50+ Years of Favorite Plastic Toys

50+ Years of Favorite Plastic Toys

With pen and paper in hand, we sat by the fire sipping hot chocolate, scribbling out our Christmas wish list for Santa. We’d pondered, stared at the flickering flames for a moment, and then excitedly jotted down another potential joy-bringing item. The planning and dreaming that filled our minds with hopeful anticipation was almost as fun as the morning when the gifts were revealed. 

From mid-last century through the decades that followed, as young-uns made their Christmas lists, more and more items on those lists were made of plastic. Prior to that time, in the early twentieth century, most toys on children’s lists were made of wood or metal.

In the early years of the 1900’s, the favorite toys of our grandparents and great grandparents included cuddly surprises like the Teddy Bear or the Raggedy Ann doll. Then, topping the list of favorite metal toys were the Erector Set, a Lionel train set, or a red Radio Flyer wagon. Wooden toys were also high on many-a-child’s list. One of those all-time-favorites from one hundred years ago was the yo-yo, hand-carved from a single piece of wood.

Celluloid

The first plastic used in toys was celluloid. According to Science History, “Celluloid, developed in the late 19th century, launched the modern age of man-made plastics… celluloid became an everyday material, just like the hundreds of plastics that would follow after World War II.”

The word “plastic” comes from the Greek word for “molded.” The word means something that is capable of being molded or shaped. In nature, there have always been plastic materials. Rubber, amber, and even glass, which is moldable at high temperatures, are types of plastic by the definition of “to be molded.”

Celluloid was the first synthetic plastic. It was invented in 1863 by John Wesley Hyatt in upstate New York. Hyatt was a printer by trade and the son of a blacksmith. The celluloid product Hyatt created was in response to an advertisement that offered an incredible $10,000 for a substitute  that could be used in the place of elephant tusk ivory in the production of billiard balls.  Billiards was becoming increasingly popular and the expense of obtaining African ivory was also increasing. 

Before long, celluloid was used in many popular products, from beautiful handles on hairbrushes and mirror sets that adorned a lady’s dressing table to cufflinks worn by gentlemen. “The first plastic toys made of celluloid appeared late in the 19th century. It was not until World War II that plastic toys became firmly established.” (Plastics – The Mag). In time, celluloid was discovered to have several drawbacks. Celluloid was flammable, could be fragile, and its surface cracked and deteriorated over time. It was used in manufacturing for decades, but was not the ideal plastic material.

Bakelite and Catalin

There was a  later contemporary of celluloid that began to increase its share of the market. It was called Bakelite. Produced in the first quarter of the twentieth century, Bakelite (and Catalin, another trade name for a similar product) was used in the production of toys, jewelry, trophies, and more. According to Amelia Danver, “Leo Bakeland created the world’s first entirely synthetic plastic called Bakelite. This marked the start of the modern plastics industry.”

When Bakelite’s patent ran out in 1927, The American Catalin Company picked up their process, using the same chemicals, but added no fillers. Instead of the dark and dreary plastics made by Bakelite, the Catalin products were translucent and could be made into a variety of bright colors. Catalin products were made from 1928 until World War II.

Before World War II, surprisingly, Germany was one of the world’s leading toy manufacturers. The United States imported vast numbers of toys from the European nation. But, as the political climate deteriorated, those large numbers of imports ceased. And American manufacturers stepped in to take the leading role. One of the leaders was a small company who had been founded in the 1930’s called Fisher Price. Fisher Price began in 1931 when its four founders took 16 of their wooden toys to the American International Toy Fair in New York City. Their toys were a hit at the fair – especially their Dr. Doodle.

By the late 1940’s, Fisher-Price was barely ten years old. They became the first company to produce their entire product line from plastic. It was such a raging success that their competitors, like the Ideal Toy Company, adopted their business model and produced a whopping three million plastic phones in just a few months.

“In the early 1950’s, Fisher-Price identified plastic as a material that could help the company incorporate longer-lasting decorations and brighter colors into its toys. ‘Buzzy Bee’ was among the first Fisher-Price toys to make use of plastic. By the end of the 1950s, Fisher-Price manufactured 39 toys incorporating plastics.” (Wikipedia)

Plastics in Toy-making Today

Today, plastics are used in most of the best-selling toy products of all time. Thirteen of the fifteen best-selling toys of all time are made of plastic. 
  1. Barbie – plastic
  2. Yo-yo  – plastic
  3. Easy Bake Oven – plastic
  4. Radio Flyer 
  5. Silly Putty
  6. Transformers – plastic
  7. G.I. Joe – plastic
  8. Hot Wheels – plastic
  9. Etch-a-Sketch – plastic
  10. Lego – plastic
  11. Mr. Potato Head – plastic
  12. Hula Hoop – plastic
  13. Star Wars Action Figures – plastic
  14. Rubik’s cube – plastic
  15. Super Soaker – plastic
So, roll back the clock to when you were a child making your Christmas list. Which plastic toys were on your lists? Here are some of the most popular toys from each decade of the last century. Our guess is that you owned many of these, and maybe even still have a few tucked away in a closet or attic somewhere. For a substance that some think of as “artificial” or “synthetic,” plastic has managed to create some real, and lasting, and very natural memories.
 
