How Digitalization is Transforming the Aerospace Industry

Digitalization is revolutionizing aerospace manufacturing, marking a significant shift from traditional methods to a future where digital technology leads the way. At its core, digitalization in aerospace harnesses digital technologies to transform every aspect of how aircraft components are designed, produced, and managed. This isn’t just an upgrade of tools or processes, but a complete reimagining of manufacturing, promising unprecedented efficiency, innovation, and precision.

Gone are the days when aerospace production lines solely depended on manual efforts and time-tested, linear processes. Today, the industry is navigating towards digital-first practices, where technologies like Computer-Aided Design (CAD), 3D printing, the Internet of Things (IoT), and Artificial Intelligence (AI) are unlocking new possibilities. For industry leaders like Carr Lane Mfg., shifting toward digitalization is a strategic move that is redefining the future of aerospace manufacturing, from aircraft components to the tools that build them.

In this article, the experts at Carr Lane Mfg. explore how digitalization is changing the industry, the impact that this shift will have on tooling and manufacturing, and how Carr Lane Mfg. is utilizing new technologies to optimize production and boost product quality.

 

The Core Components of Digitalization in Aerospace Manufacturing

Imagine walking through a state-of-the-art aerospace manufacturing facility: to your left, a designer fine-tunes a component on a high-resolution CAD system; to your right, a 3D printer hums quietly as it lays down layers of a high-strength polymer for a prototype. This is the new reality of aerospace manufacturing, where digital tools and processes collide to create an innovative and efficient operation.

Digitalization has introduced many new technologies, from Computer-Aided Design (CAD) and industrial 3D printing for precise prototyping to the Internet of Things (IoT) and sensors for lights-out manufacturing operations. Carr Lane Mfg. uses many of these solutions to create the highest-quality, most reliable components for aerospace applications, including the recent addition of galvanic corrosion-resistant coatings for additional durability.

 

Digital Design and Simulation

Computer-Aided Design (CAD) and Computer-Aided Engineering (CAE) have revolutionized the way aerospace components are conceptualized and brought to life. CAD allows engineers to craft detailed and accurate designs of complex components with a level of precision that was previously unachievable. With CAD, aerospace manufacturers can move from concept to production seamlessly, ensuring every detail of the design is perfected before a single piece of metal is cut.

Carr Lane Mfg. uses CAD technology in both assembly and production planning, offering real-time design solutions to clients to ensure components meet the exact requirements specified by OEMs and vendors. This capability is especially crucial in aerospace, where every component must meet stringent specifications. Carr Lane Mfg.'s approach to CAD enables clients to select the precise coatings and metal types of Captive products for their unique applications, ensuring optimal performance and compatibility.

CAE tools provide simulations that allow engineers to test and refine their designs in a virtual environment. This helps engineers identify and address potential issues long before physical prototypes or products are created, saving significant time and resources. By simulating different conditions and scenarios, engineers can ensure that the design is not only manufacturable but will perform as expected under the harsh conditions experienced in aerospace applications.

 

Additive Manufacturing (Industrial 3D Printing)

Additive manufacturing, or industrial 3D printing, has ushered in a new era of manufacturing. Unlike traditional manufacturing methods, which remove material to shape a part, additive manufacturing builds parts layer by layer from the ground up, fusing each layer together with a precise layer to create a complete component.

One of the most compelling benefits of additive manufacturing in aerospace is the potential for “lights-out” production. This concept refers to the ability to operate manufacturing equipment, including 3D printers, overnight or for extended periods of time without human intervention. Through a combination of additive manufacturing and automation technologies, aerospace manufacturers can keep production running 24/7. This not only accelerates production timelines but also significantly reduces labor costs and the possibility of human error, ensuring consistent quality and output.

