How To Recycle CDs, DVDs And Cases

05.08.2019

0600

Tools:

Materials:

  • Old CDs (Compact Discs)
  • Old DVDs (Digital Versatile Discs)
  • Old CD and DVD cases

When it comes to recycling CDs and DVDs, the information was never really clear as to where to recycle these type of materials. I did some research and found out that there is The CD Recycling Center of America, who provides that exact service.

Each year, billions of CDs and DVDs are manufactured, while millions of these discs end up in landfills and incinerators. If you use, sell, promote, distribute, or manufacture compact discs, it is your responsibility to promote how to recycle them. Compacts Discs, when recycled properly, will stop unnecessary pollution, conserve natural resources, and help slow global warming. Spread the word to help us save the world we all live in.

For those companies that require a certificate of destruction, that service is available as well.

The CD Recycling Center of America collects old CDs, DVDs and cases and securely deconstructs the items. CDs and DVDs contain different metals and materials that should be separated safely. They contain materials such as:

  • Aluminum-the most abundant metal element in the Earth’s crust. Bauxite ore is the main source of aluminum and is extracted from the Earth.
  • Polycarbonate-a type of plastic, which is made from crude oil and natural gas extracted from the Earth.
  • Lacquer-made of acrylic, another type of plastic.
  • Gold-a metal that is mined from the Earth.
  • Dyes-chemicals made in a laboratory, partially from petroleum products that come from the Earth.
  • Other materials such as water, glass, silver, and nickel.

There are different programs offered to different types of business and institutions, so the parameters of how they will receive your recycling material will differ. All you have to do, is scroll down to your category and pick the program that fits your needs. They have programs for:

  • Individuals / households
  • Schools
  • Libraries
  • Musicians
  • Recording Studios
  • Radio & Television
  • Duplicators/Replicators
  • Small Businesses
  • Recycling companies


Since I’m recycling as a household, I checked the “Programs” tab, and scrolled down to the “Individuals / households” section, to read my requirements.

They do ask that the broken disc cases be kept separated from the other cases. I separated my shipment into four categories, and labeled them as needed:

  1. Discs = ” CDs / DVDs / HD-DVD / Blu-ray Discs Only”
  2. Cases = ” Cases Only”
  3. Paper covers/inserts = “CD paperwork Only”
  4. Sleeves = “Discs Sleeves Only”
  5. Broken Cases = “Broken Cases Only”


Since I live in California, my mailing destination was Salem, New Hampshire. I packed up my envelope of items and sent it out:

The CD Recycling Center 
CD Recycling Center of America 
68E Stiles Road 
Salem NH 03079

By recycling your old CDs, DVDs and cases with the CD Recycling Center of America, you’ll generate less trash and keep the landfill free of the harmful metals and materials.

Learn more about this program at http:// http://cdrecyclingcenter.org/

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The Problem With Teflon

08.08.2017

0600

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Teflon became popular because it is non-reactive due to its strong carbon–fluorine bonds; it reduces friction and energy consumption of machinery when used as a lubricant. Though it was claimed to be the best-known chemical inventions of the 20th century, today, Teflon has been touted as a serious health hazard to humans as well as animals. When I found out about the dangers of teflon, I transitioned over to cast iron and stainless steel pots and pans. The research behind teflon is dangerous and jarring.

Non-stick cookware may cause cancer

The non-stick coating, used in Dupont Teflon pans, has been found to release one or more (up to 15) different toxic gases when heated to high temperatures. Did you know that non-sick cookware is made with a chemical known as perfluorooctanoic acid (PFOA), which has been labeled carcinogenic by a scientific review panel that advises the U.S. Environmental Protection Agency (EPA).
This is a chemical that is being used in many household products from cookware, coated paper plates and even microwave popcorn bags. The side effects have been known for a long time, and one of the most written about is its effects on pet birds.

The worst issue behind Teflon pots and pans

As careful as we try to be – Teflon pots and pans can easily get scratched at some point. In fact, the truth is many people tend to use battered and scratched Teflon cookware. Teflon is usually used to cover aluminum which in itself is a dangerous metal – implicated in Alzheimer’s disease and dementia.

What are some of  the health hazards faced?

