What Are The Common Food Emulsifiers?

In the food industry, the process of making new products involves combining all the necessary ingredients more than anything else. Due to the need for concoction, other operations such as grinding, particle size reduction, emulsification, etc would take place.

Successful food manufacturing requires equipment like Ginhong mixers that will help mill, grind, reduce particle size, homogenize, disperse, and emulsify. Once done, manufacturers need to make sure that fused molecules of ingredients will no longer depart from one another. In order to do this, emulsifying agents must be added to the overall compound to stabilize it.

Source: The Spruce

What is an emulsifier?

First, let’s define what an emulsifier is. As soon as stirring halts, the emulsion starts to separate again. To maintain the even mixture, an emulsifier is essential. An emulsifier acts as a bond that holds the particles of the ingredients altogether. It makes the finished product soft and smooth in texture, improves the quality of the mixture, and keeps it firm and stabilized.

Water spattering in food preparation or cooking is also reduced by an emulsifier. It leads to better dispersion, solubilization, crystal modification, foaming, creaming ability, etc. Emulsions have many functions in food processing, even in other industries as well.

The Common Food Emulsifiers

Now that we have understood the definition and functions of an emulsifier in processed foods, it’s time to jump into the enumerated and expounded common food emulsifiers. Let’s begin!

  1. Lecithin

Lecithin is widely used in the commercial baking industry. This emulsifier, composed of fatty compounds, is present in eggs. Emulsifying properties are stored in the phospholipids existing in lecithin. It actually prevents the split of water and oil particles.

Good HDL cholesterol content is increased when lecithin is added to the food mixture, as stated by scientists. The droplets of oil in water are kept safe by this emulsifier, increasing the stability and shelf life of the food.

Lecithin is overflowing with health benefits too. It prevents high cholesterol and cirrhosis caused by drinking alcohol. Also, it improves nerve, brain and muscle functions.

  1. Fatty Acid Derivatives

There are different emulsifiers that can be derived from fatty acids. To name a few, polyglycerol esters (PGE), polysorbates, stearoyl lactylates, propylene glycol esters (PGMS), and sucrose esters are commonly known. In desserts like cakes and their icings, PGE is famously used. For toppings that are whippable, PGMS is mainly applied. Other products like gums, coffee, sauces, etc need sucrose esters in holding their particles.

  1. Polyglycerol Polyricinoleate (PGPR)

Baking is an appealing activity, especially for moms. We all can’t deny that cookies are tasty that’s why our sweet tooths would always go for it anytime. In manufacturing chocolates for applications such as baking, polyglycerol polyricinoleate (PGPR) works in enhancing the thickness and volume of the product. Chocolate coatings flow satisfactorily when PGPR is added unto its mixture. It also complements lecithin when combined.

Factories find PGPR as a helpful agent in maintaining the good quality of the chocolate or other products that require certain smoothness and viscosity. With that, baking will be much fun for everybody who loves doing it.

  1. Ammonium Phosphatide (AMP)

Ammonium phosphatide (AMP) is sunflower-based. The use of AMP has been most triumphant in chocolate and confectionery manufacturing. It is chiefly efficacious in achieving uniformity and steadiness of the mixture, leading to high-quality food products. It does pretty well in keeping the right attributes of the food. The size, texture, smell, texture, thickness, etc.

AMP can be used as a good alternative of lecithin but it can also be applied with it plus the PGPR.

  1. Mono and Diglycerides

Monoglycerides stay firm in the so-called ‘apha crystalline formation’. As it is very versatile, it works well in foams that are whippable while managing the agglomeration of fats. When water molecules need to be dispersed in a fat phase, monoglycerides serve as an instrument that fairly distributes water into the oil.

For products like chocolates, it gives the sensation that feels like the food product is melting inside your mouth – adding the tastiness of the food. It prompts the smoothness and consistency of the processed bulk. The crystalline structure of the food becomes balanced through its help.

These are the most used food emulsifiers from the early times until today. They are produced when palatable oils are blended with glycerin. Aside from chocolates, baked and dairy products are the ones to consume them most as well.

