Unlock Aluminum's Secrets: Your Essential Guide to Melting Point of Aluminum

Introduction to the Melting Point of Aluminum

Have you ever wondered why aluminum foil doesn’t melt in your oven, but transforms into a liquid in a foundry? The answer lies in a fundamental property known as the melting point of aluminum. This single number—expressed in degrees Celsius or Fahrenheit—has far-reaching implications, from the design of your smartphone’s casing to the recycling of beverage cans and the construction of aircraft.

What Is a Melting Point?

Let’s start with the basics. A melting point is the temperature at which a solid turns into a liquid under standard atmospheric pressure. At this precise temperature, both the solid and liquid forms of a pure substance coexist in equilibrium. For most crystalline solids, including metals like aluminum, this is a highly specific temperature that helps scientists and engineers identify and characterize materials. In mixtures or alloys, the melting process often occurs over a range of temperatures rather than at a single point (Britannica).

Why Does the Melting Point of Aluminum Matter?

Understanding the melting point of aluminum—especially the melting point of aluminum in celsius—isn’t just a trivia question. It’s a cornerstone for:

• Manufacturing: Knowing when aluminum transitions from solid to liquid is crucial for casting, welding, and extrusion processes. Too much heat can cause defects; too little, and the metal won’t flow or bond as intended.
• Recycling: Aluminum’s relatively low melting point means it can be melted and reused with less energy than many other metals, making it a sustainable choice for mass production and environmental stewardship.
• Product Design: Engineers must consider aluminum’s melting behavior when selecting materials for everything from kitchenware to aerospace components, ensuring safety and optimal performance.

How This Guide Will Help You?

In this article, you’ll discover:

• The scientifically accepted melting point of pure aluminum and why purity matters
• How everyday aluminum items like foil and cans behave at high temperatures
• The effects of alloying and impurities on aluminum’s melting range
• Comparisons with other common metals and the implications for industry and daily life
• Key industrial alloys, their melting characteristics, and practical tips for processing
• Why specifying units—Celsius or Fahrenheit—prevents confusion in technical discussions
• The melting points of related compounds and what they mean for specialized applications

Whether you’re a student, engineer, or simply curious about how things are made, understanding the melting point of aluminum is your entry point to mastering its role in modern technology, sustainability, and innovation. Let’s dive in and unlock the secrets behind this essential metal’s melting behavior.

The Standard Melting Point of Pure Aluminum

Ever noticed how a soda can seems indestructible in your kitchen oven, yet pure aluminum transforms into a silvery liquid at a specific temperature? That’s because the melting point of aluminum is not just a random number—it’s a scientifically established constant that defines how this metal behaves in its purest form.

What Is the Melting Point of Pure Aluminum?

In its pure, elemental state, aluminum melts at 660.3°C (1220.5°F) under standard atmospheric pressure. You might also see this rounded to 660°C (1220°F) in many engineering references. This value is so reliable that it’s used as a benchmark in laboratories and industrial processes worldwide.

• Melting point of aluminum in Celsius: 660.3°C
• Melting point of aluminum in Fahrenheit: 1220.5°F

Imagine placing a bar of pure aluminum in a precisely controlled furnace. As the temperature rises, nothing dramatic happens—until you reach exactly 660.3°C (or 1220.5°F). At that moment, the solid metal abruptly turns to liquid. This sharp transition is a hallmark of pure substances, unlike alloys or mixtures, which melt over a range.

Why Is This Value So Important?

This melting point is considered a fundamental physical constant for aluminum. It’s used as a reference in material science, quality control, and even in calibrating high-precision instruments. But what makes this number so dependable?

• Purity is key: Only highly refined, nearly 100% pure aluminum exhibits this exact melting point. Even small amounts of other elements—like copper, silicon, or iron—can lower the temperature at which the metal melts.
• Consistency for manufacturing: High-purity aluminum is essential in industries where predictable melting and solidification are critical—think aerospace, electronics, and scientific research.
• Foundation for alloys: The melting point of pure aluminum serves as a baseline for understanding how alloying elements will change the behavior of aluminum in practical applications.

In summary, the melting point of aluminum—660.3°C or 1220.5°F—is more than just a number. It’s a cornerstone for everything from material selection to quality assurance in high-tech industries. As you’ll see in the next section, everyday aluminum products like foil and cans don’t always follow this rule, thanks to alloying and impurities. So, what happens when you heat up the aluminum in your kitchen? Let’s find out.