  1. Male Infertility- The chemicals emitted from the heating of Teflon pans have recently been shown to be linked with higher rates of infertility. A recent Danish study suggested that exposure to PFOAs in fetal or later life accounted for decreased sperm production and morphologically abnormal sperm.
  2. Thyroid disease – A recent study, published in the peer-reviewed journal Environmental Health Perspectives (EHP), goes on to confirm the association of thyroid disease with human exposure to perfluorooctanoic acid (PFOA). Also the National Health and Nutrition Examination Survey (NHANES) revealed that higher concentrations of PFOA in the blood of the surveyed people were linked to the occurrence of thyroid disease.
  3. Childbirth and reproductive problems – PFOA contamination of food, air and water supply has the potential to damage the reproductive systems of a large population of women. Inevitably causing difficulty in childbirth or birth defects. Scientists based at the University of California-Los Angeles, found that women with higher concentrations of PFOA in the blood stream (more than 3.9 ppb) experienced greater difficulty in conceiving than those with lesser PFOA concentrations. Also the chances of them being diagnosed with infertility were greater.
  4. Birth Defects – an individual living near the DuPont factory that produces Teflon products was born with one nostril and other facial defects. He claims that his mother who was working in the factory was exposed to PFOA while pregnant therefore he acquired those birth defects.
  5. Kills bird – when Teflon is heated to a high temperatures toxic fumes are emitted that are known to kill pet birds especially small birds such as budgies, finches, and cockatiels. Considering this the Consumer Product Safety Commission (CPSC) states that cookware and heated appliances comprising of non-stick coatings must carry a label that warns the hazard caused by the coating to pet birds.
  6. Carcinogenic – a recent study showed that when rats were injected with PFOA they developed brain tumors. PFOA the coating material used in Teflon products was also shown to be present in trace amounts in blood samples of people and lasted four years in the blood stream.
  7. Causes other diseases – animal research has shown that liver cancer has propelled with more exposure to PFOA’s and case reports suggest that the PFE fumes emitted by very hot Teflon coated utensils have caused pneumonia and inflammation in the lungs.
  8. Non Biodegradable – PTFE is non-biodegradable as it is made up of strong molecular bonds that make it durable and resistant to natural processes of degradation. Thus it tends to accumulate in the food chain causing sever damage.

How to avoid these circumstances?

The best way to protect you and your family is to use cookware made from: ceramic, stainless steel or glass. There’s clearly no argument as to whether conventional non-stick cookware has a negative impact on human health, so with that in mind, what are the alternatives?

1. Ceramic

Ceramic cookware is gaining popularity fast thanks to its ability to create a non-stick cooking surface while containing no traces of PTFE or PFOA.

Brands such as Neoflam are using the most advanced ceramic technology to produce durable and heat efficient non-stick coatings that are safer and more environmentally friendly than conventional non-stick cookware.

2. Cast Iron

Companies like Solid Teknics are manufacturing some incredibly high quality cast iron products which have a myriad of advantages over conventional non-stick cookware.

Cast iron is extremely rugged, easy to clean, and if properly seasoned, it’s also “non-stick” (minus the toxic cocktail of chemical compounds). Cooking with cast iron is a great way to experience many of the benefits that come with using non-stick cookware while also minimizing your exposure to harmful substances.

3. Heatproof Glass

Glass isn’t the most dynamic cooking material and it’s somewhat limited in the styles of cooking that it can accommodate, however, for oven baked dishes there aren’t many materials more safe and affordable than heatproof glass.

When choosing glassware for cooking, be sure to check that the glass is heatproof and of high quality construction. Pyrex has a great range of kitchen glassware for all sorts of different applications, including cooking.

4. Stonewear

Similar to ceramic, stonewear cooking equipment is a non-toxic alternative that usually involves a combination of crushed stone and a PTFE-free coating in order to achieve similar results to those of typical non-stick cookware.

Brands such as Stoneline, Swiss Diamond & Ozeri all provide good products in this range.

5. Stainless Steel

Tried and tested, stainless steel is one of the safest cookware materials in existence and is an excellent non-stick alternative for many forms of cooking. It’s worth noting that using frying pans and skillets that are made from stainless steel will sometimes result in ingredients sticking to the surface of the cookware when exposed to high temperatures. However, if you use ample amounts of a high quality cooking oil, you shouldn’t have too much of a problem.

