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Starting Fresh: Choosing Your Steel and Mapping Out the First Blade

Thinking of starting your stock removal knife journey? We break down why high-carbon steel is the perfect choice for beginners and how to map out your first project.

Walter SorrellsRogue BladesAug 18, 20263 min read0 views

There’s a specific kind of thrill that comes with the first piece of steel. It’s the moment you realize that the raw, cold metal in your hands—a mere billet—is about to become a functional, beautiful, edge-carrying piece of art. Whether you’re aiming for a hefty hunting knife or a delicate EDC pocket knife, every master bladesmith started exactly where you are: staring at a blank bar of steel and a vague idea of what they wanted to create.

If you’re ready to move beyond theory and get your hands dirty at the anvil, the biggest hurdle isn't the hammer blows; it's the planning. Choosing the right steel and understanding the initial geometry are the keys to a successful first heat treat.

The Beginner’s Steel Choice: Why High Carbon Matters

When starting out, the goal is accessibility. You want a steel that is forgiving enough to learn on, but strong enough to hold a serious edge. Many seasoned smiths will recommend high-carbon steel for initial stock removal projects. The steel discussed here—often 1095 or similar high-carbon grades—is ideal for this process. It’s a material that will show its character; yes, it will rust if left unprotected, but that’s part of the deal. That high carbon content means it can be taken through a rigorous heat treat process, allowing you to bring it to a surprisingly high level of hardness and a genuinely sharp edge.

The ability to achieve high hardness through quenching and tempering is what makes these steels so reliable for learning. You’ll learn the fundamentals of the forge, the quench, and the grind before tackling complex alloys like Damascus or San Mai.

Precision Starts with the Plan

A common mistake among new knife makers is trying to be too spontaneous. While the process of forging is inherently physical and sometimes unpredictable, the prep work is where precision is paramount. Before you even set up the grinder, you need a plan. The video demonstrates the initial mapping process—transferring the desired shape from a template onto the steel billet. While this drawing is a starting point, it’s a critical step for geometry.

Don't overlook the detail work. Even if you are just drawing the outline, consider the handle scales and pins. Drilling these holes for the handle tang and scales now saves time and ensures the final piece has the proper fit and balance. A solid, well-designed handle is just as crucial as the blade geometry itself.

Mastering the Initial Grind

Once the plan is drawn and the handle prep is done, the work moves into shaping and grinding. Whether you're working with a full tang or planning a hidden tang, the initial grind determines the final profile. You'll learn the difference between a flat grind, a hollow grind, and the nuances of a convex or scandi grind as you refine the profile of the steel. Remember, the grind is about geometry—it's the foundation that supports the edge.

This entire process, from the first scratch on the billet to the final polish on the handle scales, is the heart of bladesmithing. It’s a blend of art and applied science.

Next Steps in Your Journey

The learning curve in knife making is steep, but every step is rewarding. Whether you are interested in the pure craft of the forge and anvil, or the detailed geometry of the finished piece, there is a path for you here. If you found this insight helpful, don't just stop here. Find a certified Blade Angel near you, list a custom commission, or take a structured forge class to put these techniques into practice. The community is waiting to help you take that first swing.

Frequently Asked Questions

High-carbon steel, such as 1095 or O1, is recommended because it is robust, easy to heat treat, and can achieve a high level of hardness.

Drawing the plan provides the initial blueprint for the blade's shape and geometry, ensuring that the subsequent grinding and forming processes are accurate.

High carbon content means the steel will rust if left exposed, but it is also what allows the steel to be heat treated to a very high degree of hardness.

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