Carr Lane Mfg. has embraced additive manufacturing, leveraging it for both prototyping and the production of specific aerospace components. This approach allows for rapid iteration and testing of prototypes, greatly reducing the development time for new products. Beyond prototyping, Carr Lane Mfg. has successfully integrated additive manufacturing into the production of critical aerospace components, such as key inserts and grippers.

 

Sensors and Cycle Monitoring

Advanced sensors play a pivotal role in real-time cycle monitoring, enabling continuous, automated monitoring of production processes to ensure operations run smoothly around the clock without constant human oversight. By harnessing the power of sensors, aerospace manufacturers can gather detailed, real-time data on every aspect of the manufacturing cycle. From adjusting machine parameters on the fly to ensure optimal performance, to predicting when maintenance is needed before a breakdown occurs, sensors make it all possible.

A prime example of how Carr Lane Mfg. is enabling real-time machine monitoring can be seen in our air rest buttons. These innovative components enable engineers to use pneumatic position control to detect the proper loading of a workpiece into the machining fixture. When the workpiece is correctly placed on the air rest button, the precision floating plunger fully retracts into the threaded body, sealing off airflow and increasing the overall pressure of the system. This pressure value can be read and monitored using an analog or digital pressure sensor, which can then be tied into a PLC or control system for peak productivity and real-time monitoring.

 

Augmented Reality (AR)

Augmented Reality (AR) overlays digital information onto the real world, allowing for an interactive experience with virtual aircraft components that fosters a comprehensive understanding of complex aerospace systems. AR also allows designers and engineers to see a full-scale model of a component or system as it would appear in reality, enabling better decision-making and more efficient design iterations.

Carr Lane Mfg. uses AR technology to pinpoint precisely where and how parts will integrate into the broader component system. This ensures a flawless fit and function for critical aerospace components, such as the mounting brackets we produce for military aerospace applications such as pilot headsets.

 

How the Digital Transformation Impacts Aerospace Tooling and Manufacturing

The digital transformation in the aerospace industry is fundamentally changing how aerospace engineers work and how components are manufactured. Here’s how these technological advancements are reshaping aerospace tooling and manufacturing:

  • Precision and Customization: Digital technologies can create components with unparalleled accuracy while adhering to the strictest aerospace standards. Additionally, with CAD and CAE, customization options are vast, allowing for parts to be tailored to specific applications.
  • Speed and Efficiency: Digital tools can significantly reduce the time from design to production, streamlining the manufacturing cycle. With automated processes and AI-driven optimizations, aerospace manufacturers can use resources and manpower more efficiently, accelerating production rates.
  • Cost Reduction: By minimizing the need for physical prototypes through simulations, the costs associated with prototyping are drastically lowered. Digital inventory management systems can also optimize stock levels, reducing excess inventory and associated costs.
  • Enhanced Quality Control: Advanced analytics and artificial intelligence provide deep insights into manufacturing processes, identifying potential quality issues before they occur. Real-time monitoring and predictive maintenance strategies can also result in fewer defects and enhanced product reliability.
  • Sustainability: Digital innovations drive sustainable manufacturing practices, significantly reducing the industry’s environmental footprint. Through precise material usage and waste minimization, digital solutions contribute to more eco-friendly manufacturing processes.
  • Lights-Out Manufacturing: Digitalization enables manufacturers to implement fully automated, lights-out manufacturing processes that can run without human intervention, often operating overnight to boost production volume and efficiency. Carr Lane Mfg. showcases the power of lights-out manufacturing with our on-site robot work center (shown in the images below), which autonomously produces alignment pins and hand knobs.
  • Supply Chain Optimization: Integrating digital tools into aerospace supply chain operations enables real-time material and component tracking for increased efficiency. Additionally, enhanced collaboration platforms ensure seamless communication and coordination among suppliers, manufacturers, and customers, optimizing the entire supply chain.

 

The Challenges of Aerospace Digitalization

While the digital transformation in aerospace manufacturing opens up a wide realm of possibilities, it also presents a set of challenges that manufacturers must navigate. These challenges, ranging from financial and technical to operational, can pose significant barriers to entry, especially for smaller manufacturers and machine shops.