How Everyday Aluminum Products Behave at High Temperatures?

Ever wondered why your aluminum foil stays intact in a hot oven or why empty soda cans don’t melt on a backyard grill? The answer lies in the melting behavior of everyday aluminum products—and it’s not just about the metal itself, but also what’s mixed in. Let’s break down how common household items like foil and cans respond to heat, and what this means for recycling, cooking, and beyond.

Why Don’t Aluminum Foil and Cans Melt in Everyday Use?

It might seem surprising that thin aluminum foil or beverage cans don’t simply liquefy when exposed to high temperatures in the kitchen. That’s because the melting point of aluminum foil and melting point of aluminum cans are both determined by the same core property: the intrinsic melting point of aluminum, which is 660°C (1,220°F). However, the story gets more interesting when you consider the role of alloying and product design.

• Aluminum Foil: Most household aluminum foil is made from nearly pure aluminum. According to Sciencing, the melting point remains at 660°C (1,220°F) regardless of whether the aluminum is in foil, block, or powder form. That’s why your foil won’t melt—even in the hottest home ovens, which rarely exceed 300°C (572°F). The thinness of the foil does make it quick to heat up, but unless you’re using a specialized industrial furnace, it won’t reach its melting point.
• Aluminum Cans: Beverage cans are typically made from aluminum alloys, often with small additions of magnesium and manganese for strength and durability. Despite these alloying elements, the melting point of aluminum cans remains close to that of pure aluminum—around 660°C (1,220°F). In recycling operations, cans are melted down efficiently due to this relatively low melting point, making aluminum one of the most energy-efficient and sustainable materials to recycle.

Melting Characteristics and Practical Implications

• Physical Form Doesn’t Affect Melting Point: Whether aluminum is shaped as foil, cans, or blocks, the melting temperature stays the same—as long as the metal is relatively pure.
• Alloying Can Slightly Lower the Melting Point: The presence of other elements in aluminum cans can cause a minor decrease in melting temperature, but the difference isn’t significant for most household applications.
• Household Ovens and Grills Aren’t Hot Enough: Standard kitchen appliances can’t reach the high temperatures needed to melt aluminum foil or cans, ensuring these products remain safe and functional in daily use.
• Efficient Recycling: The low melting point of aluminum allows for quick, energy-saving recycling processes. Cans and foil can be melted and reformed into new products with minimal energy input, supporting sustainable practices.

In summary, the melting behavior of everyday aluminum products is a balance between the metal’s natural properties and the specific alloying choices made during manufacturing. Next, we’ll explore how alloying elements can further influence aluminum’s melting range and why this matters for specialized applications.

Melting Points of Common Aluminum Alloys

Ever wondered why not all aluminum melts at the same temperature? If you’ve worked with aluminum in any form—be it parts, profiles, or castings—you’ll notice that the melting point of aluminum alloys isn’t a fixed number like pure aluminum. Sounds complex? Let’s break it down and see how alloying transforms both the science and the possibilities of aluminum.

Why Aluminum Alloys Melt Over a Range, Not a Point?

Imagine you’re baking cookies with different types of chocolate chips; some melt sooner, others hold their shape. That’s similar to what happens when aluminum is mixed with other elements. Pure aluminum has a precise melting point of 660.3°C (1220.5°F), but when alloyed with elements like magnesium, silicon, copper, or zinc, the result is a blend where each ingredient influences how—and when—the alloy melts.

Instead of a sudden transition from solid to liquid, aluminum alloys melt gradually over a temperature range. This is defined by two critical points:

• Solidus temperature: The point where melting begins—some of the alloy starts to liquefy.
• Liquidus temperature: The point where the entire alloy is fully molten.

Between these temperatures, the alloy exists as a mix of solid and liquid. This behavior is crucial for casting, welding, and extrusion, where precise control ensures quality and performance.

How Alloying Elements Affect Melting Points?

The melting point of aluminum alloy depends on which elements are added and in what proportions. Here’s a look at how common alloying elements shift the melting range:

As you can see, adding copper or zinc tends to lower the solidus point, while magnesium or manganese can broaden the range. The result? Each alloy can be tailored for specific strength, flexibility, or corrosion resistance—making aluminum alloys the backbone of everything from beverage cans to skyscraper frames.