Conclusion

Aside from holding the ingredients altogether, emulsifiers make the food you eat much more appealing in taste and in appearance. Preservation is also important in prolonging the shelf lives of different products. An emulsifier helps in maintaining the freshness as well as good quality of goods for varying times of consumption. Low fat spreads are prone to mold growth. Hence, an emulsifier as an accessible solution.

There is an appropriate emulsifier for every application. Make sure you’re using the right one!

CRISPR Gene Editing Set to Revolutionize Waste Management

When people think of waste management, gene editing probably does not come to most people’s minds. Yet the innovative CRISPR genome modification technology fits well within the confines of managing pollution and waste on the planet. In particular, scientists are looking at how CRISPR can help with bioremediation, or pollutant neutralization.

Why Neutralize Pollutants?

The planet is in dire need of help as the negative impact of climate change hovers on the horizon. One of the ways that researchers are revolutionizing waste management and environmentalism is by neutralizing the pollutants that are taking up space in our landfills and oceans.

Scientists have noticed that certain organisms are particularly good at removing toxins from pollutants while others have the advantage of immobilizing toxins. Researchers are connecting the dots in order to figure out how CRISPR can help make these processes more efficient.

CRISPR-Aided Bioremediation

While it is great that scientists have discovered microorganisms that can metabolize pollutants and produce less toxic matter, what if those properties could be expanded?

CRISPR researchers are trying to do just that by using genetic editing to transfer more advantageous genes to other organisms, thus giving them even more power over toxic pollutants. This would speed up the process of natural bioremediation techniques without adding high costs and dangers.

An Edge Over Traditional Techniques

Using CRISPR technology, especially the promising CRISPR/Cas9 lentiviral system, will not only speed up the process but it will do a better job than traditional methods of bioremediation. By using the gene editing technique, scientists can create more chemically superior microorganisms that have more advantageous enzymes. That results in better neutrality of harmful pollutants in the planet’s soil and oceans. In turn, this also ramps up molecular biodiversity, which improves the cleanup process.

Speaking of molecules, the CRISPR method targets different molecular processes within a microorganism’s cells, either to regulate an existing gene or to create an entirely new one. When looking at a particular gene, scientists analyze its ability to target pollutants as well as its process for remediation.

Enhancing Bioremediation with CRISPR

Experts need to keep several aspects in mind when improving the abilities of a remediating organism and ramping up its efficiency. First of all, they need to look at the molecular pathways that lead an organism to remediate or neutralize a pollutant. Are there changes or improvements scientists that can make to these pathways? What can they add or take away?

They do a similar thing with the organism’s enzymes. Next comes bioprocessing and biosensor development, which allows scientists to test the microbial cells for chemical testing and removal efficiency.

Removing Harmful Pollutants

Take mercury, for example, which is a metal that is harmful to the planet as well as those who live on it. The E. coli bacteria has a removal efficiency of 96 when it comes to eradicating mercury.

Scientists can take that Hg2 gene and transporter and perhaps transport it to another microorganism that can metabolize and neutralize another type of pollutant. Researchers continue to look at how this technique can help us clean up the growing number of pollutants in the environment.

It is not just microorganisms that they’re working on, either. Genetic manipulation in plants is another exciting endeavor that could help out in the bioremediation field. By looking at the detoxification processes in certain plants, scientists are trying to figure out how to use CRISPR technology to amp up bioremediation or, rather, phytoremediation efforts.

Some human genes could be especially useful to certain plants that can target heavy metals in the soil. Whether they enhance existing plant species or generate completely new ones, this is an exciting development in remediation efforts against pollutants.

Summer Activity! Start an Indoor Garden!

If you’re worried about your kids losing academic skills over the summer, you might be searching for activities to keep them mentally stimulated. You might have already signed up for a summer reading program or researched some fun math activities. However, throwing in some hands-on science activities can also be fun and educational for kids!

bees-garden

Kids learn best when they’re actively engaged in an activity. If you’re looking for a fun hands-on science activity that you can start this summer and continue into the school year, consider growing your own indoor garden!

