Is thermoplastic elastomer safe?

You’ve seen the words on the packaging for a baby toy, on the description of a new pillow, or maybe on the handle of a kitchen tool: Thermoplastic Elastomer. It sounds technical. It sounds like a chemical. And the first, most human question that pops into your head is a simple one: Is this stuff safe?

It’s a fair question. In a world of headlines about BPA, phthalates, and microplastics, we’ve been trained to be suspicious of any material we can’t pronounce. We’re told to trust things that are “natural” and be wary of things made in a lab. So when you see a word like “elastomer,” it’s easy to file it under “suspicious chemicals” and move on.

That’s a mistake. And my job today is to take that vague suspicion and replace it with concrete understanding. Because the answer to “Is TPE safe?” isn’t just a simple yes or no. The real answer is far more interesting. It’s a story about brilliant chemistry, intentional design, and why this “unnatural” material has become the gold standard for safety in some of the most sensitive products on earth.

First, let’s get you the quick answers you came for.

The Short Answer: Is TPE Safe?

Now, let’s get into the details.

What Exactly Is a Thermoplastic Elastomer?

To understand why TPE is safe, you first have to understand what it is. The name sounds complicated, but it’s actually a perfect description of what it does. Let’s break it down.

• Elastomer: This is the engineering word for any polymer that has “elasticity”—the property of rubber. You can stretch it, and it snaps back to its original shape.
• Thermoplastic: This is the engineering word for any plastic that can be softened by heating and hardened by cooling, a process that can be repeated over and over. Think of a chocolate bar: you can melt it down and re-cast it into a new shape.

So, a Thermoplastic Elastomer is a material that combines the elastic, rubbery function of an elastomer with the melt-and-remold processing ability of a thermoplastic. It’s a molecular hybrid. It’s the best of both worlds.

1. The Alchemist’s Trick: How It’s Made

Imagine you want to make a material that is both strong and stretchy. You could try mixing hard things and soft things together. This is exactly what chemists do to create TPE. The most common types, like SBS (Styrene-Butadiene-Styrene), are known as “block co-polymers.”

Think of it like this:

• The Hard Blocks (Styrene): These are tiny, rigid islands of hard, durable plastic. They give the material its strength, chemical resistance, and ability to be melted. This is the “thermo-plastic” part.
• The Soft Blocks (Butadiene): These are long, flexible chains of rubbery material that connect the hard islands. They give the material its stretch, softness, and bounce. This is the “elastomer” part.

Crucially, these hard and soft blocks are not chemically melted together. They are physically linked, like a tangle of necklaces made of both metal beads and rubber bands. When you heat the TPE, the hard plastic “beads” melt, allowing the whole material to flow like a liquid. When it cools, the beads solidify again, locking the rubbery chains in place. This is completely different from traditional rubber, which is a thermoset.

2. The Hard-Boiled Egg vs. The Chocolate Bar

This is the most important distinction you need to understand.

• Thermoset Rubber (The Egg): To make traditional rubber (like a car tire), you take raw rubber, mix it with sulfur, and cook it in a process called vulcanization. This creates permanent, strong chemical cross-links between the polymer chains. Just like boiling an egg, this is a one-way chemical change. You can’t “un-boil” the egg, and you can’t melt the car tire.
• Thermoplastic Elastomer (The Chocolate Bar): TPE, as we’ve learned, has no permanent chemical cross-links. Like a chocolate bar, it’s a physical structure. You can melt it down and re-shape it as many times as you want.

This difference is the source of all of TPE’s advantages. It’s why it’s easier and cheaper to manufacture, why it’s easily recyclable, and, as we’ll see, a key reason why it’s so safe.

So, Is It Actually Safe for Humans?

Now we get to the core of the issue. A material’s safety isn’t just about what it is, but also what it isn’t. The safety of TPE comes from the absence of harmful components that plague other materials. But here’s the key: “TPE” is a family of materials, not a single substance. The safety of a TPE product depends entirely on the specific grade chosen by the manufacturer for that specific application.

1. The Medical-Grade Guardian Angel

This is where TPE truly shines and where its safety is most rigorously proven. In the medical world, any material that touches the human body must meet incredibly strict standards for biocompatibility. TPE has replaced traditional materials like latex and PVC in countless medical applications for very specific reasons.