Vintage Army Men
Vintage Army Men
Photo credit: Pinterest
American Plastic Bricks
American Plastic Bricks
Photo credit: eBay
Tea-Time Dishes
Tea-Time Dishes
Photo credit: Etsy
  1. Army men
  2. Elgo plastic bricks 
  3. Tea sets

Top Plastic Toys from the 1950’s 

Vintage Color Forms
Vintage Color Forms
Photo credit: Etsy
Vintage Corn Popper Toy
Vintage Corn Popper Toy
Photo credit: Pinterest
Vintage Gumby
Vintage Gumby
Photo credit: Pinterest
  1. Colorforms
  2. Corn Popper
  3. Gumby
  4. Hula Hoop
  5. Mr. Potato Head

Top Plastic Toys from the 1960’s 

Vintage Barbie
Vintage Barbie
Photo credit: Pinterest
Vintage GI Joe
Vintage GI Joe
Photo credit: eBay
Vintage Mouse Trap Game
Vintage Mouse Trap Game
Photo credit: eBay
  1. Barbie Doll
  2. G.I. Joe
  3. Mouse Trap
  4. Etch-a-Sketch
  5. Rock ‘Em Sock ‘Em Robots
  6. Troll Dolls
  7. Easy Bake Oven

Top Plastic Toys from the 1970s 

Vintage Speak Spell
Vintage Speak Spell
Photo credit: eBay
Vintage Shrink Dinks
Vintage Shrink Dinks
Photo credit: Etsy
Vintage Star Wars Action Figure
Vintage Star Wars Action Figure
Photo credit: Pinterest
  1. Baby Alive
  2. Big Wheels
  3. Nerf balls
  4. Shrinky Dinks
  5. Speak & Spell
  6. Star Wars Action Figures

Top Plastic Toys from the 1980s

Vintage Ninja Turtles
Vintage Ninja Turtles
Photo credit: Etsy
Vintage Glo Worm
Vintage Glo Worm
Photo credit: eBay
Vintage Nintendo
Vintage Nintendo
Photo credit: Pinterest
  1. Atari game console
  2. Strawberry Shortcake
  3. Space Legos
  4. Transformers
  5. Teenage Mutant Ninja Turtles
  6. Rubik’s cube
  7. Lite Brite
  8. Glo Worm
  9. Moon Shoes
  10. Little People
  11. Rainbow Bright
  12. Simon
  13. Game Boy
  14. Nintendo (NES) 

Top Plastic Toys of the 1990s

Vintage Dream Phone
Vintage Dream Phone
Photo credit: Pinterest
Vintage Hungry Hippos
Vintage Hungry Hippos
Photo credit: Pinterest
Vintage Tamagotchi
Vintage Tamagotchi
Photo credit: Pinterest
  1. Super Nintendo
  2. Tamagotchi
  3. Buzz Lightyear
  4. Polly Pocket
  5. American Girl Dolls
  6. Marble Run
  7. Perfection
  8. Hungry Hippos
  9. Dream Phone

BioPlastics: Newcomer with Potential

BioPlastics: Newcomer with Potential

Leave it to the plastics industry—long known for innovation—to come up with a game-changing new direction.

Media attention on “single use plastics”—some of it unfair, but attention nonetheless—has altered the course of the industry in multiple ways. Plastics producers and their business customers have found ways to minimize the negatives of single-use plastics, for one thing. For another, the industry has won favor among environment-conscious consumers by marketing alternative products whose impacts on the environment are diminished, as compared to the products they replace. And of course some offerings have been curtailed altogether by producers, as, again, a way of shrinking the environmental footprint of the plastics industry.

But perhaps the most promising new direction taken by the plastics industry has been its embrace of bioplastics.
 

Bioplastics are Biodegradable

According to some sources, as much as 8 million tons of plastics finds its way into the planet’s oceans each year. Such pollution poses not just a threat to the environment, but a hazard to health and a serious detriment to quality of life. Clearly, biodegradable plastics could deliver a vital alternative. 
 
They’re beginning to already.
 
Biopolymers, or bioplastics, are materials for which at least a portion of polymer consists of material produced from biomaterials. These lines represent a new generation of plastics, one that reduces the impact on the environment, both in terms of energy consumption and the amount of greenhouse gas emissions.
 
And new variations of bioplastics are coming along all the time.
Photo credit: Total Energies
One of the latest of these comes from China, where three scientists have led the engineering on new bioplastics that can be “tailored to needs.”
 
As reported by ScienceDaily.com, a team led by Jingjing Li and Yawei Liu (Chinese Academy of Sciences, Changchun, China), as well as Bo Wei (First Medical Center of PLA General Hospital) have achieved this first. Their research team has introduced a method for producing of protein-based plastics that are easily processable, biodegradable, and biocompatible, as well as having favorable mechanical properties.
 
“To do this they developed two lysine-rich proteins and produced them in bacterial cultures,” according to Science Daily. The steps involve “SRT” and “ELP,” the latter being a polypeptide similar to the connective tissue protein elastin. ELP does not have defined folding, which leads to toughness and elasticity. “SRT” consists of ELP plus crystalline segments of a squid protein with a β-sheet structure.
 