Benefits

Aside from providing a fun activity, there are additional benefits to starting an indoor garden.

  • Having plants around your house improves your air quality because they aid in air filtration.
  • If you opt for herbs, veggies, or fruits, you can use what you grow in your cooking
  • Plants are aesthetically pleasing
  • A garden will attract birds, bees, butterflies etc.
  • Taking care of plants can provide your child with a sense of responsibility

Gardening options

An indoor garden doesn’t have to be overwhelming. You can make it as large or as little as you would like.

A small garden can be as simple as getting a few small pots and placing them in your windowsill. Even watching a single seed grow can provide some good educational talking points. If you opt for this option, you’ll want to make sure you choose a window that gets a good amount of sunlight.

If you want to take your indoor level to the next level, you can invest in an indoor garden box to put near your windows. These are raised boxes specifically designed for indoor gardening. Most gardening stores sell them, or you can build your own. A bonus of building your own is that you can build it at the perfect height for your tiny gardener!

If you have older children who already have a good understanding of gardening basics or if you’re living in a small space, you might want to consider a hydroponic system. Hydroponics involves growing plants using a nutrient-rich solution instead of soil. You can find a number of hydroponic kits to get started available online, or you can build your own system.

What you’ll need

Plants

Decide if you want to grow flowers, fruits, vegetables, or herbs. After you pick what you want to grow, decide if you want seeds or cuttings. Starting with seeds is a great option if you have kids because they’ll get to see the entire life cycle of a plant. Seeds also tend to be less expensive, which can be useful if some of your plants end up not making it.

Containers

You can use almost anything for a container as long as there is proper drainage. You can buy plastic or clay pots meant for gardening. These pots will have drainage holes at the bottom.

For a less expensive option, you can dig through your recycling bin for old milk cartons, butter containers, or egg cartons. Just make sure to punch holes in the bottom of your recycled container for drainage!

Grow lights

If you live in a house or apartment that doesn’t receive a lot of natural sunlight, you’ll either need to invest in plants that don’t need a lot of sunlight or invest in grow lights. Grow lights are a great option because they are specifically designed to provide indoor plants with the light they need. Even if you live in the darkest of homes, a grow light will have you saying “Look at our new indoor garden”!

Growing medium

You’ll, of course, need something for your plants to grow in. If you’re going with the traditional container or the garden box approach, you’ll want to invest in a quality potting mix. If going for the hydroponic approach, you’ll want to choose a medium that works well with your chosen system.

Child-size gardening tools

Your child will enjoy having their own tools to garden with! Invest in shovels, trowels, and watering cans that are the right size for your child.

Connecting it to learning

The best way to connect your new garden to learning is by taking your child’s lead. Children are naturally curious, so wait for your child to ask questions. You and your child can then research the questions together, either on the computer or at the library.

Possible topics you’ll explore together include why do plants need sunlight, what the life cycle of a plant is, and how can you tell if a plant is healthy.

Remember — keep it fun! The whole point of your new indoor garden is to allow your child to explore the world around them. A great indoor learning environment creates happy and healthy kids.

Is Aquaculture the Answer to World Hunger?

aquaculture-fish-farmsFeeding a growing world population could become problematic, but aquaculture might hold the key. If humans are anything, we are resourceful. We see a problem with the world, and we do what we can to fix it.  When being nomadic and following food sources was no longer sustainable, we solved the problem by developing agriculture.  Currently, as the population continues to grow and our taste for seafood increases, we’re trying to find ways to meet demand and, at the same time, sustain wild populations of fishes.

Aquaculture is the answer to this current dilemma. Farming fish for food has been around since about 2000 B.C. Since then, technology has helped it advanced and developed better techniques to raise fish for food.

Benefits of Aquaculture

Fish is a great source of protein, and it also contains essential minerals including potassium, zinc, iodine and magnesium. Fish are also rich in phosphorus and calcium. For a healthy heart, the American Heart Association recommends eating fish twice a week.

