Next generation spacesuits for Artemis 3 - Zuken USA

What Does It Take to Build the Next Generation of Spacesuits? 


On September 7, 2022, NASA announced the choice of Axiom Space as the developer and manufacturer of a “moonwalking system” designed for the Artemis 3 mission. A vital part of this assignment includes designing and developing a new generation of spacesuits, possibly similar to those shown in Figure 1, that will support moonwalking for the Artemis 3 mission, which happens to be NASA’s first crewed moon landing in more than 50 years.

Axiom space - a next generation spacesuit
Figure 1. Next-generation spacesuits are in the making as NASA chooses Axiom Space to design them. Image provided courtesy of Axiom Space.

Considering how vastly advanced every other aspect of modern space exploration is, it only makes sense that spacesuits will also undergo an overhaul.

General Spacesuit Requirements

Spacesuits can be explicitly designed for spacewalks or moonwalks, but some designs can serve a dual purpose. Even though spacewalks and moonwalks are significantly different, there are some requirements they have in common, such as being rugged enough to survive factors like extreme temperatures, vacuum pressures, and interactions with sometimes unpredictable environments.

These spacesuits must be highly resistant to damage and provide consistent internal pressurization. There are also factors related to electrical and electronic components. Not only do the parts have to meet stringent requirements to be space-rated, but they also have to be carefully designed and laid out to support extreme reliability and flexibility.

NASA’s Last Moonwalk Suit

As we imagine what the future will look like, it can be illustrative to look back at past designs. As of 2022, the last NASA moonwalk took place in 1972. It was the third moonwalk for the last Apollo mission, and Eugene Andrew Cernan was the “last man on the moon.” The spacesuit, also known as an extravehicular mobility unit, Cernan wore in 1972 was an A7LB model designed and manufactured by the International Latex Corporation.

Astronaut from Apollo 17
Figure 2. Cernan wearing his Apollo 17 spacesuit. Image courtesy of Wikicommons.It was made up of 27 layers and included a variety of materials. The suit’s exterior comprised nylon, polyester, Chromel-R, Beta cloth, Velcro, and aluminum. The interior layers contained polyester, mylar, rubber, and nylon. The neck ring, wrist locking rings, and connectors were all made from anodized aluminum, with the color dependent on the purpose of the rings.

Engineering Next-Generation Spacesuits: A Host of Critical Considerations

According to Michael Suffredini, president and chief executive of Axiom Space, the next-generation suits they will be engineering for NASA will “enable rapid upgrades to implement better, safer technologies over time, ensuring our astronauts are always equipped with high performing, robust equipment.”

Two astronauts in space holding rocks
Figure 3. While what the spacesuits will look like remains unknown, there are numerous design factors that they will have in common with previous generations. Image provided courtesy of NASA.

Factors such as SWaP (Space, Weight, and Power) constraints remain vital to the success of space missions and encompass mechanical and electrical designs. And, in common with past designs, there are a host of conditions the new designs must manage and meet. Managing these varying conditions is all but impossible without clear communication between different engineering and manufacturing teams.

Digital design tools and platforms form a crucial part of modern space design. Data and information must be managed and made available among departments for productivity, to meet design milestones on time, to support testing and compliance, and to enable engineers to make the best use of the results of simulations and mock-ups.

In particular, the design of electrical and electronic systems is vital to life support, general safety, performance, and functionality of spacesuits. These systems must meet general design constraints while interacting with mechanical systems, which further reinforces the need for design platforms and tools such as data management, data, and part libraries.

Zuken Space Solutions

Digital design that supports interdisciplinary cooperation and data sharing will be vital for engineering the next generation of spacesuits. Zuken has the products needed to design solutions for space, ranging from satellites to rocket boosters to spacesuits. Our product lines encompass the following:

PCB Design

For example, Zuken’s CR-8000 3D PCB Design Software fully supports the interdisciplinary design process that combines electronic systems, embedded software development, and mechanical engineering. It spans the PCB engineering lifecycle and is the only product design environment on the market that successfully combines data management capabilities and a comprehensive library along with module, configuration, and release management.

Design Data Management

The Zuken DS-CR PCB Design Data Management tool suite supports organized and accessible workflow information sharing and access to design data specifically for PCB design. This includes design data and configuration management with a multi-site library, all working together to achieve a non-siloed, unified environment for PCB engineering.

The CR-8000 and the DS-CR PCB Design Data Management tools have been used successfully by EREMS, which provides high-tech electronic equipment for space missions, to support the design and lifecycle management of flight electronics for satellites.

Electrical and Wire Harness Design

Zuken’s E3.series electrical design platform supports fluid, power, switchgear, cabling system, wire harness, machinery, and control cabinet designs. This platform has already found success in the space industry: Stone Aerospace used E3.series to save 12 weeks in cabling design, and ATK to boosted their productivity by moving to a digital design process for space shuttle booster cabling, as shown in Figure 4.

E3.series electrical design platform model for the ATK shuttle
Figure 4. The E3.series electrical design platform allowed ATK to eliminate the need for an expensive physical mock-up and costly test lab while developing new cabling harnesses for NASA space shuttle boosters.

Other solutions include Zuken’s DS-2 Design Data and Workflow Management tool, which makes it possible for companies of any size to achieve multi-disciplinary data sharing from the beginning of the design process rather than consolidating the data towards the end while also supporting PLM (Product Lifecycle Management).


To successfully engineer equipment for use in space, it is critical to manage the product development and production process carefully. It is essential to implement digital design and interdisciplinary data sharing to achieve this. Zuken has the platforms and design tools for the next-generation engineering of spacesuits and more. Contact us today to learn how our knowledge, experience, and products can support your aerospace engineering process.

Editorial contributions by EETech

Amy Clements
Amy Clements
Director of Marketing Communications
Amy is the Director of Marketing Communications in North America. Her role includes advertising, public relations, event management, social media, and more. She thrives on managing complex projects, especially when there is an opportunity to interact with customers. In her spare time, she and her family enjoy traveling.