• Hypoallergenic: Medical-grade TPE contains no latex. This is a massive advantage, as latex allergies can be severe and even life-threatening. By using TPE for items like syringe plungers, tourniquets, and breathing masks, hospitals eliminate a major source of allergic reactions for both patients and healthcare workers.
• No Harmful Additives: Flexible PVC, another common medical material, requires chemical additives called plasticizers (often phthalates) to make it soft. These chemicals are not chemically bonded to the PVC and can leach out over time, which is a significant health concern. Medical-grade TPE is naturally soft and flexible and does not require these plasticizers. It’s also free of BPA (Bisphenol A).
• Sterilizable: Medical-grade TPEs are engineered to withstand common sterilization methods like gamma irradiation, ethylene oxide (EtO), and steam autoclaving without degrading or leaching chemicals.
• Inert and Stable: The material is chemically stable and does not react with bodily fluids or common medications, ensuring that it delivers the drug without contaminating it.

When a manufacturer chooses a medical-grade TPE, they are choosing a material that has been exhaustively tested and certified to be among the safest polymers in existence.

2. The Food-Contact Gatekeeper

The same principles apply to products that touch our food and our mouths. You see TPE everywhere in the modern kitchen, from the soft-grip handle on an OXO peeler to the flexible seal on a food storage container.

• FDA Compliance: Reputable manufacturers use TPE grades that are compliant with FDA (U.S. Food and Drug Administration) regulations for food contact. This means the material has been tested to ensure it doesn’t transfer any harmful substances to food.
• No Phthalates, No BPA: Just like with medical grades, food-contact TPEs are formulated without these controversial chemicals, making them a popular choice for baby products like teethers, pacifiers, and bottle nipples.
• Durability and Cleanliness: TPE is non-porous, so it doesn’t harbor bacteria like wood or other materials can. It’s also typically dishwasher-safe, making it easy to clean and sanitize.

3. The Skin-Contact Companion

The final category of safety is for products that are in constant contact with our skin. Think of the soft strap on a Fitbit or Apple Watch, the grippy frame on a pair of sunglasses, or the squishy, grid-like structure of a high-tech TPE pillow.

• Non-Irritating: Skin-contact grades of TPE are designed to be inert and cause no skin irritation, even during prolonged contact and exposure to sweat.
• No Leaching: The material is stable and won’t break down or become sticky over time, meaning no chemical residue is left on your skin.
• Comfort: Beyond just being safe, TPE provides a level of comfort that hard plastics can’t match, which is a form of functional safety, preventing blisters and pressure points.

The story of TPE’s safety is a story of deliberate choice. It’s a material that was engineered from the ground up to be a clean, stable, and versatile alternative to older materials with known problems. Its “unnatural,” lab-created origin is not a liability; it’s a feature. It allows chemists to build a material with all of the good properties of rubber, without any of the baggage.

How Does TPE Compare to Other Flexible Materials?

When a designer is creating a product that needs to be soft, grippy, or stretchy, they have a menu of options. TPE is almost always on that menu, but so are its main rivals: PVC, Silicone, and traditional Thermoset Rubber. Choosing the right one is a classic engineering trade-off between performance, cost, and safety.

1. The Arch-Rival: TPE vs. PVC

This is one of the most important comparisons, as TPE has been systematically replacing flexible PVC in many consumer and medical applications for decades.

• Polyvinyl Chloride (PVC): PVC, also known as vinyl, is one of the most widely used plastics in the world. In its rigid form, it’s used for pipes and house siding. To make it soft and flexible for use in things like shower curtains, electrical cable insulation, or children’s toys, manufacturers must add chemical plasticizers.
• The Problem with Plasticizers: The most common plasticizers used in PVC are phthalates. These chemicals are not chemically bonded to the PVC polymer. They are more like a lubricant mixed into the plastic. Over time, and especially with heat or wear, these phthalates can leach out of the product. This is why an old vinyl dashboard in a car gets sticky and brittle, and why you get that “new shower curtain” smell—you are literally smelling the plasticizers off-gassing into the air. Phthalates have been linked to a host of health concerns, particularly related to endocrine disruption, and are heavily regulated or banned in many products, especially those for children.