The health benefits of fish are more than enough reason to eat them, but they are also a delicious meal. There is a large variety of fish to choose from, including freshwater and saltwater varieties. However, the increased amount of people eating fish has had an impact on wild populations. To prevent certain species from being overfished, it is important to find an alternative to providing fish to people, and that includes aquaculture.

Different types of aquaculture must be used to raise different species of fish. Large companies can engage in aquaculture on an industrial scale with fish held in tanks or in pens in lakes, ponds or even the ocean. Families can even perform aquaculture in their backyard.  The variety of fish that you can raise for food includes catfish, bait minnow, trout, carp and tilapia, among others.  It’s also possible to raise shellfish, including oysters and shrimp. Want to try your hand at growing water plants?  You can also use aquaculture principles for water chestnuts and red and brown algae.

Studies have shown that marine aquaculture has the potential to produce 16.5 billion tons of fish per year, which is more than enough to feed the growing population and meet nutritional needs.

Different types of aquaculture must be used to raise different species of fish.

Different types of aquaculture must be used to raise different species of fish.

In some areas, such as parts of Africa, aquaculture has made an enormous impact on the local community’s economy and employment as well. The food produced helps to sustain Africa’s growing population and provides local jobs with steady income.

The Downside of Aquaculture

While it has the potential to feed hungry communities and contribute to local economies, there are some problems associated with aquaculture. Having too many fish in a tank can lead to the spread of disease.  Also, the type of feed the fish eat can impact how healthy they are for humans. Keeping fish in pens in lakes, ponds or the ocean might cause the spread of parasites to wild populations.  Farmed fish could also escape their enclosure and, as a result, alter the natural ecosystem.

Recognizing the shortcomings of aquaculture is the first step to remedying its problems. As technology and farming practices advance and techniques improve, it’s possible that we will resolve many of these issues. This will lead to greater benefits for the human population that depends on fish for food.

Humans have the ingenuity and drive to make the world a better place for themselves and others. Population growth isn’t going to slow down any time soon, and we need to make sure everyone is taken care of and has enough to eat. While aquaculture has its pros and cons, it can be a sustainable and economic way to feed hungry people.  In time, it may even be the answer to world hunger.

How Artificial Intelligence is Saving Our Planet

It takes a high level of data analysis to predict the effects of climate change and the implications of our actions to stop and adapt to it. Often, scientists have terabytes of data, but not the computing power to make sense of climate issues like hurricanes. But this level of analysis is possible with artificial intelligence (AI). In fact, AI may be the best weapon we have to combat and adapt to the effects of climate change. That’s because it can analyze large chunks of data from past events and make accurate predictions about future ones.

Today, AI is helping to monitor and predict everything from glacier retreat to commercial waste management. As innovations in “deep learning” march on, AI’s prescience will help inform scientists about climate impacts and policymakers on the most prudent steps for adaptation. Here are some critical ways AI is helping to preserve our planet.

Smarter Home Energy Use

AI is helping save the planet by assisting homeowners through energy-efficient smart homes. The Internet of Things and today’s “smart devices” let homeowners control their energy use and lower their monthly bills. Smart thermostats can adjust temperature settings for specific rooms in a house. Smart water sprinklers can change water usage based on weather forecasts. And smart security systems can cut down on false alarms calls — so fewer gas-guzzling trips by first responders. The automation, connection, and prediction power built into these smart devices allow homeowners to lower their carbon footprint.

But smart energy use is not just about conservation — it’s also about the best time to use energy. Peak energy hours like evenings are higher-demand, higher-cost times. Smart devices can automate energy use for low-demand hours. Plus, off-peak times like mid-day are when alternative energy sources like solar and wind contribute the most. Therefore, smart technology promotes renewable energy.

Soil Conservation

Soil degradation is a problem often overlooked in the media. But it has serious consequences for humanity’s ability to adapt to and survive climate change. It takes a millennium to generate only three centimeters of topsoil, and soil degradation is happening at a much faster rate. Chemicals, deforestation, erosion, and global warming are major contributors to soil degradation. And if the current rate of degradation continues, the planet’s farmable land could disappear within 60 years, according to United Nations officials.