Said Science Daily: “Whether as packaging or toys, mulch films or cars [car components], plastics based on petrochemicals are ubiquitous—demand is rising, and so are the piles of garbage. Bioplastics based on natural materials like starch, or synthetic biomaterials like polylactic acid, have [hitherto] exhibited inadequate durability, biocompatibility, and/or biodegradability in most cases. In addition, they [have] often required complex, energy-intensive processing methods and toxic chemicals.”
 
The new direction “allows for the production of bioplastics with high mechanical strength at room temperature in any shape desired, and without toxic chemicals or complex processing steps such as liquefaction, extrusion, or blow molding. Their breaking stress exceeds those of many commercial plastics.” 
 
Among the possibilities raised by this breakthrough is the conceivability of toys being producing using this new, nontoxic bioplastic that can be dyed with food coloring. 
 
“This material may also be used to seal wounds, as it has hemostatic effects. Implants were completely broken down within a few weeks.”
 
The full report can be found on Science Daily’s website.
 

Bioplastics are Gaining Market Share

As one source has noted, bioplastics still represent less than one percent of the more than 367 million tons of plastic produced annually. But in contrast to the production volume of conventional plastics, which has experienced a slight decrease, the production volume of bioplastics has grown continuously since their introduction.
 
The source, European Bioplastics, attributed the trend to a rising demand (for bioplastics in general) helped by the emergence of more sophisticated applications and products.
Global Prod Capacity Total 2021
European Bioplastics cited market data compiled by European Bioplastics in cooperation with the Nova-Institute. These entities contend that global bioplastics production capacities are set to increase from around 2.42 million tons in 2021 to approximately 7.59 million tons in 2026. Hence, the share of bioplastics in global plastic production will pass the two percent mark for the first time. For the European Bioplastic’s report, visit their website.
 

Utensil Makers Find Advantage in Bioplastics

The market for bioplastic utensils is estimated to grow at a cumulative annual growth rate (CAGR) of more than 5.6 percent, according to a report from River Country News, a Nebraska-based publication.
 
Expressed as dollars, this change means going from $38 million, which is where the market was at just over a year ago, to some $53 million by 2026.
 
River Country News stated that bioplastic utensils are different from plastic ones “in that they are derived from natural resources, hence ‘bioplastic,’ whereas utensils made of conventional plastics are constructed from petroleum. Bioplastic utensils come from plants that are found naturally in the environment, such as corn, sugarcane, grass, bamboo, and other such materials. Therefore, because they are constructed of natural materials, they will more easily break down and decompose than traditional plastic will.”
 
While this development can take years to fully show itself in the broader world of consumer goods, the potential is there. The magazine put it this way:
 
“As awareness of environment protection strengthens, and as the online shopping phenomenon continues to unfold, people can buy bioplastic utensils online through their smartphone conveniently. More and more people will choose to use bioplastic utensils, not petrochemical plastics utensils.”
 
See the full story by going to the media outlet’s website.

Outlook is Bright For PLA and Other Bio-Plastics

Outlook is Bright For PLA and Other Bio-Plastics
A recent study proves what we here at Lone Star Chemical already knew: the prospects for PLA and other bio-plastics are bright and headed for bigger things. 
 
Worldwide, PLA and its bio-plastics kin, taken as an industry, are expected to top $7 billion in sales volume by 2027. That’s right—a scant five years from now, the bio-polymers business will have increased some 65 percent over its current volume of $4.3 billion. 
 
The study, which was released earlier this year with the formidable title of “Biodegradable Plastics Market Size, Global Forecast 2021-2027, Industry Trends, Impact of COVID-19, Opportunity Company Analysis,” stated that environmentally friendly plastics alternatives have boomed globally.
As sources as GlobeNewswire.com have reported, biodegradable plastics are one set of materials that have become a popular replacement for conventional plastics as consumers demand green options to align with the environment.
 
“Biodegradable plastic degrades under biological [mainly microbial] action with [little if any] chance of hampering the natural environment,” Globe Newswire stated. “Moreover, the awareness of conventional plastic’s harmful impact on the environment has also supported the global market for biodegradable plastics.”
 
Biodegradable plastics increasingly are becoming the choice for companies seeking an alternative to conventional plastics. As Globe Newswire observed, the pandemic of 2020-2022 caused a demand spike for packaging for food, pharma, and PPE. “Companies have endeavored [to find] biodegradable alternatives for food packaging and single-use cutlery,” the news outlet said.
“Numerous biodegradable and compostable plastics are bioplastics produced from plants rather than fossil fuels,” according to Globe. “There are many options, such as packaging, agriculture, and consumer goods depending on their application. Biodegradable plastics can be split down by microbes, as well as crushed up and converted into biomass, water, and carbon dioxide.”
 
Within the field of biodegradable plastics, a few are most popular, these being Polybutylene Adipate Terephthalate (PBAT), Polybutylene Succinate (PBS), Polylactic Acid (PLA), Polyhydroxyalkanoate (PHA), and Starch Blends.
 

Bio-Plastics and the Future

In a separate study, researchers concluded that, globally, bioplastics production (as opposed to dollar volume, discussed above) will more than triple within the next five years. The findings were based on research compiled by bioplastics association European Bioplastics (EUPD), in cooperation with the Nova Institute in Germany.
EUBP presented the outlook at the 16th EUBP Conference on Dec. 1. A Dec. 22 article by OFI Magazine(ofimagazine.com) covered the event. OFI cited a remark by EUPD chairman Francois de Bie, when the chairman observed that the importance of a 200 percent growth rate within the next five years cannot be overstated. 
 
