothelioma.

Unfortunately, mesothelioma is often caught late and on average, the life expectancy of the patient from the point of diagnosis is only between 4 and 18 months.

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Asbestos Claims in the UK

In 2020, there were 17,023 asbestos compensation claims, with payouts of around £233.9 million. Despite almost forty years passing since the prohibition of asbestos in buildings, some UK solicitors report that claims are increasing rather than dwindling as victims seek financial compensation after being diagnosed with asbestos related diseases.

While some of these claims are made by former employees of old-style power plants, more and more are now emerging from bioenergy facilities.

Further Risk Assessments Need to be Improved by Employers…

In 2022, it’s reasonable to assume that, when you start a new job, the last thing on your mind is the risk of coming into contact with asbestos. Many of the bioenergy employees who are now making claims are justifiably angry about the fact that they were never made aware of any risk during the course of their work.

While this is devastating, it’s not necessarily evidence of sinister dealings by bioenergy companies. In many cases, employers did not inform their employees of risk for the simple reason that they weren’t aware of it themselves.

There’s no doubt that bioenergy is the future as we continue to move away from environment harming processes. However, while we call this progress in some ways, employers will need to examine all of their processes and materials to identify any possible risks to employees, in order to prevent unnecessary illness and death.

10 Most Common Injuries in the Waste Management Sector

Waste management is a vital part of our lives and one which helps to keep our homes free from pests and disease. Employment within the waste management sector is usually secure and well paid, however, it’s not without its risks.

Personal injury solicitors have revealed that a significant number of the claims that they handle are on behalf of those working in waste management. So, just how dangerous is the job?

Keep reading to find out the 10 most common injuries in the waste management sector, and what they may mean for employees.

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1. Cuts and Abrasions

Waste management employees spend a lot of their time handling unwieldy wheely bins and guiding them into large metal trucks. Although these employees wear gloves and other protective clothing, having to work quickly in order to meet the demands of their schedules means that they are often subject to cuts, bruises and abrasions. While these are usually not serious, a number of these injuries will require a visit to A&E.

2. Musculoskeletal Disorders

Musculoskeletal disorders are increasingly common among those working in the waste management industry; particularly back problems due to repeated bending and lifting.  In some cases, these injuries can be life changing and can result in early retirement in instances where the condition means that the employee is no longer able to do the job.

3. Skin Irritation

The official description of waste is ‘a composite mixture of different substances including endotoxins, organic dust and bio-aerosol stuffed with micro-organisms, and various toxic organic and inorganic chemicals’. This goes to show that waste is made up of all sorts of nasties which can cause skin irritations. Although not life threatening, these can certainly be unpleasant and can cause itching and soreness when waste employees come into contact with them.

4. Lung Conditions

A more serious byproduct of working in waste management is that of respiratory diseases such as asthma and COPD (Chronic Obstructive Pulmonary Disease).  While these conditions can be managed to a certain extent, they are not curable and, particularly in the case of COPD, will progressively become worse and result in early death.

5. Being hit by a Motorist

Waste management employees are often working on busy streets and, because they tend to do their rounds early in the morning, they may be working in the dark during the winter. These conditions mean that bin men are sometimes at risk of being hit by motorists as they go about their work.

In 2018, a waste management employee in Slough was signed off work for eight weeks after being hit by a motorist who had not properly cleaned snow and ice from their windscreen.

6. Slips and Trips

Hard working waste management employees are out and about in all kinds of weather and, sometimes even the sturdiest, grippiest boots are no match for pavements and roads made slick by snow and ice. Every year, a large number of bin men suffer a form of injury through slipping or tripping during the course of their work.

7. Bacteremia

A less common injury, but a serious one nonetheless, is bacteremia. This is a dangerous infection which is caused by coming into contact with used hypodermic needles which have been carelessly disposed of.

Those suffering from this disease face a long recovery process and, often, early retirement. In Sussex in 2012, two binmen had their hands pierced by needles that had been incorrectly disposed of and had to face. As a result, they had to go through 6 months of medical checks.

Non-Hazardous and Hazardous Pharmaceutical Waste

8.  Falling Objects

Falling objects can be a serious concern for bin men – both that of objects falling from their lorries and other factors from their surroundings. One such incident ended in tragedy in 2013 when a 55-year-old waste management worker was killed after being hit by a telegraph pole which his lorry had collided with. Poor visibility can often mean that waste workers are vulnerable to injury from falling objects.

9. Stress and Anxiety

Very few jobs can be considered stress-free, and waste management certainly isn’t one of them. As well as being required to stock to tight schedules on often understaffed routes, bin men also often have to contend with disgruntled customers taking their frustrations out on them. These issues can lead to mental health issues such as anxiety and depression which can also have a knock-on effect on physical health.

10. Poor Weather Conditions

We’ve already mentioned weather earlier in this article as, if there’s one thing certain about the weather is that it cannot always be predicted accurately. While this final piece is, thankfully, not a hugely common one, it is nonetheless a risk.

In 2019, a California garbage truck was struck not once, but twice by lightning, setting the truck on fire. Happily, nobody was injured in the incident but stories like this one are a very real reminder of just how dangerous weather systems can be for the humble waste management worker.

Personal Injuries in the Waste Management Sector Are Rife

Without waste management employees, our lives would be constantly at risk of disease, not to mention bad smells. As such, it’s incredibly important that councils ensure that working conditions for these employees are as safe as possible, as well as taking the time to ensure your disposing of your waste correctly. in addition to protecting employee health, putting stringent measures in place for their safety will ensure the smooth running of the services and will help with retention of valued staff members.

How Various Industries Get Ahead in 2022

No matter in which industry you choose to build your business in 2022, without a doubt there will be plenty of challenges along the way. Considering how many new startups are clamoring for the attention of their target audience, most business landscapes are highly competitive.