The Verdict:

• Safety: TPE is the clear winner. TPE is inherently flexible and does not require phthalates. By choosing TPE, a manufacturer eliminates the entire risk of plasticizer leaching. This is the single biggest reason why TPE has replaced PVC in toys, medical devices, and food-contact items.
• Performance: For general-purpose flexibility and grip, the two can be similar. However, PVC can be formulated to be extremely durable and resistant to chemicals and oils, which is why it’s still used for industrial flooring and chemical pipes. TPE often has a better “feel” and is less prone to getting sticky with age.
• Cost: PVC is generally cheaper than TPE, which is why it remains a common material for low-cost, non-critical applications where direct human contact is minimal or safety regulations are less strict.
• Environmental: TPE wins again. TPE is easily melt-recyclable. PVC is notoriously difficult to recycle, and when it is incinerated improperly, it can release highly toxic dioxins and hydrochloric acid.

Conclusion: For any product that touches a person, especially a child, TPE is the superior modern choice over flexible PVC.

2. The High-Performance Cousin: TPE vs. Silicone

This is a much closer race. Silicone is another high-performance, extremely safe elastomer. The choice between TPE and silicone often comes down to specific performance needs and cost.

• Silicone Rubber: Silicone is not a thermoplastic. It’s a thermoset, like traditional rubber, but with a completely different chemistry based on silicon and oxygen (forming a “siloxane” backbone) rather than carbon. You can’t melt and recycle it. It’s known for its incredible stability at both high and low temperatures and its extreme inertness.

The Verdict:

• Safety: It’s a tie. Both medical-grade silicone and medical-grade TPE are exceptionally safe, biocompatible, and hypoallergenic. Both are used for top-of-the-line baby products, medical implants, and food-contact items (like the popular Stasher bags, which are made of pure platinum silicone).
• Performance: Silicone often has the edge in extreme conditions. Silicone’s key advantage is its massive temperature range. It can remain stable from -100°C to over 250°C (-150°F to 480°F). This is why it’s the undisputed champion for oven mitts, bake-ware (e.g., Silpat mats), and high-temperature engine gaskets. TPE has a much narrower operating temperature range and will melt at high temperatures. Silicone also tends to have better compression set (its ability to “bounce back” after being squashed for a long time). TPE, however, often has better abrasion and tear resistance, making it more durable for dynamic applications like the sole of a shoe.
• Cost & Manufacturing: TPE is the clear winner. TPE’s thermoplastic nature gives it a huge advantage. It can be processed much faster (shorter cycle times) on standard injection molding machines. Silicone’s thermoset curing process is slower and requires more specialized equipment. Furthermore, TPE can be easily co-molded (overmolded) onto hard plastic substrates. That grippy handle on your toothbrush? It’s likely TPE overmolded onto a polypropylene handle, a process that is very difficult and expensive to do with silicone. This ease of manufacturing makes TPE a far more cost-effective choice for high-volume consumer goods.

Conclusion: Choose Silicone when you need extreme temperature resistance or ultimate chemical inertness (like for oven-safe bake-ware). Choose TPE when you need a cost-effective, durable, and easily manufactured soft-touch material for a consumer product (like a tool handle or phone case).

3. The Old Guard: TPE vs. Traditional Rubber

This comparison brings us back to the beginning: the vulcanized, thermoset rubber found in car tires and industrial hoses.

• Thermoset Rubber (e.g., EPDM, Neoprene): These are the workhorses of the industrial world. They are cured into their final shape and cannot be remelted.

The Verdict:

• Safety: For human contact, TPE wins. As we’ve discussed, traditional rubber often contains latex, a common allergen. It can also contain various processing chemicals and sulfur from the vulcanization process.
• Performance: It depends on the job. For heavy-duty industrial applications, traditional rubbers are still king. A material like EPDM has outstanding weather, UV, and ozone resistance, making it perfect for outdoor seals and roofing membranes. Neoprene has excellent oil and chemical resistance. No TPE can match the ruggedness and resilience of the rubber used in a heavy-duty truck tire.
• Cost & Manufacturing: TPE has a huge advantage in processing. The fast, repeatable, low-waste process of thermoplastic injection molding is far more efficient than the slow, energy-intensive process of thermoset rubber molding. This makes TPE much more economical for producing complex, high-volume consumer parts.

Conclusion: Choose traditional rubber for demanding, high-performance industrial applications where ruggedness is the top priority. Choose TPE for any consumer-facing product where manufacturing efficiency, design freedom (especially overmolding), and hypoallergenic properties are more important.