“Before 2026, the share of bioplastics in the total global production of plastics will pass the 2 percent mark for the first time,” de Bie stated, according to OFI.
Global Prod Capacity Total 2021

The magazine stated that “Biodegradable plastics, including PBAT, PLA, and polybutylene succinate (PBS), currently account for slightly more than 64 percent (1.5 million tons) of global bioplastics production, according to EUPD’s report.

“Packaging remained the largest field of application for bioplastics, but the report showed that bioplastics materials were also being used in many other industries, with some sectors, such as consumer goods, continuing to moderately increase their relative share.”

In concluding the discussion, the magazine quoted EUPD managing director Hasso von Pogrell. “We will see an impressive increase in bioplastics production over the next [several] years. This also requires the expansion of production facilities,” EUPD managing director Hasso von Pogrell said. “This way, our industry will be able to respond to the growing demand for bioplastics.”
 
The full story can be found at OFI‘s website.

PLA and its “Total” Picture

Total Energies is a petrochemical partner of Lone Star, and Total is a leader in the production of both PLA and numerous other bio-plastics.
 
Further, Total Energies has shown itself to be an effective promoter, popularizer, and advocate of the earth-friendly new plastics offerings.
 
The company posts insightful details about PLA, for instance, on their TotalEnergies-Corbion.com site. We share some quotes below:
 
“PLA or Polylactic Acid is a range of unique bio-plastics which is both bio-based and biodegradable. In the right environment they will serve as a source of food for micro organisms and fungi. After the biodegradation process is completed only natural and harmless substances like water, CO2 and compost will remain behind. For PLA the biodegradation process will go relatively fast in industrial composting facilities and will take longer to complete in less biologically active environments. Besides composting, PLA bioplastics also offers additional end-of-life options like mechanical and chemical recycling.”
 

PLA Has High Heat Resistance

Says Total: “PLA bio-plastics can already be found in a broad range of established markets, like fresh food packaging, organic waste bags, food serviceware, tea bags, durable consumer products, toys, 3D printing,and non wovens. Most PLA bio-plastics of the past had the major drawback that they could not withstand increased temperatures. However, TotalEnergies Corbion has developed a high heat resistant solution for PLA-based bioplastics.”

PLA Has a Reduced Carbon Footprint

PLA bioplastic enable products to be produced with a high biobased content and a reduced carbon footprint. In case of Total Energies’ Luminy® PLA, the company (and Lone Star, its distributor) is pleased to observe that Luminy® gives its users a 75 percent reduction in carbon footprint compared to most traditional fossil-based plastics. PLA is produced from renewable feedstocks like sugarcane, corn, sugar beet, and cassava.
 
More information can be found at Total Energies’ website.
 

PLA is Pure and Natural

Lone Star Chemical’s CEO, Kip McAllister, has made it a company emphasis to increase Lone Star’s commitment to the marketplace’s adoption of bio-plastics. To that end, he refers many customers to another of Lone Star’s distributor-partners, Bio-Based Polymers (https://bio-basedpolymersusa.com). Says McAllister: “One of the product lines sold through Bio-Based Polymers is PLA. It’s a product that looks much like normal plastic, feels like normal plastic, but is made from sugar cane.”
 

Plastics Make it Possible

One of Lone Star’s favorite sources for plastics information is the website found at PlasticsMakeItPossible.com. And, yes, Plastics Make It Possible has also gotten on the bio-plastics bandwagon, with some great content that speaks well to the general public. Again, we share some excerpts:
 
“One point of general confusion [when the discussion turns to bio-plastics] is the inevitable desire to compare a molecule derived from natural gas/oil/coal to the same molecule derived from a ‘bio’ source. Many people believe these two molecules surely must have different properties and behave differently in the environment. Well … In reality, identical chemical structures behave the same.
 
“Here’s an example for plastics. One of the primary feedstocks for plastics is ethylene, produced in North America primarily from natural gas. (Ethylene derived plastics are used for all sorts of everyday products, from milk jugs to carpeting to fleece jackets.)
 
“Ethylene also is created naturally by plants. Ever wonder why a banana ripens faster in a paper bag? The banana actually creates and emits ethylene gas, which helps speed the ripening process—placing the banana in the bag traps more ethylene gas.”
 

Ethylene is Ethylene 

Again, quoting from Plastics Make It Possible:
 
“Does the “bio” ethylene have different properties than the ethylene derived from natural gas? No. Ethylene is ethylene, regardless the source. Ethylene’s structure (C2H4) is always exactly the same… just like good old water’s structure (H20) is always the same.
 
Will plastics derived from different ethylene sources have different properties? No. The original source of the ethylene is irrelevant to plastics (and to bananas).
 
For more from Plastics Make It Possible, visit their site.

One Word. Plastics.

That oft-quoted line from the motion picture The Graduate might be ripe for some modification in the 2020s, giving the direction things are headed.
 
One word. Bio-plastics.
 