But farmers and scientists are using AI to help conserve the soil by marshaling complex algorithms along with robots and drones to detect erosion and monitor soil health. For example, one company has developed an agricultural app to help farmers identify nutrient deficiencies within their soil. And farmers are using machine learning to predict the best times to plant, irrigate, and harvest crops based on weather changes. Accurate predictions mean less need for pesticides and fertilizers, which degrade the soil.

Exploring and Protecting Oceans

Scientists watch and test the health of oceans because they’re the best indicators of Earth’s health. Microplastics, increased CO2 levels, and ocean acidification are changing the surface of the planet. The key to protecting oceans is exploring and monitoring them for changes. Climate scientists and oceanographers are using AI technology to drive autonomous marine vehicles to the deepest depths. And some companies are developing autonomous garbage collection systems that would help remove plastics and floating debris.

Another emerging technology — blockchain — is helping to track fishing and identify illegal behavior. Blockchain is the same technology that powers cryptocurrencies like Bitcoin. The technology acts as a transparent ledger for transactions. Blockchain is a decentralized system, which means it operates autonomously and isn’t subject to misuse and abuse. Trust is critical to international treaties that regulate fishing quotas and manage overfishing. Blockchain technology can record each fish (e.g., tuna) with a scannable code uploaded to the ledger. Therefore, retailers, customers, and regulators can confirm that fish are legally caught.

Air Pollution Detection

AI is becoming an invaluable tool for tracking our air quality and identifying sources of pollution. During accidental emissions, city air quality officials need to identify and respond quickly. Some European cities are using leak sensors and AI to help create emission maps, predict mortality rates, and estimate financial costs of emergency responses. These data points give decision makers a more accurate view of the air pollution along with more targeted remediation.

In addition to monitoring air pollution, AI is also cutting tailpipe emissions. AI manages self-driving cars to make getting from point A-to-B more efficient. Self-driving automobiles can cut oil consumption and greenhouse gas emissions by 2% to 4% annually. AI and global positioning systems operating driverless tractor-trailer rigs will make deliveries non-stop, faster, and less costly to the planet. Complex algorithms, sensors, and traffic lights are directing traffic flow in some cities. These systems are currently reducing travel time by 25%, braking by 30%, and idling time by 40%.

Evaluating the Efficacy of Action

AI is bringing powerful ways to monitor and predict threats to our environment. Synthetic thinking adds value for scientists, officials, and policymakers by giving them deeper looks into current environmental situations. Perhaps, more than anything, AI’s biggest potential lies in figuring out where solutions hit the mark and where they miss. It’s counterproductive to invest resources and time into bad solutions. But that’s highly likely, given the complexity of climate change and adaptation.

Where do we invest? Which coastline needs saving the most? What communities are at a higher risk? With dwindling resources and bigger dangers, we will face some hard decisions in the future about where to deploy our efforts. At some point, those decisions will mean life or death. We will need quick thinking and accurate data. Evaluating our options and predicting their implications is where AI will bring the most value.

Carbon Black: Promise and Potential

Carbon Black is a commercial form of solid carbon that is manufactured in highly controlled processes to produce specifically engineered aggregates of carbon particles that vary in particle size, aggregate size, shape, porosity and surface chemistry. Carbon Black typically contains more than 95 % pure carbon with minimal quantities of oxygen, hydrogen and nitrogen.

In the manufacturing process, Carbon Black particles range from 10 nm to approximately 500 nm in size. These fuse into chain-like aggregates, which define the structure of individual Carbon Black grades.

What is Carbon Black

Carbon Black is used in a diverse group of materials in order to enhance their physical, electrical and optical properties. Its largest volume use is as a reinforcement and performance additive in rubber products.

In rubber compounding, natural and synthetic elastomers are blended with Carbon Black, elemental sulphur, processing oils and various organic processing chemicals, and then heated to produce a wide range of vulcanized rubber products. In these applications, Carbon Black provides reinforcement and improves resilience, tear-strength, conductivity and other physical properties.