Where Is TPE Actually Used?

Understanding these comparisons allows you to see why TPE has carved out its specific niche. It thrives in the space where safety, manufacturing efficiency, and a pleasant “soft-touch” feel are the most important criteria. Here are some real-world examples where TPE is the perfect choice:

• Consumer Goods: This is TPE’s kingdom. The handle on your razor, the grip on your favorite pen, the soft-touch buttons on a remote control, the flexible frame of your sunglasses, the seal on your water bottle lid. In all these cases, the ability to cost-effectively overmold a grippy, safe material onto a hard plastic body is paramount.
• Baby Products: Because it is free from phthalates, BPA, and latex, TPE is a go-to material for teethers, pacifiers, soft-spout sippy cups, and squeezable toys.
• Medical Devices: Syringe plungers, flexible tubing, respirator masks, tourniquets, and soft-touch grips on medical instruments all benefit from TPE’s combination of safety, flexibility, and sterilizability.
• Automotive Interiors: The soft-touch surfaces on your dashboard, door panels, and control knobs are often made from specialized TPEs. They provide a premium feel, are durable, and can be easily molded into complex shapes.
• Footwear: The flexible, durable, and easily colorable nature of TPE makes it popular for shoe soles, midsoles, and other components.
• High-Tech Bedding: The most innovative use is in products like the Purple Mattress or TPE pillows. Here, the TPE is molded into an open geometric grid. This “hyper-elastic polymer” grid provides a unique combination of soft comfort and firm support that traditional foams can’t replicate, while also allowing for massive airflow, keeping the sleeper cool.

In every one of these examples, TPE isn’t just a substitute for rubber. It’s an enabling technology. It allows designers to create products that are safer, more comfortable, more ergonomic, and more cost-effective to produce than ever before.

What Are the Downsides of TPE?

For all its brilliance, TPE is not a magic bullet. It has a specific set of weaknesses that make it entirely unsuitable for certain jobs. Pushing it beyond these limits is a recipe for failure.

1. The Enemy of Heat: A Low Melting Point

This is TPE’s most significant vulnerability and the primary reason it will never replace silicone in many applications.

• The Problem: TPE is a thermoplastic. Its ability to melt is its greatest strength in manufacturing, but its greatest weakness in a high-heat environment. Most common TPE grades begin to soften significantly around 100-140°C (212-284°F). If you put a TPE spatula in a hot frying pan, it won’t just get soft; it will melt and deform permanently.
• The Comparison: This is where a thermoset like silicone is vastly superior. Silicone can easily handle temperatures up to 250°C (480°F) without breaking a sweat. It doesn’t melt at all; at extreme temperatures, it will eventually char and turn to ash, but it won’t revert to a liquid.
• The Takeaway: Never use TPE for applications involving direct contact with ovens, stovetops, hot engine components, or any environment where temperatures regularly exceed the boiling point of water. For high-heat applications, silicone is the only choice.

2. The Pressure Cooker Problem: Compression Set

Imagine you have two balls, one made of TPE and one made of traditional vulcanized rubber. You put them both under a heavy book and leave them there for a year. When you finally lift the book, which ball will be rounder?

• The Problem: The rubber ball will be nearly perfect. The TPE ball will likely have a permanent flat spot. This phenomenon is called compression set. It measures a material’s inability to return to its original shape after being held in a compressed state for a long period. TPEs, due to the physical cross-linking of their polymer chains, have a “memory” of being deformed. The chains slowly slide past each other under constant pressure, and they don’t have the strong, permanent chemical bonds to pull them all the way back.
• The Comparison: High-quality thermoset rubbers (like EPDM or Neoprene) have excellent compression set resistance because their vulcanized, chemical cross-links act like a permanent, unyielding spring system.
• The Takeaway: TPE is excellent for dynamic, intermittent seals (like a water bottle lid that is opened and closed frequently). It is a poor choice for critical, long-term, high-pressure static seals, such as an engine head gasket or a flange seal on a high-pressure pipe, where perfect rebound after years of compression is non-negotiable.

3. The Chemical Warfare Test: Limited Resistance

While TPE is very stable in the presence of water, soaps, and mild cleaners, it can be attacked by more aggressive chemicals.