An article by Tony Rogers for Creative Mechanisms (CreativeMechanisms.com) accentuates the positives attached to bio-plastics, while the products themselves eliminate many of the negatives of traditional oil-and-gas-based petrochemical plastics. 
 
As Rogers states, “Polylactic Acid (PLA) is different than most thermoplastic polymers in that it is derived from renewable resources like corn starch or sugar cane. Most plastics, by contrast, are derived from the distillation and polymerization of nonrenewable petroleum reserves. Polylactic Acid is biodegradable and has characteristics similar to polypropylene (PP)polyethylene (PE), or polystyrene (PS). It can be produced from already existing manufacturing equipment (those designed and originally used for petrochemical industry plastics). This makes it relatively cost efficient to produce. Accordingly, PLA has the second-largest production volume of any bioplastic (the most common being thermoplastic starch).”
 
Polylactic acid (PLA) is the source material for a rapidly expanding array of products and applications. As Rogers observes, the most common uses include plastic films, bottles, and biodegradable medical devices (e.g. screws, pins, rods, and plates that are expected to biodegrade within 6-12 months).
 
“PLA constricts under heat and is thereby suitable for use as a shrink wrap material,” Rogers writes. “Additionally, the ease with which Polylactic Acid melts allows for some interesting applications in 3D printing. On the other hand, its low glass transition temperature makes many types of PLA (for example, plastic cups) unsuitable to hold hot liquid.”
 

What Makes PLA So Special?

Here’s where the PLA picture gets even more promising. The designation PLA is actually a collective term for a family of bio-chemicals. Polylactic acids include Racemic PLLA (Poly-L-lactic Acid), Regular PLLA (Poly-L-lactic Acid), PDLA (Poly-D-lactic Acid), and PDLLA (Poly-DL-lactic Acid). According to Rogers and Creative Mechanisms, each of these variants has slightly different characteristics but they are similar in that they are produced from a renewable resource (lactic acid: C3H6O3) as opposed to traditional plastics, which are derived from nonrenewable petroleum.
 
Says Rogers: “PLA production is a popular idea as it represents the fulfillment of the dream of cost-efficient, non-petroleum plastic production. The huge benefit of PLA as a bioplastic is its versatility and the fact that it naturally degrades when exposed to the environment. For example, a PLA bottle left in the ocean would typically degrade in six to 24 months. Compared to conventional plastics (which in the same environment can take several hundred to a thousand years to degrade) this is truly phenomenal. Accordingly, there is a high potential for PLA to be very useful in short lifespan applications where biodegradability is highly beneficial (e.g. as a plastic water bottle or as a container for fruit and vegetables). Of note, despite its ability to degrade when exposed to the elements over a long time, PLA is extremely robust in any normal application (e.g. as a plastic electronics part).”
 
Find the rest on Creative Mechanisms’ site.

Plastics Sales Perspectives: A Q&A with David Young

Plastics Sales Perspectives: A Q&A with David Young
David Young - Accounts Manager
David Young | Accounts Manager

David Young, account manager for Lone Star Chemical, made himself available to his company’s marketing team recently for a Q&A on the work that Lone Star does for its customers, and the role of the sales team in servicing those customers.

 
A native of Texas, David was raised in San Angelo and he attended college at Texas A&M, later taking his degree at Angelo State University. He is a military veteran, having served in the U.S. Army as a forward observer for the artillery in Operation Desert Storm.
 
Interviewer: We know that prices for plastics can fluctuate. What have you seen happening over recent months?
 
David Young: Pricing in the last 18 months [this article is being posted in early 2022] has doubled for a lot of materials. Costs have increased for polymer materials coming from the plant, but also for freight, packaging, warehousing, and other things.
 
Interviewer: We hear a lot about “monomer.” It is monomer that drives the market cost for polypropylene, right?
 
David Young: Yes.The monomer price is what all of the other pricing is based off of. It’s gone up dramatically.
 
Interviewer: What other factors are driving prices?
 
David Young:  One other thing is a lack of import material. Import material is in shorter supply right now. Import material [overseas or international material] helps keep the market honest. [By increasing the availability of product and thus making prices more competitive.] When Covid came, the import material got shut off completely. And so that allowed prices to rise, because the market was without any real outside competition.
 
Interviewer: So when you talk about import material you’re talking about the raw material, right? The pellets.
 
David Young: Yes. You could also call it finished material. There’ll be finished polypropylene and polyethylene that’ll come in from Asia. The majority of the polypropylene, polyethylene, and polystyrene is manufactured in the Houston area. In the United States, anyway. The vast majority of it. And so when you start trying to service the West Coast, if they can get some cheap import material coming in from Asia, that can affect prices. And the other thing is the plastic market uses export material to keep prices high here. So if they have a glut of material, they’ll export some of it to keep supply at a reasonable rate so that the prices don’t drop dramatically.

Photo Credit: Kit & Jesse Mullins

Interviewer: Can you speak to the topic of freight?
 
David Young: What I know about freight is that it’s gone up dramatically in the last several months. And what we’ve been told is that, for one thing, the federal government changed the rules on drivers over a year ago. And forced them to use computers to track all their movement and everything. So that they couldn’t bypass the system anymore. They used to use paper logs and they could manipulate the system on how many hours they were actually driving. They can’t do that anymore. A lot of people got out of that business. And then more recently it’s what we’re seeing across the country. It’s sheer lack of drivers, higher demand, and that just drives prices way up.
 