Cheap and Easy TV Mount

06.27.2017

0600

Materials:

  • One 1-1/2″ (width) x 5-1/2″ (depth) wood lumber about 18″ (length)
  • Two 2-1/2″ wood screws (to hold the first wood piece against the wall)
  • Two M4-7.0 screws , at 40 mm in length (to hold the second wood piece against the television)

Tools:

  • Drill
    • Drill bits (drill bits to drill holes for the screws that will hold the wood piece against the wall as well as to drill holes in the wood piece that will attach to the television.
    • Flat wood drill bit (to create the holes that I’ll use to sink the screws into the wood, so that it won’t pop out)
  • Table saw (or saw it by hand with a rip hand saw)
  • Measuring Tape
  • Heavy duty block magnets

DSC_6071

Locating the studs in the wall:

So I wanted to mount my TV up on my wall, and I wanted to do it in a simple and cheap way so I figured that a French Cleat would be the best. First I located my studs in my walls, and I used a different method this time. Usually, I can differentiate stud sounds through the gypsum board, but I thought I would share the other method I use. If you take strong magnets and move along the wall, they will be able to locate the existing nails embedded on the studs. Now, because this can leave scratches along the paint on your wall, I actually sewed little fabric sleeves for each one from fabric I had left over from other previous projects. You don’t have to use fabric, you can wrap paper around it and locate the studs that way too. Sometimes it takes a bit of searching to find the first nail, but once you do, the rest of the nails will be located within the same location on the other studs.

Knowing where the studs were located, gave me the general length of how long of a piece of wood I would need, so I chose an 18″ piece of wood.

DSC_6075

I first divided the piece of wood in half. Because the width of the wood was 1-1/2″, I moved the center line off by 1/4″ to offset the width. I did this because the next step was to cut the wood piece in half at a 45° angle. By offsetting the divided line by 1/4″, the 45° angle cut would be more centered. I then designated which piece would be screwed against the wall and which one would be attached to the TV. To avoid confusion, mark the surfaces of the pieces which will need to be screwed into the wall and TV with a black line in the corner. So mark the actual surfaces which you know will have screws entering the wood piece.

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To start this, first unhook all of the wires and cords from the back of your television set and place it face down on a towel. It’ll be easier to measure the mounting holes this way.

For the wood piece that would be attached to the TV, I measured the width of the mounting holes on the back of my TV (each flat screen television comes with). I simply measured the same distance on my wood piece and marked up the two locations. I marked these holes slightly higher on this piece because I knew the bottom inch of the wood was the angle and I wanted to avoid it. Once you remove the screws where the mounting holes are, you can bring these screws to the hardware store to find longer ones which will be used to attach the wood piece with.

To find the existing depth of the hole on the back of your television, I actually folded a tiny piece of paper and stuck it in the hole until it couldn’t move any further. When it stopped, I marked it with a pencil. My television mounting holes were 1/2″, in case you wanted to use that as a reference. When buying the new screws for attaching the wood piece to the TV, make sure you take into account the depth of the hole and the thickness of the wood. Because I could only find 40mm length screws, I knew I would have to “sink” my screws into the TV wood piece.

DSC_6083

I used the same method for placing the screw holes on the wood piece that would be screwed to the wall. I measured the distance where my magnets were hanging and placed the holes slightly lower on the wood piece. (Always measure the center of the stud to the center of the next stud.) I did this because I knew the top inch of wood was the angle cut.

I drilled my holes accordingly, and the diameter of the holes was based on the diameter of the screws I was going to use for each wood piece. I personally like a slightly snug hole for my screws, so I always measure the drill diameter to be slightly smaller than the diameter of my screw. I like that the screw will fit snug, but it’ll embed itself in the wood as well. For the drill bit that created the holes for the wood piece that attached to the television, I placed that aside, because I would need it to pre-drill holes in the wall when it came time.

DSC_6107

Once the drill holes were made, I took a Flat Wood Drill Bit to create the sinking spaces for the screws. The depth for the sinking holes varied because I used 2-1/2″ screws for the wood piece that would attach to my wall and only 40mm screws for my wood piece for my TV.

For this part, you have to measure the depth of each set of screws. As long as the screws are sunk into the wood and the surface is flush without anything protruding out, it’ll hang nicely. For the TV wood piece, I made sure that when the screws were screwed all the way in,  that they would only protrude out 1/2″ (which would be where it would attach to the TV). Because the other piece of wood would be attached to the wall, I just had to make sure I pre-drilled holes into the wall.