The initial financial investment required to integrate digital technologies into manufacturing processes can be substantial, making it the primary challenge of digitalization. For many smaller operations, this investment represents a difficult obstacle, with concerns about the return on investment (ROI) and the impact on cash flow. However, this upfront cost can lead to substantial long-term savings through increased efficiency, reduced waste, and lower operational costs. The integration of advanced technologies can also be technically complex, requiring specialized knowledge and skills that may not be present within your current workforce.

Despite these challenges, there are specific strategies that aerospace manufacturers can use to mitigate risks:

  • Invest in comprehensive workforce training.
  • Adopt a phased approach to technology integration.
  • Form partnerships with technology providers, component manufacturers, and industry experts.
  • Explore government and industry grants for additional funding.

 

The Future of Aerospace Manufacturing with Digitalization

Aerospace manufacturing is moving toward a future where digital technologies are central pillars of manufacturing operations. The integration of innovative technologies like Artificial Intelligence (AI) and Machine Learning (ML), along with the development of comprehensive digital ecosystems, is poised to redefine what’s possible in the industry.

The application of AI and ML in aerospace manufacturing is expected to continue to grow, offering unprecedented insights into efficiency, predictive maintenance, and design optimization. These technologies will allow aerospace manufacturers to create smarter processes that can adapt in real-time to changing conditions and demands. We’re also expecting to see more collaborative platforms in the cloud, data-sharing applications, and integrated digital workflows that will streamline communication, design, production, and supply chain management. These ecosystems will foster a level of collaboration and efficiency that is currently unimaginable, breaking down silos between different stages of the manufacturing process and even between different companies.

 

Revolutionize Your Aerospace Manufacturing Operation with Carr Lane Mfg.

Digitalization in aerospace manufacturing is revealing a future where efficiency, innovation, and precision are not just goals but realities of everyday production. The transformative power of technologies like Computer-Aided Design (CAD), Additive Manufacturing, Real-Time Sensors, and Augmented Reality (AR) is reshaping the industry, setting new benchmarks for what can be achieved.

Carr Lane Mfg. is committed to innovation, adopting cutting-edge digital technologies to ensure that our products meet the rigid standards of the aerospace industry. From precision-engineered alignment pins to customized captive products, Carr Lane Mfg. offers a wide range of products that provide unmatched durability, efficiency, and resistance in aerospace applications.

Whether you are seeking to optimize your manufacturing processes, enhance the quality of your products, or explore new avenues of innovation, Carr Lane Mfg. is here to help. By partnering with Carr Lane Mfg., you are not just preparing for the changes that digitalization brings — you are stepping into a future where the possibilities are limitless. We encourage you to browse Carr Lane’s extensive product catalog and connect with one of our experts to discover the best tooling solutions for your specific aerospace application.

 

Browse Carr Lane Mfg.’s Aerospace Tooling Components

Captive Jig Pins
New Item!

Similar to a standard Jig Pin, except that the pin body is positively retained in a locking bushing. In fully retracted position, the bushing's spring clip snaps into the pin's groove. This holds the pin fully retracted by spring force and positively prevents removal. Spring pressure also holds the pin in intermediate extended positions, an advantage especially if the fixture is turned upside down. Like standard jig pins, Captive Jig Pins have an integral shoulder to keep the handle raised. Available in pin diameters from 3/16 to 1/2". Made in USA.

The complete assemblies listed below include a Captive Jig Pin, Locking-Pin Bushing, and Lockscrew. Choice of standard or long bushing in most sizes, for installation in thinner or thicker plates. Locking-Pin Bushings are designed to press fit in a standard reamed hole, and can be further secured with the included Lockscrew to positively hold the bushing in place.
Headed Slotted Locator Bushings
Now also available in stainless steel!