Our own freight’s been more expensive and our customers have had to deal with a lot of that, but freight companies have been treating us pretty well. We’ve got some that we work with that work really hard and treat us really well. And we’ve been fortunate not to have to tell any customer that we couldn’t get a material because of freight. It’s been more expensive, and our customers have had to absorb that cost, but we’ve got several companies that work really hard and do really good job for us. So, we’re very fortunate there.
 
Interviewer: That’s where having different connections really pays off, right?
 
David Young: Yes. And it’s also the length of time that Lone Star has been doing this. Not myself personally, but Lone Star. They’ve developed relationships over the years that are personal. And so that helps us in a lot of ways. What kind of makes us go is we answer the phone when you call and bust our butt to make it work. And our freight people do that for us, too, and that’s good.
 
Interviewer: And it seems like that’s really where you’re at. You’re at that level where customer service is what it’s all about, because the plants themselves are going to sell direct to only the giant users and you’re going to take everybody else.
 
David Young: Our customers are the people who don’t move the needle for the big producers of plastics. And so we buy large quantities and break it into smaller quantities and that’s just how we do business.
 
Interviewer: Tell me about extrusion. What’s the difference between injection molding and extrusion?
 
David Young: With extrusion, the polymer is pushed through a die. They push the melted plastic through a die. And you cool it, usually in a water bath. But as long as you’re pumping plastic into one end, you’re getting plastic out of the other end. They make soda straws using that process. We’ve got a soda straw customer that makes all the straws for 7-Eleven. That’s an extrusion process. Also, you see extrusion with your construction-type stuff, like all those PVC windows. They extrude all the frames for those and then cut them in the right sizes and build them. I’ve got another customer I’m talking to right now who is going to extrude culverts. Black plastic culverts.

Photo Credit: Kit & Jesse Mullins

Interviewer: How did the freeze of Texas—this was in February of 2021—how did it affect the market and production?
 
David Young: Well, the freeze came on in the midst of the Covid pandemic. So, initially, Covid brought a lot of plants down to about 60 percent of their capacity just because of shutdowns, demand, people, all those things. Those plants don’t like to operate at that [reduced] level. It’s not profitable for them to operate at 60 percent of their capacity. And just when they started to spool back up, just when they started to see a little bit of traction, we had the freeze. And the freeze shut them down to 0 percent. Then they had a lot of repair work to do and things like that.
 
So some of the plants were shut down for a couple of weeks. And a plant can operate at no higher than 100 percent of its capacity. So if you were operating at 100 percent and you shut down for three weeks, you can’t make that up. You can’t operate at 120 percent. You can only operate at 100 percent, and so this really threw them for a loop. And then we also had some hurricanes in 2021 that directly hit the polypropylene lines. So a lot of the polypropylene is produced right there between Houston and Louisiana, in that Beaumont area. And those hurricanes, if you remember, they missed New Orleans, they went west of New Orleans, but they hit those polypropylene plants directly.
 
And—not related to that, but—we had a couple of fires on plastic production lines that shut plastic production lines down. It was just, for lack of a better term, kind of the “perfect storm” of bad. And it’s taken them a while to start really recovering from that. Now a little more insight on that, especially where it comes to polyethylene, is that there are people building new polyethylene lines and they’ve been working on them for a couple of years. We’re expecting very soon to see a lot of polyethylene [capacity] available. Shell is building a massive plant in Pennsylvania. Because so much the natural gas is being produced in Pennsylvania. They’ve been working on it for years and they expect to have material by—well, they’re saying June—but it’ll probably be later than that. Just the same, this will be huge.
 
So we’re going to see supply increase dramatically over the next year to a year-and-a-half, which will help with pricing. But as for the freeze—the freeze shut them down. And it’s hard to recover.
 
Interviewer: With that increase in plant capacity, that would give every business like yours an opportunity to expand your business. When the raw materials get less expensive, all the manufacturers [injection molders, etc.] can make more money. They can get more product out there.
 
David Young: Sure. It’ll definitely drive a lot of competition. It could force the price down. It’ll be interesting to see how it affects us because [at the present time] we have a limited number of suppliers that we can get material from. When more material is being produced, we’re going to see more competition [between plastics producers seeking to move product] and that’s going to drive prices down. Resellers like ourselves are going to have to work harder, too. And that’s what’s going to happen.

Logistics Matter: A Q&A with Lone Star Chemical’s CEO, Kip McAlister

Q & A

Kip McAlister, president and CEO of Lone Star, took time with an interviewer to answer questions about Lone Star’s logistics, operations, and the defining traits of the company.

Kip McAlister - President & CEO
Kip McAlister | President & CEO

Interviewer: What is an advantage that a customer might get from doing business with Lone Star Chemical?

Kip: We communicate very well with our customers. We stay in touch and we respond quickly. When you call us, a human being answers the phone 90 percent of the time. And we keep product inventoried in locations that are generally in close proximity to a customer, wherever they might be in the country. That means we can get a shipment to the customer quickly, when speed is of the essence.

Interviewer: What exactly do you sell?