That said, just because an industry is competitive does not mean that it is automatically a miserable process to get ahead. Preparation is the number one priority. So long as you are aware of what needs doing as a new business owner, you can immediately compete with the best. Here are a few ways various industries get ahead in 2022.

startups-growth-plan

On the topic of the construction industry

Contracting and construction rely on project management and preparation to get ahead. Aside from trying to get the attention of potential clients through marketing, the important thing is to let clients know all about the developments that litter a construction project. That is what separates quality contractors from those simply trying to stay afloat.

For project management, it would be wise to make use of business software to help deal with the many steps involved in a construction project. It is also priority number one to deal with any issues regarding insurance and coverage, going for construction liability insurance and all other policies tied to construction as soon as possible.

For any new company dabbling in the IT industry

It can seem almost unfair to expect a new business to have a fully functional IT department right from the get-go — especially when budgetary constraints are a big problem. IT services are not the kind of thing that startups can handle overnight, though there are some surprisingly excellent alternatives.

Virtual reality in construction

For example, the choice to outsource managed IT services is practically mandatory for most companies, as there are plenty of businesses out there willing to offer quality services for a reasonable price. You can get plenty of traction with outsourcing your IT services, as it means that your company utilizes the experience of a much more competent business right off the bat. In addition, you can help your business to become more sustainable if you decide to hire managed IT services.

How restaurants get ahead

For the most part, getting ahead as a restaurant in 2021 has more to do with accessibility than just about everything else. For example, those with food allergies will likely avoid restaurants without any healthier alternatives — but it also means that their families will do the same.

You lose out on much of the potential revenue without prioritizing accessibility, and the fact that it’s so easy to add alternative ingredients to recipes makes it a no-brainer for most. Customer service is another thing to take seriously, as a great experience ensures that customers will be back, and perhaps with even more people!

Getting ahead in various industries tends to have a few similarities, such as with matters of insurance and the focus on customer service. That said, there are more than a few factors that startup owners of various companies should use to get a leg up on the competition. A bit of insight goes a long way!

Anaerobic Digestion of Tannery Wastes

The conventional leather tanning technology is highly polluting as it produces large amounts of organic and chemical pollutants. Wastes generated by tanneries pose a major challenge to the environment. Anaerobic digestion of tannery wastes is an attractive method to recover energy from tannery wastes.

According to conservative estimates, more than 600,000 tons per year of solid waste are generated worldwide by leather industry and approximately 40–50% of the hides are lost to shavings and trimmings. Everyday a huge quantity of solid waste, including trimmings of finished leather, shaving dusts, hair, fleshing, trimming of raw hides and skins, are being produced from the industries. Chromium, sulphur, oils and noxious gas (methane, ammonia, and hydrogen sulphide) are the elements of liquid, gas and solid waste of tannery industries.

Biogas from Tannery Wastes

Anaerobic digestion (or biomethanation) systems are mature and proven processes that have the potential to convert tannery wastes into energy efficiently, and achieve the goals of pollution prevention/reduction, elimination of uncontrolled methane emissions and odour, recovery of biomass energy potential as biogas, production of stabilized residue for use as low grade fertilizer.

Anaerobic digestion of tannery wastes is an attractive method to recover energy from tannery wastes. This method degrades a substantial part of the organic matter contained in the sludge and tannery solid wastes, generating valuable biogas, contributing to alleviate the environmental problem, giving time to set-up more sustainable treatment and disposal routes. Digested solid waste is biologically stabilized and can be reused in agriculture.

Until now, biogas generation from tannery wastewater was considered that the complexity of the waste water stream originating from tanneries in combination with the presence of chroming would result in the poisoning of the process in a high loaded anaerobic reactor.

When the locally available industrial wastewater treatment plant is not provided by anaerobic digester, a large scale digestion can be planned in regions accommodating a big cluster of tanneries, if there is enough waste to make the facility economically attractive.

In this circumstance, an anaerobic co-digestion plant based on sludge and tanneries may be a recommendable option, which reduces the quantity of landfilled waste and recovers its energy potential. It can also incorporate any other domestic, industrial or agricultural wastes. Chrome-free digested tannery sludge also has a definite value as a fertilizer based on its nutrient content.

Potential Applications of Biogas

Biogas produced in anaerobic digesters consists of methane (50%–80%), carbon dioxide (20%–50%), and trace levels of other gases such as hydrogen, carbon monoxide, nitrogen, oxygen, and hydrogen sulfide.  Biogas can be used for producing electricity and heat, as a natural gas substitute and also a transportation fuel. A combined heat and power plant (CHP) not only generates power but also produces heat for in-house requirements to maintain desired temperature level in the digester during cold season.

CHP systems cover a range of technologies but indicative energy outputs per m3 of biogas are approximately 1.7 kWh electricity and 2.5kWh heat. The combined production of electricity and heat is highly desirable because it displaces non-renewable energy demand elsewhere and therefore reduces the amount of carbon dioxide released into the atmosphere.

AD Plant at ECCO’s Tannery (Netherlands)

A highly advanced wastewater treatment plant and biogas system became fully operational in 2012 at ECCO’s tannery in the Netherlands. A large percentage of the waste is piped directly into the wastewater plant to be converted into biogas. This biogas digester provides a source of renewable fuel and also helps to dispose of tannery waste materials by converting waste from both the leather-making processes, and the wastewater treatment plant, into biogas. All excess organic material from the hides is also converted into biogas.

This project enables ECCO Tannery to reduce waste and to substitute virtually all of its consumption of non-renewable natural gas with renewable biogas. The aim is to use more than 40% of the total tannery waste and replace up to 60% of the total natural gas consumption with biogas.