Slotted Locator Bushings can be used with many types of alignment pins and locating pins to align two holes without binding. Precision bushing with a tight tolerance in one direction and full relief in the perpendicular direction. This headed version provides more resistance to axial loads. The head can be left exposed, or recessed by counterboring the installation hole. Available for pin diameters from 3/16 to 1/2" diameter. Optionally available in hardened 440C stainless steel. Made in USA.
Captive Locating Screws
Now also available in metric!
Captive Locating Screws can be used for locating and clamping, or for clamping only, by selecting the appropriate screw length. The locating screw's precision-ground body is positively retained in a locking bushing. In its fully retracted position, the bushing's spring clip snaps into the body's radial groove. This holds the screw fully retracted by the force of the spring and positively prevents removal. Pressure from the spring also holds the screw in intermediate extended positions. This is especially an advantage if the fixture is turned upside down. Captive locating screws are available in thread sizes from 1/4-20 to 1/2-13 (M6 to M12 in metric) and screw lengths from 1-1/4 – 3” (30 – 75mm in metric). Carr Lane Locating Screws are proudly Made in the USA.

The complete assemblies listed below include a Captive Locating Screw, Locking-Pin Bushing, and Lockscrew. Choice of standard or long bushing in most sizes, for installation in thinner or thicker plates. Locking-Pin Bushings are designed to press fit in a standard reamed hole and can be further secured with the included Lockscrew to positively hold the bushing in place.
ON-SIZE® Bushings for Bullet-Nose Dowels – Head Type
New Item!

ON-SIZE® Bushings are made from Invar 36, a 36% nickel-iron alloy that has an extremely low Coefficient of Thermal Expansion. Invar material is particularly useful in applications where minimum thermal expansion and high dimensional stability is required. Useful in high temperature applications up to 750°F (400°C), these products will maintain their size and accuracy even under heat-cool multiple cycles.

The precision bushings shown here are used with Bullet-Nose Dowels to align two pieces of a fixture. The bushing's ID and OD are concentric to within .0003" TIR. Available for pin diameters 1/4, 5/16, 3/8, and 1/2" (6, 8, 10, and 12mm in metric). Made in USA.
ROEMHELD DropZero® Modular Zero-Point System
New Item!

Our new DropZero® Modular Zero-Point System enables you to completely machine a workpiece in one setup, significantly reducing setup time and fixturing costs. With a few quick turns of a wrench, DropZero® clamping modules locate, support, and securely clamp the workpiece from underneath, providing full machining access to 5 sides.

Clamping modules can be mounted exactly where required, anywhere on the fixture plate. These modules fit perfectly on all of Carr Lane’s 1/2” and 5/8” modular tooling plates and blocks, but can also be used with non-modular tooling. Clamping modules elevate the workpiece for machine-spindle clearance, and are stackable for extra height.

Pull-down studs must be fastened to the underside of the workpiece. Most setups require one zero-point stud (for primary two-axis location), one diamond stud (for single-axis location), and one or more floating studs (for additional support and clamping without location).

For a Downloadable Product Data Sheet see the "Documents" tab on this page.
Floating Clamps
New Item!

Floating Clamps are position-flexible clamping devices. The top jaw and bottom jaw together provide a floating clamping point that adjusts to the workpiece before locking, to prevent deformation. These combination clamp/supports are often used in conjunction with primary locators and clamps, providing additional support points to reduce machining vibration. Floating Clamps are especially useful for clamping forgings, ribbed or flanged castings, and other larger parts.

To initiate clamping, push the Floating Clamp downward, then immediately swing the jaws into clamping position. The clamping jaws will automatically rise so that the bottom jaw contacts the workpiece with a light spring force. Next, tighten the top hex nut 11 ft-lbs minimum to 22 ft-lbs maximum, depending on the support load capacity desired. During the tightening process, the workpiece is clamped and simultaneously supported.

For custom applications, the standard upper clamping jaw supplied can be replaced by a special clamping jaw.