DSC_6111

DSC_6113

I took the wood piece that was designated to be attached to the TV, and screwed it in. I then located the height at which I wanted to place my TV, then I pre-drilled the holes into the wall. I took the wood piece that was to be attached the wall and screwed it to the the pre-drilled holes.

I attached all of the television cords while my TV was still faced down on the towel, and then hung it up on the new French Cleat Hook. This is a really quick way to hang almost anything. This method is cheaper than buying a mount and with leftover materials, you can create this too. I really liked this design hacks due to the fact that it’s such a strong hook and it was so cheap to make.

Maybe this might help you find solutions to hanging furniture issues.

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Officially 1 Year Old

01.16.17

0800

1year

So my blog officially turned 1 year old on 1/15/2017. I never thought I was going to blog about my lifestyle or what I designed, but after so many people inquired about my zero waste-minimalist lifestyle and subsequently my design hacks- I decided to write it all down… and it just kept going. There are a few things I learned from blogging, not all were pleasant but understood and accepted with gratitude. Here are 10 lessons I learn in my first year of blogging:

  1. You have to start
    1. You will not know where your path will lead you until you start walking down that path. You may not know how and why this blog will benefit you, but the only way to find out- is to start.
  2. Write more and find your voice
    1. The more you write and brainstorm about what topics you want to cover, the more you’ll realize what voice you want. You’ll discover the identity of your blog and the topics you decide to cover.
  3. Write more and you’ll discover what you’re really trying to say
    1. When it comes to covering the basic topics for your blog, you might have that sequence mapped out easily. However, you might write a post and realize that your images don’t support the topic or that you could have approached the subject in a different manner.
  4. Communication is key
    1. As technology advances and our tech devices also advance in the sense that they help us communicate and share information faster, writing will always be one of the oldest and greatest forms of communication. The ability to communicate your ideas clearly is critical for a blogger and the audience participating. We are living in a beautiful time where current events and our own opinions on those events need to be stated in a clear and concise manner.
  5. Don’t start blogging just to make money
    1. Blogging takes a lot of work. It takes a lot of planning and time management. It is an art form that takes persistence and dedication. Blogging is your space, and for those who want to stop by and read, it’s for their entertainment. But don’t expect to make money, don’t go into this thinking it’ll definitely make money- you have to want to blog, you have to want to write and express ideas.
  6. Good Content
    1. Once you figure out the identity of your blog, create good content. Give your readers a reason to visit and spend a few minutes in your space. Whether it’s sharing of knowledge, personal reflections or some tips, but put out good content.
  7. Listen to your audience, listen to the public
    1. When your audience responds to a blog post, listen to them. There is a reason why they’re wondering about it or responding to it in your comments section. How you perceive your topics is different from how the internet views it.
  8. Be honest, be you
    1. There’s no point in trying to be a different personality behind the safety of a computer screen. Blogging is communication and your readers will be able to tell if it is not your voice. There is a honesty behind blogging, don’t be afraid to be you. You’d be surprised how many people appreciate that.
  9. It’s not a race, it’s a march, a slow walk
    1. Blogging can can take up time that you don’t have to spare. But if you give yourself a reasonable schedule, you’ll build your content and other social media slowly. It’s about showing up and being consistent.
  10. No success is worth sacrificing loved ones for
    1. Blogging can be fun and even I am proud of the content I’ve created in the past year. However, there was a time when I was blogging in the beginning when I sacrificed valuable time with loved ones. I don’t do that anymore, but I knew that I couldn’t sacrifice my health, my family and my friends for this- it wasn’t worth it.

So for those who are thinking of starting a blog or a journal or anything that they’re willing to share with the public, start… start it now. I can honestly say that when I look back on my content, I’m proud of what I’ve written. This whole site is a process, it’s not definite in its answers or solutions. This site represents a personal process as well as my design process, but both processes are mapped out by time and the lessons learned along the way. In middle school, I had a social studies teacher, Ms. Mathers, who had a banner that she had attached to one of the rafters on her ceiling. It said “KNOWLEDGE IS POWER”. As a 12 year old, I used to re-read that banner when I got bored in class, and I never really understood the value of it. Now I know as an adult, knowledge is power but the voice behind it- is UNSTOPPABLE.