Why Does This Matter for Manufacturing?

Understanding the melting range of an aluminum alloy is essential for:

• Casting: Ensuring complete fill without overheating or causing defects.
• Extrusion: Achieving the right flow and finish for profiles and shapes.
• Welding: Matching filler materials to the alloy’s melting behavior for strong, reliable joints.

For manufacturers and engineers, selecting the right alloy—and knowing its melting characteristics—means fewer defects, better performance, and more efficient processes.

When you need expertise in matching alloy composition to application, it pays to partner with specialists. Shengxin Aluminum offers advanced temperature control and deep knowledge of alloy behavior, ensuring every extrusion or casting meets strict industry standards. Their comprehensive blog post on melting point of aluminum alloys is a valuable resource for innovators and engineers alike.

Now that you know how alloying shapes the melting range, let’s zoom in on two of the most important industrial aluminum alloys—6061 and 7075—and see how their specific compositions influence their melting behavior and real-world uses.

6061 and 7075 Aluminum—Melting Points and Applications

When you hear about aluminum in high-performance engineering, two grades stand out: 6061 and 7075. But what makes these alloys the go-to choices for everything from bicycle frames to aircraft wings? The secret lies not just in their strength, but in how their unique compositions influence their melting points and processing behavior. Curious how the melting point of aluminum-6061 compares to the melting point of 7075 aluminum? Let’s break it down so you can see why these alloys matter in industry—and how to choose the right one for your project.

Key Differences: 6061 vs. 7075 Melting Points and Chemistry

Imagine you’re designing a part that needs to withstand heat, pressure, and the test of time. The alloy you select will determine not only its strength, but also how it behaves during welding, machining, and heat treatment. Here’s how 6061 and 7075 stack up:

Why Do These Melting Ranges Matter?

Unlike pure aluminum, these alloys don’t melt at a single temperature. Instead, they soften and liquefy over a range, which is crucial for manufacturing:

• 6061 Aluminum: With a melting range of 582–652°C (1080–1206°F), 6061 is forgiving during extrusion and welding. Its blend of magnesium and silicon gives it a balance of strength, corrosion resistance, and machinability. That’s why you’ll find it in:
• Automotive parts (frames, wheels)
• Structural components
• Marine and aerospace applications
• Consumer electronics and sporting goods
• Processing Considerations: 6061 is highly weldable and easily anodized for extra surface protection. Its moderate melting range means it can be shaped and joined with standard industry processes, making it a favorite for custom fabrication.

• 7075 Aluminum: The melting point of 7075 aluminum is lower, spanning 477–635°C (891–1175°F). Its high zinc and copper content delivers exceptional strength—almost double that of 6061—but also makes it trickier to weld and machine. You’ll spot 7075 in:
• Aerospace frames and fuselages
• High-performance sporting equipment (bike frames, climbing gear)
• Military hardware
• Precision tooling and molds
• Processing Considerations: While 7075 is harder and more durable, it’s less corrosion-resistant and generally not recommended for welding. Specialized machining and post-processing may be required to achieve optimal performance.

Choosing the Right Alloy for Your Application

So, how do you decide between 6061 and 7075? It’s all about your priorities:

• Need high strength and low weight? 7075 is your best bet for demanding, load-bearing applications.
• Looking for versatility and ease of fabrication? 6061 offers a great balance for most industrial and consumer products.
• Welding or complex machining? 6061 is preferred due to its forgiving nature and reliable results.

For engineers and manufacturers seeking consistent quality and expert guidance, working with a trusted supplier makes all the difference. Shengxin Aluminum specializes in producing high-quality 6061 and 7075 aluminum profiles, combining advanced melting and extrusion technologies with deep industry know-how. Their technical support can help you navigate the nuances of alloy selection, ensuring your project meets both performance and budget goals.

Next, let’s clarify how to express melting temperatures in both Celsius and Fahrenheit—and why getting the units right is critical in technical discussions.

Expressing Melt Temperatures in Celsius and Fahrenheit Figures

Ever found yourself puzzled when one resource lists the melting point of aluminum in Celsius and another in Fahrenheit? You’re not alone. In global industries and scientific research, temperature scales matter—a lot. Let’s break down how to confidently express and convert aluminum’s melting point, so you never mix up your units or misinterpret critical data.

What Is the Melting Point of Aluminum in Celsius and Fahrenheit?

