Resources

How PPAP and FMEA Are Applied for Precision and ReliabilityIn today's competitive manufacturing landscape, consistent part quality, traceability, and risk mitigation are non-negotiable  especially when working with OEMs in automotive, defense, and aerospace sectors. At 77 Teknik, we integrate robust quality  processes in manufacturing, like FMEA and PPAP to ensure each component meets critical performance and compliance requirements.What Is FMEA and Why Does It Matter?

77 Teknik transforms concepts into precision parts. Why Speed Matters in Product DevelopmentIn competitive industries such as automotive, defense, electronics, and industrial equipment, time-to-market is everything. Accelerating the part development process from concept to final product gives companies a key advantage but only if precision and quality remain uncompromised.At 77 Teknik, we specialize in rapid part development and scalable production across multiple manufacturi

How 77 Teknik Applies Sustainability in CNC, Welding & Sheet Metal ProcessesWhy Sustainability Matters in ManufacturingIn today’s manufacturing world, efficiency isn’t only about precision  it’s about environmental impact. Eco friendly manufacturing is no longer a trend but a strategic necessity, especially in sectors like: • Automotive • Defense • Electronics • Industrial machineryAt 77 Teknik, sustainability is embedded in every stage  from raw material sourcing to packagin

77 Teknik supplies precision parts to global markets. Advantages of Exporting from Turkey to Europe, Customs Union with the EU,Strategic Geographical Location, Short Delivery Times, Advanced Manufacturing Infrastructure, Cost-Effective Production, Young and Skilled Workforce, Cultural and Commercial Familiarity with Europe, Sustainability and Green Compliance

Precision Standards & Processes for High Reliability ApplicationsWhy Automotive & Defense Parts Require Stringent CriteriaIn industries where safety, reliability, and performance are non-negotiable, such as automotive and defense, precision parts must meet the highest standards. From crash worthy components in vehicles to critical aerospace or military hardware, each part’s production process must be tightly controlled to ensure quality, traceability, and compliance

The success of any precision part  whether in aerospace, medical, automotive, or industrial applications begins with selecting the right material. In CNC machining and advanced manufacturing, material choice is a critical factor influencing machinability, strength, durability, weight, and cost.In this article, we break down the most commonly used materials in precision machining and explain why and where each is ideal.Why Material Selection MattersChoosing the right material

In today’s competitive global market, product success depends not only on performance but also on cost efficiency. That’s where the Design to Cost (DTC) methodology becomes a game changer.By considering cost as a design parameter from day one, DTC helps companies avoid unnecessary expenses and improve overall profitability without sacrificing quality or functionality.What is Design-to-Cost (DTC)?Design-to-Cost (DTC) is a product development philosophy that prioritizes cost vi

Sheet metal fabrication is the backbone of many industrial and consumer products  from machine housings to medical equipment, architectural panels to automotive frames. But how does a flat metal sheet transform into a finished, functional component?In this article, we break down the complete sheet metal fabrication process  step by step and highlight how each phase contributes to producing precise and durable parts.Step 1: Cutting – Turning Sheet into ShapeThe fabrication jou

How to Achieve High Precision CNC Machining: A Complete Guide in today’s rapidly evolving industrial landscape, the demand for high-precision components is greater than ever. From aerospace to medical, automotive to defense industries, manufacturers rely on parts with extremely tight tolerances and flawless surface finishes.High-precision CNC machining refers to the production of components with tolerances typically ranging from ±0.001 mm to ±0.01 mm. Achieving this level of

Welding is a cornerstone of modern metal fabrication, with various techniques used depending on the material, application, and performance requirements. Among the most common methods are MIG (Metal Inert Gas), TIG (Tungsten Inert Gas), and Laser Welding. Each offers unique advantages, and understanding their differences can help you choose the right process for your project.Comparison of Welding MethodsThe table below provides general information on the comparison of welding

What Are Machining Tolerances and Why Are They Crucial?CNC machining tolerances define how much variation is acceptable in a part's dimensions. These small allowances are key to ensuring functionality, performance, and interchangeability in precision components.Main Takeaways: • Tolerances allow for realistic manufacturing variation. • The tighter the tolerance, the more precise (and often expensive) the process. • Defining the right tolerance early on improves quality and re