Understanding Recycling Light Bulbs

 

10.20.2016

0800

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Recycling Light Bulbs Link

Trying to understand how light bulbs are recycled takes a little more research on my part. I honestly have never known how recycling centers go about recycling light bulbs. Due to the many different materials that make up light bulbs, I could only guess that the process was tedious. So here is an overall step by step process of the recycling process:

  1. Lamps are sent to the recycling facility
    1. Upon arrival at the recycling facility, lamps are removed from their containers and fed into specialized machine for recycling lamps. The entire process is fully automatic and incorporated in a container in which the air is brought to subpressure, thereby preventing mercury from being released into the environment.
  2. By-product separation
    1. With the aid of a sophisticated patented air transportation system, the phosphor powder is separated in different steps from the glass and metal by-products.
  3. Glass and aluminum stored
    1. Clean glass and aluminum end-caps are separated and stored for re-use.
  4. Mercury is isolated
    1. The mercury bearing powder is collected in distiller barrels beneath the cyclone and the self-cleansing dust filters
  5. Mercury is extracted
    1. The powder is then retorted to drive out the mercury.
  6. Elements are ready for re-use
    1. At the end of the process the glass, metal end-caps, powder, and mercury can all be re-used.
  7. Recycling certificate is issued
    1. Once the materials have been fully processed by the recycling facility, an official Certificate of Recycling will be produced and emailed to you for record keeping.

This is an overall general process of light bulb recycling. As much as you can- please, please recycle these products carefully and appropriately. There are a lot of different materials that go into the production process of producing lamps that can harm the environment and the toxic materials will always come full circle back to us.

Understanding Recycling Electronics

 

10.11.2016

0800

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Electronic Waste Link

The electronics recycling process has always left me wondering if all of our electronics gets recycled properly. There are so many bits and parts to electronics, it’s hard to believe that there would be no trash leftover to end up in the landfill. In recent years, with documentaries revealing where our old electronic end up, it’s a bit discouraging for me to invest in any new electronics. Although it’s an uncomfortable reality, I prefer to be informed more than leave my understanding in the hands of the media or brush it off. I like to find out truths no matter how painful it can be. This knowledge also helps me shape the decisions in my life so that I can make more informed decisions for my home and family in the future. I thought I would post some information and facts about electronic waste for anyone who might want to know the ugly truth.

  1. Electronics are Difficult To Recycle
    1. Recycling electronics isn’t like recycling cardboard. These products are not easy to recycle. Proper and safe recycling often costs more money than the materials are worth. Why?
  2. Electronics are not designed for recycling
    1. Materials used and physical designs make recycling challenging. While companies claim to offer “green electronics,” we are a far way from truly green products.
    2. Many electronic products are designed for the dump. They have short-life spans, or become obsolete quickly. They are often expensive to repair, and sometimes it’s difficult to find parts. Many consumer-grade electronics products are cheaper to replace than to fix even if you can find someone to fix it. Because they are designed using many hazardous compounds, recycling these products involves processing toxic material streams, which is never 100% safe.
    3. Some of the problematic toxic materials that must be removed before recycling are lead in cathode ray tube (CRT) TV monitors and mercury lamps in LCD screens, as well as PVC, flame retardants, and other toxic additives in plastic components..
    4. Before electronics companies can make the claim that they are green and sustainable, they must shift away from producing “disposable” products designed with a limited lifespan (planned obsolescence) and towards products that are designed to last. Instead of purchasing products with high failure rates and the need for frequent replacement, we should be able to choose long-living, upgradeable goods that have long warranties and can be efficiently repaired and recycled
  3. Electronics contain many toxic materials
    1. Monitors and televisions made with tubes (not flat panels) have between 4 and 8 pounds of lead in them. Most of the flat panel monitors and TV’s being recycled now contain less lead, but more mercury, from their mercury lamps. About 40% of the heavy metals, including lead, mercury and cadmium, in landfills come from electronic equipment discards.
  4. Discarded Electronics Are Managed Badly = Most e-waste still goes in the landfill
    1. The EPA estimates that in 2011, the US generated nearly 3.4 million TONS of e-waste. But only about 25% of that was collected for recycling. The other 75% went to landfills and incinerators, despite the fact that hazardous chemicals in them can leach out of landfills into groundwater and streams, or that burning the plastics in electronics can emit dioxin.
  5. Most Recyclers Don’t Recycle, They Export
    1. And what about the 25% that is supposedly recycled? Most recycling firms take the low road, exporting instead of recycling. A large amount of e-waste that is collected for recycling is shipped overseas for dismantling under horrific conditions, poisoning the people, land, air, and water in China, other Asian nations and to Ghana and Nigeria in western Africa.
    2. When we drop off our old computers at an e-waste collection event, or have a recycler come and get them from our offices, we want to believe that the recycler is going to do the right thing: to reuse them if possible, and handle them in ways that are safe for workers and the environment. Electronics contain many toxic chemicals, and so a responsible recycler is one that is making sure that he – and the other vendors he may sell parts or materials to – is managing all aspects of the business as safely as possible..
  6. Global e-Waste Dumping
    1. The problem is that many electronics recyclers don’t actually recycle the electronics they collect from us. They can make more money by selling old electronic products to exporting waste traders than by processing it here in the U.S. Traders send it to developing countries where workers earn extremely low wages (often a few dollars per day) and where health and safety and environmental laws, enforcement, infrastructure and citizens’ rights are very weak.
    2. Simply stated, we are solving our e-waste problem by exporting it to poor countries around the globe.