• Melting point of aluminum in Celsius: 660.3°C
• Melting point of aluminum in Fahrenheit: 1220.5°F

Whether you’re reading a technical datasheet or a recycling guide, you’ll see both figures used. This is because Celsius (°C) is standard in most of the world and scientific communities, while Fahrenheit (°F) remains common in the United States and some engineering fields.

How to Convert Between Celsius and Fahrenheit?

Sounds complex? It’s actually straightforward. If you know the melting point in one unit, you can switch to the other using a simple formula:

• To convert Celsius to Fahrenheit:
  °F = (°C × 9/5) + 32
• To convert Fahrenheit to Celsius:
  °C = (°F − 32) × 5/9

For example, to check the melting point of aluminum in Fahrenheit:

• Start with 660.3°C
• Apply the formula: (660.3 × 9/5) + 32 = 1220.5°F

These formulas ensure accuracy, especially when comparing technical data from different countries or industries (ThoughtCo).

Why Specifying Units Matters?

Imagine ordering a batch of aluminum, only to realize your supplier uses a different temperature scale. Confusing Celsius and Fahrenheit could lead to costly errors—like overheating, damaging equipment, or compromising product quality. That’s why it’s best practice to always:

• Clearly state the unit (°C or °F) alongside any temperature figure
• Double-check conversions in technical documentation and international communications
• Standardize units within your organization or project to avoid miscommunication

By getting the units right, you ensure safety, efficiency, and global clarity—no matter where your aluminum journey takes you. Next, let’s see how aluminum compounds like oxides and bronzes compare in their melting behavior.

Melting Points of Aluminum Compounds like Oxide and Bronze

When you think of the melting point of aluminum, you might picture silvery metal flowing in a foundry. But what happens when aluminum is combined with other elements to form compounds or specialized alloys? The answer: melting points can change dramatically, and so do their industrial roles. Let’s explore how the melting point of aluminum oxide, melting point of aluminum bronze, and related materials compare to pure aluminum—and why these differences matter for real-world applications.

Aluminum Oxide: Exceptionally High Melting Point for Extreme Conditions

Imagine a material that can withstand temperatures far beyond what most metals can handle. That’s aluminum oxide (Al₂O₃), also known as alumina. Unlike metallic aluminum, which melts at 660°C (1220°F), aluminum oxide melts at about 2,000°C (3,632°F). This huge jump in melting point is due to the strong ionic bonds between aluminum and oxygen atoms, creating a structure that resists breaking down under heat.

• Industrial significance: Because of its high melting point and hardness, aluminum oxide is used as a refractory material in furnaces, a key ingredient in abrasives, and as an electrical insulator in electronics. Its thermal stability makes it irreplaceable in environments where pure aluminum would quickly liquefy or degrade.

Aluminum Bronze: A Tough Alloy for Demanding Applications

Now, consider aluminum bronze—an alloy primarily made of copper with 5% to 12% aluminum, plus possible additions of iron, nickel, or manganese. The melting point of aluminum bronze typically falls between 1027°C (1881°F) and 1038°C (1900°F), depending on its precise composition. That’s substantially higher than pure aluminum, and even higher than some aluminum alloys.

• Why the difference? The presence of copper as the main component, combined with aluminum and other metals, creates a robust alloy with a higher melting point and enhanced mechanical properties.
• Industrial significance: Aluminum bronze’s combination of high melting point, corrosion resistance, and strength makes it ideal for marine hardware, pump parts, bushings, and fasteners in harsh or high-stress environments. Its non-sparking nature is a bonus for use in explosive settings.

Other Compounds: Aluminum Brazing Rods and Beyond

What about aluminum brazing rods? These are formulated to melt at temperatures slightly below those of the base aluminum alloy, typically in the range of 500°C to 600°C (932°F to 1112°F), allowing for effective joining without melting the structural pieces themselves. The exact melting range depends on the rod’s composition, which often includes silicon or zinc to lower the melting point and improve flow.

• Industrial significance: The carefully tuned melting points of brazing rods ensure strong, leak-proof joints in heat exchangers, automotive radiators, and HVAC systems, where precise control is critical.

Why Melting Points Matter for Compounds?