Kip: We sell polypropylene. Also polyethylene, which will probably become our biggest product here very quickly. And then we sell polystyrene. And repro. We also have another company that we just started in January of 2020 that does bio-friendly products. There’s a big push for environmentally friendly materials, so we’re doing that as well. The new company called Bio-Based Polymers. One of the product lines sold through Bio-Based Polymers is PLA. It’s a product that looks much like normal plastic, feels like normal plastic, but it is made from polylactic acid, which is made from sugar cane.

Interviewer: What are most other polymers and resins made from?

Kip: They are refined from crude oil. That’s one way to get the feedstocks. The other way that it can be done now is with natural gas. But not all [plastics] products can be created that way. Only the polyolefins. The polyolefin consists of polyethylene and polypropylene.

Interviewer: Does Lone Star manufacture any of the plastics it sells?

Kip: No. We don’t make the materials. What we do is buy from the producers [major petrochemical plants] and turn around and resell the materials to companies that use it to make their various products. I think of us more as a help to the producers in moving product. We help them get it moved to areas where they would not normally be active as distributors themselves. They want to sell direct only to the largest customers—the ones who might take 20 railcars at a time. We take shipments that big ourselves, but we break it down to smaller allotments and distribute that to our own customer base that we service. We sell to customers all over the country. Our business is distribution.

When we buy in rail car quantities, we either ship it to our warehouse or we can also ship a rail car, or more than one, directly to a customer of ours. When we ship to a warehouse, it’s not one that we own, but it’s one that we have contracted with. They receive the shipment there and they will package it for us or prepare it however we want. They can put it in bags or in Gaylord boxes, or they can put it on a rail siding, and we can offload that material into bulk trucks and deliver it to people that have silos. We have several [of these] across the country. We have situated them in locations that we feel are best for servicing multiple customers.

If a rail car is shipped directly to a customer, we will give [the carrier] that customer’s delivery address. And we can even have the big oil companies [the producers] set things up to make a regular delivery straight to that customer for us. We deliver by the truckload, too.

Interviewer: What is a Gaylord?

Kip: A Gaylord is a box. It’s a corrugated cardboard box that will hold 1,500 pounds of plastic. So we call it a Gaylord box.

Interviewer: It’s something you forklift?

Kip: Yes. It has a pallet underneath it and you pick it up with a forklift.

Interviewer: So you say you have product stockpiled at different warehouses or silos across the country?

Kip: Yes. And we’ll sometimes have people call in a panic, saying, ‘Oh my gosh, do you have anything you can give me?’ And of course we do. We pull it from a warehouse and send it to them.

Interviewer: What kind of a staff do you have?

Kip: We have eight salespeople. And then we have two very good customer service people. So we have 10. Actually, we have 11 if you count my father still.

Interviewer: So most people are in sales, then?

Kip: Oh yes, absolutely. That’s what we do.

Interviewer: How can people find you?

Kip: Our main phone number is 888.575.9195. Our headquarters office is at Argyle, Texas. Our website is at LoneStarChemical.com. Anyone who’s interested, please get it touch! We’d love to hear from you.

Finding a Better Way

Polymer Lifecycle Challenges

The polymer business has a bright future ahead of it. So say the authors of a recent white paper. “The next 50 years will be an exciting and rewarding time. Rewarding for the polymer industry. And for the world that depends upon it.” Such was the conclusion of the study, which Perkin Elmer Inc., a U.S.-based research firm, published in 2020.

That conclusion comes as no surprise to the team at Lone Star Chemical. Lone Star, growing steadily for years, currently enjoys its best year in the business.

Part of what makes Lone Star successful is its ability to roll with the changes. And adapt as market realities shift. Matt Marshall, Vice President of Purchasing and Sales at Lone Star Chemical, knows that responsiveness matters. A company must listen to its customer base.

 

Polymer Progress

Asked what new direction Lone Star might be pursuing these days, Matt replied with no hesitation. “We’re focusing more on biodegradable types of products right now,” he said. “That’s the area that we’d like to grow in. There seems to be a big push for those kind of products.”

Indeed, the white paper cited earlier reached the same conclusion. Perkin Elmer Inc., a research firm specializing in industry, surveyed the field. They observed that research-and-developments firms in the polymers field keep investigating recyclability of their products. They want to bring better plastic formulations to market.

“The demand for better, less environmentally impactful materials shapes the reality for these companies,” the report states. “The competition increases to develop new products with advanced performance capabilities. The idea: advance a ‘circular economy’ for plastics. In addition to industry demands, polymer production companies continuously search for ways to improve efficiency, control costs, and streamline their processes. All the while, they meet their customers’ needs and comply with regulatory standards.”

The entire white paper resides on Perkin Elmer’s website.

Polymers Recycling

One of the product lines Lone Star already sells goes by the name “repro.” The term “repro” stands for “reprocessed recycled materials.”

Perkin Elmer, in its study, cited three important benefits that polymers recycling provides to society and the environment. For one, by returning materials to the polymer production process, recycling reduces the need for virgin raw materials. Second, using recycled resins instead of virgin resins reduces energy consumption during plastics production up to 88 percent. And third, using recycled plastics reduces air emissions during plastics production by up to 71 percent.