Carbon Black is the most widely used and cost effective rubber reinforcing agent (typically called Rubber Carbon Black) in tire components (such as treads, sidewalls and inner liners), in mechanical rubber goods (“MRG”), including industrial rubber goods, membrane roofing, automotive rubber parts (such as sealing systems, hoses and anti-vibration parts) and in general rubber goods (such as hoses, belts, gaskets and seals).

Applications of Carbon Black

Besides rubber reinforcement, Carbon Black is used as black pigment and as an additive to enhance material performance, including conductivity, viscosity, static charge control and UV protection. This type of Carbon Black (typically called Specialty Carbon Black) is used in a variety of applications in the coatings, polymers and printing industries, as well as in various other special applications.

Actually, after oil removal and ash removal processing from tire pyrolysis, we can get high-purity commercial carbon black, which can be used to make color master batch, color paste, oil ink and as addictive in plastic and rubber products. Besides, after activation treatment, the carbon black will become good materials to produce activated carbon.

In the coatings industry, treated fine particle Carbon Black is the key to deep jet black paints. The automotive industry requires the highest black intensity of black pigments and a bluish undertones.

Carbon Black has got a wide array of applications in different industries

Small particle size Carbon Blacks fulfill these requirements. Coarser Carbon Blacks, which offer a more brownish undertone, are commonly used for tinting and are indispensable for obtaining a desired grey shade or color hue.

In the polymer industry, fine particle Carbon Black is used to obtain a deep jet black color. A major attribute of Carbon Black is its ability to absorb detrimental UV light and convert it into heat, thereby making polymers, such as polypropylene and polyethylene, more resistant to degradation by UV radiation from sunlight. Specialty Carbon Black is also used in polymer insulation for wires and cables. Specialty Carbon Black also improves the insulation properties of polystyrene, which is widely used in construction.

In the printing industry, Carbon Black is not only used as pigment but also to achieve the required viscosity for optimum print quality. Post-treating Carbon Black permits effective use of binding agents in ink for optimum system properties. New Specialty Carbon Blacks are being developed on an ongoing basis and contribute to the pace of innovation in non-impact printing.

Top 4 Benefits Of Natural Gas

All areas of our lives are literally run by energy. And with various options of energy consumption choices, it’s always good to know the benefits of each one of them so that you make a great consumer choice. Today, in this article, we are focusing on natural gas and are going to take you through some of its top benefits. So if that’s what you have been searching for, then you are at the correct place. Let’s get started!

  1. Clean Burning Fuel

When compared to coal, oil, and diesel, natural gas is cleaner as it emits the least percentage of carbon dioxide and other related harmful chemicals. So when you use one, you don’t have to invest in emission lowering technologies as the efficiency is top notch. Also, since it’s odorless, it makes little contribution to air pollution and doesn’t cause any harm when inhaled by people and animals.

  1. Versatile

There is a given sort of flexibility and convenience that comes with the use of natural gas. With it, you enjoy the ease of starting and turning off as it won’t take much of your time. Also, since it isn’t dependent on the wind or the sun, it can function pretty well when used with solar and wind powers. It’s a source you can depend on no matter the weather conditions outside.

So if this seems like something you would like to try out, then it’s advisable to carefully go through an apples to apples comparison of the various natural gas providers and settle for one according to your needs and financial capability.

  1. Affordable

With the current hard economic times, people are always on the lookout for affordable but efficient options when it comes to products or services affecting their billings. So natural gas couldn’t have been easily accessible at a better time. In fact, it’s by far one of the cheapest energy options in the current market. This is because, even as you calculate the long-term costs of seemingly cheap options such as generators, you will realize that they aren’t as affordable as they might appear in the beginning. Take the fuel and maintenance costs, for example, you will end up spending much more than you can ever imagine.

But this isn’t the case with natural gas. According to recent findings, its cost is expected to remain constant or relatively unchanged at least even for the next decade. So you can be sure that it’s a long-term investment, worth every cent. You make one and forget about unnecessary expenses.