• Aluminum oxide: Melts at ~2,000°C—used for high-temperature, wear-resistant, and insulating applications.
• Aluminum bronze: Melts at 1027–1038°C—chosen for strength, corrosion resistance, and durability in tough industrial settings.
• Brazing rods: Melt below 660°C—engineered for efficient joining without damaging base metals.

Understanding these differences helps engineers select the right material for each job—whether it’s withstanding furnace heat, surviving salty seas, or creating reliable joints. Next, we’ll see how aluminum’s melting point compares to other common metals, and what that means for energy use and high-temperature design.

Aluminum’s Melting Point Versus Other Common Metals

When you’re choosing materials for a project—or just curious about why certain metals are used for specific jobs—their melting points are a big deal. Ever wondered why aluminum is favored for beverage cans, but steel is chosen for skyscraper beams? Or why copper is used in wiring, but not in aircraft frames? The answer often comes down to how each metal behaves under heat. Let’s put the melting point of aluminum vs steel, copper, and other familiar metals side by side, so you can see exactly how they stack up and why it matters for real-world applications.

Melting Points of Common Metals

To make this easy to compare, here’s a table showing the melting points of aluminum, steel, copper, iron, lead, tin, and titanium. All values are based on reliable engineering data:

What Do These Differences Mean in Practice?

• Aluminum vs. Steel: The melting point of aluminum vs steel is a dramatic difference—aluminum melts at 660°C (1220°F), while carbon steel doesn’t melt until at least 1371°C (2500°F). This means aluminum requires much less energy to melt and shape, making it ideal for mass production and recycling. But in high-heat environments (like engines or structural fire risks), steel’s higher melting point offers superior safety and strength.
• Melting Point of Copper: At 1084°C (1983°F), copper melts well above aluminum but below most steels. Its high melting point and excellent conductivity make it perfect for electrical and thermal applications, but it’s too heavy and soft for many structural uses.
• Lead and Tin: Both have much lower melting points than aluminum. This makes them easy to melt and cast, but limits their use to low-temperature applications like soldering or protective coatings.
• Titanium: With a melting point of 1670°C (3040°F), titanium is a top choice for extreme environments—think jet engines and spacecraft—where both high strength and heat resistance are essential.

Energy Use and High-Temperature Applications

Why does this matter for industry and the environment? Melting point directly affects the energy required for manufacturing and recycling. For example:

• Aluminum: Its relatively low melting point means less energy is needed to recycle and fabricate, supporting sustainability and cost savings.
• Steel and Titanium: These metals need much higher temperatures—and more energy—to melt, which increases processing costs but allows them to perform in demanding, high-temperature roles.

So, when you’re weighing the pros and cons of different metals, remember: a lower melting point can mean easier processing and greener recycling, while a higher melting point unlocks performance in the hottest, toughest environments.

Next, let’s go beyond melting and look at aluminum’s boiling point and other key thermal properties that complete the picture of this versatile metal.

Considering Other Thermal Properties

When talking about aluminum’s behavior under heat, it’s not just the melting point that matters. Have you ever wondered what happens if you keep heating aluminum past its liquid state? Or why it’s such a popular choice for cookware and heat exchangers? Let’s explore the melting and boiling point of aluminum, and see how these numbers—along with thermal conductivity—shape aluminum’s role in science and industry.

What Is the Boiling Point of Aluminum?

If you heat pure aluminum beyond its melting point of 660°C (1,220°F), it remains a liquid until it reaches an impressive boiling point of 2,467°C (4,473°F). That’s nearly four times its melting temperature! This wide gap between melting and boiling points is significant for several reasons:

• Stable in liquid form: Aluminum stays liquid across a broad temperature range, making it ideal for casting, alloying, and industrial processes that require precise temperature control.
• Low risk of vaporization: In most manufacturing settings, there’s little danger of aluminum vaporizing, even when subjected to high heat. This property is crucial for safety and efficiency in foundries and recycling plants.

Thermal Conductivity: Why Aluminum Transfers Heat So Well?

Another standout property is aluminum’s high thermal conductivity. With a value of about 237 W/m·K (watts per meter per kelvin) (PMC), aluminum is an excellent conductor of heat—second only to copper among common metals. This means:

• Even heat distribution: Aluminum pans heat up quickly and evenly, reducing hot spots and improving cooking results.
• Efficient cooling: Its ability to transfer heat rapidly makes aluminum indispensable in electronics, automotive radiators, and HVAC systems.

Why Do These Thermal Properties Matter?