• The Problem: The styrene blocks in the common SBC family of TPEs can be broken down by certain solvents, oils, and greases. If you use a TPE grip in a mechanic’s shop where it’s constantly exposed to motor oil or brake cleaner, it will eventually become soft, sticky, and swollen.
• The Comparison: This is where specialized thermoset rubbers like Neoprene (excellent oil resistance) or Viton® (FKM) (exceptional resistance to a wide range of chemicals and fuels) are the clear winners. These materials are designed specifically for harsh chemical environments.
• The Takeaway: Always check the chemical compatibility chart for the specific grade of TPE you are considering. For general consumer use, it’s perfectly fine. For industrial or automotive applications with exposure to aggressive fluids, a specialized industrial rubber is almost always the better and safer choice.

How Do You Design a Product with TPE?

Knowing these limitations allows a designer to work with the material, not against it. The process of designing a TPE part is a masterclass in exploiting its strengths (easy molding, soft feel) while respecting its weaknesses (heat, compression set).

1. The Marriage of Materials: Mastering Overmolding

The single most important design technique for TPE is overmolding. This is the process of injection molding the soft TPE directly onto a pre-molded hard plastic part. That toothbrush with the rubbery grip is the classic example.

• The Process: First, the hard plastic handle (usually polypropylene or ABS) is molded. Then, in the same machine, this handle is transferred to a second cavity. The mold closes around it, and the molten TPE is injected, flowing around the handle and filling the space for the grip.
• The Bond: The magic is in the bond. The hot, molten TPE partially melts the surface of the compatible hard plastic, creating a permanent chemical bond as it cools. The two materials are literally fused together. For incompatible plastics, the handle is designed with undercuts and holes, so the TPE flows into these features, creating a strong mechanical bond (like a key in a lock).
• The Result: This process is incredibly efficient and allows for the creation of seamless, two-material parts that are both rigid and soft, strong and ergonomic. It’s the reason TPE is so dominant in consumer electronics and tools.

2. The Goldilocks Principle: Uniform Wall Thickness

Like all injection molded plastics, TPE is sensitive to how it cools. A good TPE part design looks a lot like a well-formed eggshell.

• The Goal: The designer’s goal is to keep the wall thickness of the part as uniform as possible.
• The Problem: If one area of the part is very thick and another is very thin, the thick area will cool much more slowly. As it cools and shrinks, it will pull on the already-solid thin section, causing ugly sink marks on the surface or, in a worst-case scenario, warping the entire part out of shape.
• The Solution: Good design involves using ribs and gussets to add strength instead of just making walls thicker. It’s a delicate art that balances strength requirements with the physics of molten plastic.

What’s a Real-World Example of Brilliant TPE Design?

To see all these principles come together, look no further than the modern “bed-in-a-box” industry and the Purple Mattress.

• The Problem: Traditional mattresses (springs or memory foam) have inherent flaws. They create pressure points on your hips and shoulders, they trap body heat, and they don’t isolate motion well (when your partner moves, you feel it).
• The TPE Solution: The engineers at Purple threw out the old playbook. Instead of foam, they used their patented Hyper-Elastic Polymer®, which is a specialized TPE. They molded this TPE not into a solid block, but into an open geometric grid of thousands of small, hollow squares.
• Why It’s Genius:
  1. Engineered Comfort: The grid is the key. Under light pressure (like your back), the walls of the squares stand firm and provide support. Under high pressure (like your hips), the walls buckle and fold, cradling the pressure point and eliminating it. This is a level of zoned support that is impossible to achieve with a simple block of foam.
  2. Geometric Freedom: This complex grid shape is only possible because of injection molding. TPE’s ability to flow into an intricate mold and replicate it perfectly is what makes the product possible.
  3. Solving the Heat Problem: The grid is mostly empty space. This creates hundreds of open air channels, allowing body heat to dissipate easily and keeping the sleeper cool all night—a massive advantage over heat-trapping memory foam.
  4. Safety & Durability: The TPE is naturally hypoallergenic, non-toxic, and far more durable than foam, which can break down and sag over time. It provides all these benefits without any of the off-gassing or allergen concerns.

The Purple Mattress is the perfect case study. It’s a product that simply could not exist without TPE. It leverages the material’s unique elastic properties, its manufacturing versatility, and its inherent safety to solve problems that other materials couldn’t.