  1. Reliable Delivery Infrastructure

This is probably one of the natural gas‘s primary benefits. This is because you can still receive your delivery of natural gas even during extreme weather conditions such as storms, through the pipes. A case that’s different from other energy sources. Also, the infrastructure is already established in most urban areas.

Final Thoughts

Natural gas is a clean fuel that can be used in various places while keeping the air fresh and clean. Together with this, there are various benefits associated with its use and this includes the affordability, reliable infrastructure, versatility, among others. The above list isn’t exhaustive.

Inside the World of Electricity

Electricity, we use it every day but what is it? The dictionary defines it as a form of energy resulting from the existence of charged particles (such as electrons or protons), either statically as an accumulation of charge or dynamically as a current. This may sound confusing, but by breaking it down we can understand how it works. Electricity is used for many everyday things but breakthroughs of how to use it have resulted in many cool inventions, some of which you can explore on thehomesecuritysuperstore.

A Closer Look at Atoms

So, what is electricity? To understand how it works we have to break it down, starting with the charged particles. Everything is made of atoms, and these atoms are mostly empty space. Moving around in the empty space are electrons and protons. These each carry an electric charge, electrons being negative and protons being positive. These opposite charges attract each other. The atom is in balance when there are an equal number of protons and electrons. The number of protons determines what kind of element the atom is, and these numbers and elements are shown on the periodic table.

Imagine the atom as having rings around the nucleus, the center of the atom. These rings can hold a certain number of electrons which move constantly around the nucleus which holds the protons. When the rings hold electrons that are attracted to the protons the strength of this attraction can push an electron out of its orbit and even make them shift from one atom to another. This is where electricity occurs.

Traveling in Circuits

Now that we know the basics of what electricity is, we can look at how it works. For a basic understanding of how electricity travels through circuits and how we use electricity we will look at batteries and light bulbs. Batteries can produce electricity through a chemical substance called an electrolyte.

The battery is attached to two metals, one on either end, and produces a negative charge in one metal and a positive charge in the other metal. When the battery is then connected on either end by a conductor such as a wire the electrical charge is balanced. If you were to attach a light bulb to the wire in between the sides of the battery, the electrical current would then travel through the light bulb to get to the other side of the battery and thus powering the light.

Electricity moves through electrical circuits and must have a complete path for the electrons to move through. The switch or power button on electronic devices opens and closes this path. When you turn on the light switch the circuit is closed and electrons can move freely to turn on your lights. When you turn off the switch it opens the circuit not allowing the electrons through and turning off your lights. When light bulbs burn out the small wire connecting the circuit inside the light bulb breaks and stops the flow of electrons.

Final Thoughts

Energy flows through our entire world and understanding how it works is just the beginning. Of course, most of the electricity in your life is not connected to a single battery as in the example above, but the understanding on a basic level is very interesting.

Electricity literally powers everything in our lives and a world without it would be very different. Understanding how these things work lets us enrich our knowledge of the world around us and provides us with practical information we can use in our everyday life. Electricity is all around us and is used in more interesting ways than just light bulbs and batteries.

Everything You Need to Know About Solar and The Urban Heat Island Effect

As cities grow, open spaces, trees and other greenery, and other naturally occurring surfaces diminish, replaced by concrete and asphalt surfaces. When this happens, the heat absorbed by these surfaces has nowhere to go, and so is radiated and reflected into the immediate surrounding areas. This creates an urban heat island.

This leads to an increase in heat in the immediately surrounding areas, making temperatures a few degrees hotter than the actual weather. This causes discomfort to residents of the area and can also incur damage in the form of heat-damaged structures.

There is also a human cost associated with urban heat islands. Heat-related medical emergencies such as heat stroke become more prevalent in such areas as the heat can go up to dangerous levels. The EPA has taken stock of this phenomenon and is now advising cities to take steps to mitigate it. One such way is the use of Los Angeles solar as a means of making cities cooler and more comfortable to live in.

How does solar minimize this effect?