Primitive Processing Contaminates Workers, Residents

In these countries, the e-waste ends up in backyard recycling operations, often literally behind peoples’ homes. One example is Guiyu, China, an area where a lot of our e-waste goes. They use crude and unsafe methods of taking apart our old computers and TVs to get to and remove the metals, which they can sell, causing great harm in the process. These dangerous practices include:

  1. Bashing open cathode ray tubes with hammers, exposing the toxic phosphor dust inside.
  2. Cooking circuit boards in woks over open fires to melt the lead solder, breathing in toxic lead fumes.
  3. Burning wires in open piles to melt away the plastics (to get at the copper inside).
  4. Burning the plastic casings, creating dioxins and furans – some of the most poisonous fumes you can breathe.
  5. Throwing the unwanted (but very hazardous) leaded glass into former irrigation ditches
  6. Dumping pure acids and dissolved heavy metals directly into their rivers.
  7. These horrific working conditions plus weak labor standards in China and many of the other developing countries where e-waste is sent, mean that women and children are often directly exposed to lead and other hazardous materials.

How much e-waste do we export each year?

There have been no rigorous studies of exactly how much e-waste we export to developing nations. Industry experts estimate that of the e-waste that recyclers collect, roughly 50-80 % of that ends up getting exported to developing nations. That would mean that we export enough e-waste each year to fill 5126 shipping containers (40 ft x 8.5 ft). If you stacked them up, they’d reach 8 miles high – higher than Mt Everest, or commercial flights.

Understanding Recycling Batteries

 

10.06.2016

0800

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Recycling Car Batteries Link

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Processing Alkaline Batteries Link

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Recycling Lithium Batteries Link

I question the honesty of how items are recycled (especially electronics) and to be more informed is always better. The next series of posts I’m going to post up with cover a small section of the majority of materials that are deemed recyclable. Although the concept of recycling seems like a savior process for all items- it really isn’t. There are uncomfortable truths that the public is not informed about. I hope these next posts will be helpful for those who are seeking more information.

In a nutshell, batteries vary in how they are recycled. Batteries range from lead acid based to alkaline, lithium ion, nickel, zinc and even mercury batteries. Here is an overall information haul about the variety of them but I also included links to some recycling processes under the infographics above. I always hear mixed reviews as to what actually happens to batteries when we recycle them and this is why I thought I should post some information. I tend to use more alkaline and lithium batteries in my day to day life, so those infographics apply more to me. Hopefully this will bring some more information to you as you come into contact with your day to day electronics that use batteries.