• Wide liquid range: The large difference between melting and boiling points gives manufacturers flexibility in shaping, casting, and recycling aluminum without risk of loss through vaporization.
• Thermal management: High thermal conductivity ensures aluminum components can dissipate heat efficiently, protecting sensitive electronics and improving energy efficiency.

In short, while the melting point of aluminum is essential for processing, its high boiling point and outstanding thermal conductivity are what make it such a versatile, reliable, and energy-efficient material. Next, we’ll wrap up by summarizing these key insights and offering guidance on choosing the right aluminum for your needs.

Conclusion

When you reflect on the journey through the science and applications of the melting point of aluminum, it’s clear this property is far more than a number on a datasheet. So, what have we learned—and how can you use this knowledge to make smarter decisions in engineering, manufacturing, or even your daily life?

Why Melting Point Matters?

• Pure aluminum melts at a precise 660.3°C (1220.5°F): This sharp, reliable melting point is foundational for laboratory work, high-tech manufacturing, and quality control.
• Alloys introduce a melting range: When alloying elements like magnesium, copper, or zinc are added, the melting point of aluminum alloy shifts—sometimes dramatically. This melting range allows for tailored properties, making aluminum alloys ideal for everything from beverage cans to aerospace components (Shengxin Aluminum Blog).
• Thermal properties drive versatility: Aluminum’s high thermal conductivity and large gap between melting and boiling points enable efficient heat transfer, safe processing, and robust performance in demanding environments.
• Material selection is guided by melting behavior: Whether you’re choosing foil for your kitchen, 6061 for a bike frame, or 7075 for an aircraft, understanding melting points helps you balance strength, workability, and safety.

Putting Knowledge into Practice

• Always specify temperature units (°C or °F) to avoid costly mistakes in international projects.
• Match alloy composition to your application—don’t assume all aluminum behaves the same under heat.
• Consider the broader thermal profile: melting, boiling, and conductivity all influence performance and processing.

Imagine you’re developing a new product or planning a large-scale build. The right aluminum choice—supported by a deep understanding of melting behavior—can mean the difference between long-term success and unexpected failure. That’s why partnering with a manufacturer who truly understands the science is so valuable.

Why Choose Shengxin Aluminum?

For those seeking reliable, high-quality aluminum solutions, Shengxin Aluminum stands out with its technical expertise and full-spectrum production capabilities. With decades of experience, a robust technical team, and a commitment to innovation, Shengxin Aluminum delivers custom alloys and profiles tailored to your exact requirements. Whether you need precision for aerospace, durability for construction, or efficiency for automotive applications, their knowledge of melting point science and alloy behavior ensures optimal results (Learn more).

In summary, mastering the melting point of aluminum is your gateway to unlocking its full potential. By leveraging this knowledge—and working with trusted partners like Shengxin Aluminum—you’re equipped to drive innovation, efficiency, and sustainability in every project.

Frequently Asked Questions About the Melting Point of Aluminum

1. How hot can aluminum foil get before it melts?

Aluminum foil has a melting point of about 660°C (1,220°F), the same as pure aluminum. Standard kitchen ovens and grills operate well below this temperature, so foil remains solid during regular cooking and baking tasks.

2. What metal won't melt?

Tungsten has the highest melting point of all metals at 3,422°C (6,192°F), making it extremely resistant to melting under normal conditions. In comparison, aluminum melts at a much lower temperature, making it easier to process and recycle.

3. Why is understanding the melting point of aluminum important for manufacturing?

Knowing the melting point of aluminum is essential for processes like casting, welding, and extrusion. It ensures the metal is heated to the correct temperature for shaping without causing defects or wasting energy, resulting in better product quality and efficiency.

4. How do alloying elements affect the melting point of aluminum?

Adding elements like magnesium, silicon, copper, or zinc to aluminum creates alloys that melt over a range rather than a single temperature. Each alloy’s composition can lower or broaden the melting range, allowing for tailored properties in applications like aerospace or automotive manufacturing.

5. What is the difference between the melting point and boiling point of aluminum?

The melting point of pure aluminum is 660.3°C (1,220.5°F), where it transitions from solid to liquid. Its boiling point is much higher, at 2,467°C (4,473°F), where the liquid aluminum turns to vapor. This wide gap allows aluminum to be used in various high-temperature processes without risk of vaporization.