Cool Roof Strategy

A cool roof strategy is a one that seeks to use heat absorbing and/or dissipating roofing materials and technologies. Typical roofs use materials that either reflect or absorb and radiate back heat. Conversely, cool roofs, like solar, can help absorb sun rays and convert them into beneficial energy.

Solar excels at this because of the way the cells are designed and organized to absorb the maximum amount of sunlight. Solar roofs are also designed to trap this heat rather than radiate it back into the environment, something that can help reduce the amount of secondary heat being released into the environment.

Reduced Construction

When solar roofs are implemented, there is usually a reduced need to construct structures that support the traditional electric grid. Such a scenario can play out in several ways. If a new estate is being built with nothing but solar power, there is a possibility that some open spaces can be retained as fallow ground in places where utility implements would have been installed.

While the gains at this level would be marginal, implementation of this strategy across several thousand estates can help move the needle in reducing the urban heat island effect.

Combination Approach

This approach offers the greatest promise of reducing heat in urban settings. By combining the cool roof strategy with other strategies like green roofing, planting more trees and vegetation, cool paving and general smart city growth, a lot of ground can be covered.

Planting more trees and vegetation will go a long way in reducing heat in urban settings.

All these strategies have one thing in common in that they all absorb and dissipate heat in an efficient and sustainable manner. The EPA recommends these measures, among others, to cities grappling with the urban heat island effect or anticipating it as open spaces and greenery levels go down.

Many cities have a high incentive to deal with this issue because of its effect on residents and visitors to the area. If street-level temperatures are unbearable, it is possible that tourists and potential new residents may shy away from the area in favor of other cooler cities.

Dyne Testing and its Usefulness

Dyne Testing is a technology, a method to measure surface wettability. The low surface wettability of polymer-based substrates is the sign of poor adhesion of inks, glues and coatings. Thus, to obtain the optimum amount of adhesive it is necessary to increase the surface energy of the substrate which can be done by surface treatment with either Corona or Plasma. It will result in good wetting of the material over the surface of the substrate and hence, it improves adhesion.

For the optimum adhesion, while printing, gluing, or coating the various substrates, it is necessary to obtain high surface energy which can be obtained by Dyne Testing Markers. The fluid that is present in the Dyne Testing markers is based on ISO 8296 method for measuring the surface energy of polythene film.

When the Dyne Testing Pens are being applied to the surface, the liquid will form a continues film or will form a small trail of droplets. If it is being stretched as a film for at least 3 seconds, the substrate will have a minimum surface energy of that ink value which will be expressed in mN/m (Dynes).

The exact surface energy (Dyne level) can be determined by applying a range of increasing or decreasing values of Dyne test pens thereby taking the steps to improve its condition.

The Dyne Test Pen may lose its accuracy for which there are 3 reasons:

  1. It could get contaminated with the foreign substance
  2. It could evaporate quicker than it is expected to be
  3. And the third reason is ageing, during which chemical reactions take place among the constituents.

The experts have also faced the problem with the ageing of Dyne Testing Equipment. If their hue or color density are almost past their expiration date, it is advisable to replace them as stated by experts. The lower Dyne value states that the value stated on the bottle does not match true surface tension. You must be sure that retains the substrate used for the measurements are to be kept well sealed, free from contamination, and stored under laboratory conditions.

The ideal Dyne Testing Pen should be:

  • easy to handle,
  • perfect for the quick spot checks on the production floor,
  • very easy to read,
  • no subjectivity for this type of test,
  • no wiping off necessary,
  • lasting display of result, and
  • very striking coloring.

Conclusion

The Dyne Testing Kit by Ice-equipment.com is based on valve tip applicator and not the magic marker type. The quick test 38 pen is our most popular product amongst all and it is available in a bright red ink. This is the quick test pen which serves to check the surface treatment of all plastic substrates.

It has a shown an effect onto the material such that a stroke of the pens leaves a full line on the material if the material’s surface energy is below 38 Dynes/cm. Also, as mentioned above if the materials surface energy is below 38 Dynes/cm, the fluid will form small drops on the surface. The fluid applied to the surface will dry within seconds; it does not need to be wiped off anymore.