  1. Lead Acid– The battery is broken apart in a hammer mill, a machine that hammers the battery into pieces. The broken battery pieces are then placed into a vat, where the lead and heavy materials fall to the bottom and the plastic floats. At this point, the polypropylene pieces are scooped away and the liquids are drawn off, leaving the lead and heavy metals. Each of the materials goes into a different recycling “stream”.
    1. Plastic- Polypropylene pieces are washed, blown dry and sent to a plastic recycler where the pieces are melted together into an almost liquid state. The molten plastic is put through an extruder that produces small plastic pellets of a uniform size. The pellets are put back into manufacturing battery cases and the process begins again.
    2. Lead- Lead grids, lead oxide and other lead parts are cleaned and heated within smelting furnaces. The molten melted lead is then poured into ingot molds. After a few minutes, the impurities float to the top of the still molten lead in the ingot molds. These impurities are scraped away and the ingots are left to cool. When the ingots are cool, they’re removed from the molds and sent to battery manufacturers, where they’re re-melted and used in the production of new batteries.
    3. Sulfuric Acid- Old battery acid can be handled in two ways:
      1. The acid is neutralized with an industrial compound similar to household baking soda. Neutralization turns the acid into water. The water is then treated, cleaned, tested in a wastewater treatment plant to be sure it meets clean water standards.
      2. The acid is processed and converted to sodium sulfate, an odorless white powder that’s used in laundry detergent, glass and textile manufacturing.Lead acid batteries are closed-loop recycled, meaning each part the the old batteries is recycled into a new battery. It is estimated that 98% of all lead acid batteries are recycled.
  2. Alkaline batteries– Alkaline batteries such as (AAA, AA, C, D, 9V, etc.) are recycled in a specialized “room temperature,” mechanical separation process where the battery components are separated into three end products. These items are a zinc and manganese concentrate, steel, and paper, plastic and brass fractions. All of these products are put back into the market place for reuse in new products to offset the cost of the recycling process. These batteries are 100% recycled.

  3. Lithium Ion– Prior to the recycling process, plastics are separated from the metal components. The metals are then recycled via a high temperature metal reclamation (HTMR) process during which all of the high temperature metals contained within the battery feedstock (i.e. nickel, iron, manganese and chromium) report to the molten-metal bath within the furnace, amalgamate, then solidify during the casting operation. The low-melt metals (i.e. zinc) separate during the melting. The metals and plastic are then returned to be reused in new products. These batteries are 100% recycled.

  4. Nickel-Cadmium- Prior to the recycling process, plastics are separated from the metal components. The metals are then recycled via a high temperature metal reclamation (HTMR) process during which all of the high temperature metals contained within the battery feedstock (i.e. nickel, iron, manganese, and chromium) report to the molten-metal bath within the furnace, amalgamate, then solidify during the casting operation. The low-melt metals (i.e. zinc and cadmium) separate during the melting. The metals and plastic are then returned to be reused in new products. These batteries are 100% recycled.

  5. Nickel Metal Hydride– Prior to the recycling process, the plastics are removed from the cell portion. The cells go through a drying process to remove moisture (potassium hydroxide (KOH) electrolyte and H2O) from the cells. The drying process heats the cells in a time and temperature controlled manner via a proprietary and proven formula. Once these cells are dried they become a valuable feedstock for the stainless steel and or alloy manufacturing industries.  The metals and plastic are then returned to be reused in new products. These batteries are 100% recycled.

  6. Lithium Batteries– The contents of the batteries are exposed using a shredder or a high-speed hammer depending on battery size. The contents are then submerged in caustic (basic not acidic) water. This caustic solution neutralizes the electrolytes, and ferrous and non-ferrous metals are recovered. The clean scrap metal is then sold to metal recyclers to offset the cost of recycling these batteries. The solution is then filtered. The carbon is recovered and pressed into moist sheets of carbon cake. Some of the carbon is recycled with cobalt. The lithium in the solution (lithium hydroxide) is converted to lithium carbonate, a fine white powder. What results is technical grade lithium carbonate, which is used to make lithium ingot metal and foil for batteries. It also provides lithium metal for resale and for the manufacture of sulfur dioxide batteries.

  7. Mercury Batteries– The batteries and heavy metals are recovered through a controlled-temperature process. It’s important to note: the percentage of mercuric oxide batteries is decreasing since the passage of the Mercury-Containing Rechargeable Battery Management Act (The Battery Act) of 1996. This act prohibits, or otherwise conditions, the sale of certain types of mercury-containing batteries (i.e., alkaline manganese, zinc carbon, button cell mercuric-oxide and other mercuric-oxide batteries) in the United States.

  8. Zinc-Carbon– Zinc-carbon (AAA, AA, C, D, 9V, etc.) and zinc-air batteries are recycled in the same way as alkaline batteries or by using high temperature metal reclamation (HTMR) method to melt the metals. These metals are then reused in new products. These batteries are 100% recycled.

  9. Zinc-Air– Zinc-carbon (AAA, AA, C, D, 9V, etc.) and zinc-air batteries are recycled in the same way as alkaline batteries or by using high temperature metal reclamation (HTMR) method to melt the metals. These metals are then reused in new products. These batteries are 100% recycled.