Matt Marshall - Vice President of Purchasing and Sales
Matt Marshall

For all these reasons, Lone Star keeps expanding its biodegradable lines. Further, the company finds other environmentally friendly offerings. Not surprisingly, Matt Marshall sees the direction as being good for everyone.

Polymers and Pricing

The Lone Star VP stays fully engaged in all of the company’s other efforts, too, for that matter. In his capacity as VP of Purchasing, he liaisons with some of the biggest petrochemical firms in the nation.

“I work with most of them—most of the major oil companies,” he says. “The main challenge there becomes just knowing the polymers markets. And knowing when to buy and when not to buy. As well as knowing what products work for your customers. There’s also the matter of price. It all comes down to offering a competitive price.”

He continued: “When we purchase from the oil companies the material ships in rail cars. Those run about 200,000 pounds [per car]. We’ll send it to various parts of the United States and break it down into 1,500 pound gaylord boxes. So we sell a range of quantities. We can sell everything from one gaylord box up to multiple rail cars that go directly to our customers’ plants.”

In his pre-Lone Star life, Matt worked in motor sports. He served on the Joe Gibbs Racing Team, working mainly out of Indianapolis and Detroit. Today Matt’s sporting life stays confined mainly to hunting and practicing martial arts.

But like all Lone Star employees, Matt’s never far from a phone. And he, like the rest of the company, prides himself on being that “live voice” that’s available to customers. For more on Matt, see his bio.

When Being Connected Means Everything

When Being Connected Means Everything
Mike McAlister - Founder
Mike McAlister

If there ever was someone who could be said to have been “born” into the plastics industry, that person would have to be Kip McAlister, president and CEO of Lone Star Chemical. Kip’s birth came at a time when his father, Mike McAlister, was deep into his career at Fina Oil and Chemical Company, selling plastics, and was on the verge of stepping away from there to establish a wholesaler firm of his own, dealing in polystyrene. Mike made that move, and Kip grew up in the family biz, eventually taking a position in it, and later getting promoted to its top spot. (For more on Kip’s background, see his bio.)

One of Kip’s biggest contributions to the company has come in the form of making connections. His early push as newly appointed president and CEO was to develop a greater network of upstream partnerships.

“When I took over, my emphasis was on getting multiple suppliers,” Kip says.

Mike McAlister, during his earlier tenure as CEO, had been very loyal to Fina because of his background there. “And so he [Mike] would not really buy from anybody else,” Kip says. “He just was very loyal to them, and they were very good to him as well. Can’t complain. But anytime you add a little competition to the mix, I think you always make it better. And so, I’ve worked very hard to do get multiple suppliers and not be dependent upon just one supplier…. We don’t have all of our apples in one basket.”

He adds: “My dad’s company was strictly a reseller [of Fina’s products]. I didn’t want to stay small or just stay with what we were doing.”

Having more suppliers means being able to shop more widely for the best deals for Lone Star’s customers—and pass along the savings, Kip said.

The company has also, over the years, branched out from its earliest practice of reselling only polystyrene. Now Lone Star sells polypropylene, polyethylene, repro, and other products.

The typical customer for Lone Star is a business that uses injection molding machines to melt and form these polymers into various products for end users.

One example is Spill Tech, a company that manufactures absorbents for cleaning up spills. They buy polymers from Lone Star. Eddie Reid, plant manager at Spill Tech (SpillTech.com) said that Lone Star is “easy to do business with.”

“They are honest and they are competitive,” Reid says. “And Kip is professional, knowledgeable, and easy to deal with.”

According to Kip, the companies that Lone Star targets for sales are companies that the big producers of plastic don’t want to sell to directly. “Meanwhile, they [the petrochemical plants] want the Rubbermaids, the Hefty Trash Bags, Igloos, companies like that,” Kip says. “They want companies that can buy 10 to 20 rail cars a month. They [those producers] want us to sell to people who have to buy smaller than that. Smaller quantities.”

In an arrangement like this, everyone wins. The large petrochemical plants can keep their client list small and do not have to keep tabs on hundreds of small(er) quantity buyers. The Lone Stars of the world can buy in bulk from the chemical plants, then break down the railcar loads into smaller allotments and distribute those to Lone Star’s own customers, most of whom are manufacturers and merchandisers.

Asked what kind of questions he gets from his customers, Kip doesn’t hesitate. “They always want to know what we think the market is going to do, one month to the next,” he says. “They always want to get some kind of forecast. Like, ‘What do you think is going to happen in the next two or three months?’”

But he has to be honest. He doesn’t have a crystal ball and neither does anyone else. “This year, it’s been a dart throw against the wall. Whatever the dart hits, that’s what you [would] think is going to happen. You have no idea, quite honestly.”

But for all of that, the work remains satisfying. It’s satisfying, Kip said, to sell so much material to so many businesses that create made-in-America goods. Indeed, most of Lone Star’s customers are U.S.-based businesses. “I’m glad we have American manufacturers, obviously,” he says. “We have customers from coast to coast.”

As the clientele for Lone Star Chemical keeps growing, it’s obvious they are pleased with Lone Star as well. The plastics/polymers/resins industry is a small world, relatively speaking, but it’s a thriving one, for customers, distributors, and manufacturers alike. Even if they don’t know what the market will do one month to the next.