What Are the Most Common Questions About TPE?

Let’s tackle the specific questions that often come up when people encounter this material.

• Is Thermoplastic Elastomer safe?
  Yes, absolutely. High-quality TPE from reputable manufacturers is exceptionally safe. It is free from BPA, phthalates, and latex, making it a preferred material for baby products, medical devices, and food-contact items. Its safety and stability are its main selling points.
• What’s the difference between TPE and Silicone?
  This is the most common comparison. Think of it this way: Choose Silicone for things that get HOT (bake-ware, oven mitts, engine seals). Choose TPE for things that need to be MADE EFFICIENTLY IN HIGH VOLUME, especially if they need a soft grip on a hard handle (tool grips, toothbrushes, phone cases). Both are very safe, but Silicone has superior heat resistance, while TPE has superior manufacturing economics.
• Is TPE better than PVC?
  For consumer products that people touch, yes, TPE is significantly better. It achieves its flexibility without using the controversial phthalate plasticizers required by flexible PVC. TPE is safer, more stable over time, and more environmentally friendly. PVC’s only advantage is its lower cost.
• What is TPE used for?
  It’s used anywhere you need a safe, cost-effective, soft, grippy, or flexible material. Common uses include: tool and utensil handles, phone cases, baby teethers, shoe soles, seals on water bottles, soft-touch buttons, and medical tubing.
• Is TPE better than rubber?
  It depends on the job. For heavy-duty industrial applications like car tires or fuel hoses, traditional thermoset rubber is stronger and more durable. For consumer goods, TPE is better because it’s latex-free (safer for allergies) and much cheaper and faster to manufacture into complex shapes.
• What is Thermoplastic Polyurethane (TPU)?
  TPU is a high-performance member of the TPE family. Think of it as TPE’s tougher older brother. It’s known for its exceptional abrasion resistance, tear strength, and good oil/grease resistance. It feels slightly more “plasticky” than softer TPEs. Premium phone cases, caster wheels, and pneumatic tubing are often made of TPU because it can take a beating.
• What is a TPE pillow?
  A TPE pillow, like the ones made by Purple or other brands, uses the same grid technology as the mattress. The TPE is molded into an open-cell structure that provides comfort and support while allowing for massive airflow, making for a cooler and more supportive pillow than traditional foam or fiberfill.
• What is the HS Code for Thermoplastic Elastomer?
  The Harmonized System (HS) code for international shipping can be complex. TPEs usually fall under Chapter 39 of the HS tariff schedule, which covers “Plastics and articles thereof.” The specific code can vary depending on the exact chemical composition (e.g., SBC-based, TPV, TPU) and the form it’s in (raw pellets vs. finished articles). It’s often classified under codes like 3901, 3902, or 3907. A customs broker or logistics expert is the best person to determine the exact code for a specific product.

Conclusion: The Chameleon in the Workshop

Thermoplastic Elastomer is more than just “fake rubber.” It is a testament to the power of molecular engineering. By cleverly combining the properties of two distinct materials at a microscopic level, chemists created a chameleon—a material that can be precisely tailored to be as soft as a gel or as tough as hard plastic.

It is a story of compromise becoming a strength. Its ability to melt, a weakness in the heat, is its superpower in the factory, enabling a level of design freedom and manufacturing efficiency that older materials can only envy. Its “unnatural” synthetic origin is precisely what makes it so safe, freeing it from the allergens and impurities of its natural counterparts.

The next time you pick up a tool with a comfortable, non-slip grip, use a medical device that is both soft and sterile, or sleep on a mattress that is cool and supportive, take a moment to appreciate the silent genius of TPE. It is the material that connects the hard, unforgiving world of machines to the soft, sensitive world of the human body.

Further Reading & Resources

• Avient Corporation – TPE vs. Silicone: An excellent technical comparison that highlights the specific applications where TPEs excel and where another material like silicone might be a better choice.
• Purple – The Science of the Purple Grid: A great commercial example of how TPE can be used in a highly innovative way, with clear explanations of the benefits of their Hyper-Elastic Polymer grid.
• U.S. International Trade Commission – Harmonized Tariff Schedule: For those who want to brave the official documentation, this is the source for all HS codes for importing goods into the United States. Chapter 39 is the starting point for plastics.

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