Where space innovation meets hands-on learning


Specialized equipment

With specialized equipment, secured lab space and expert guidance from ASU faculty and professional engineers, the lab and its student staff support the entire lifecycle of spaceflight hardware and software development, from proposal and design to fabrication, integration, testing and operation.

6,800 square-foot facilities

The Interplanetary Lab is a premier 6,800 square-foot, student-driven spaceflight hardware facility dedicated to supporting ASU student clubs, faculty research and corporate partners; training the next generation of space professionals; and designing innovations that foster a positive interplanetary future.

Work with us

Two young women work on laptop computers

Students

Jumpstart your space career with:

  • Real-world hardware and software development experience.
  • Direct collaboration with faculty and industry experts that address real-world challenges.
  • Access to cutting-edge manufacturing and testing equipment.
  • Professional networking opportunities.
A woman holds an electronic device next to a man holding a weather balloon in the desert

Faculty

Expand your research by:

  • Collaborating with students on hands-on space technology projects that can advance your own research goals.
  • Building connections that bridge academia and industry.
  • Utilizing cutting-edge prototyping and testing for space technology development.
A man speaks to a classroom full of college students

Companies

Advance your spaceflight projects with:

  • End-to-end support, from concept and design to testing and operations.
  • Access to ASU talent in a structured, faculty-led environment.
  • State-of-the-art 6,800 sq. ft. facility featuring thermal vacuum chambers, vibration testing and more.

Delivering results

300


Active students

10+


Ongoing space projects

10+


Industry partners served

7+


Collaborating faculty

7


Student clubs

6-10


Student staff

4


CubeSats launched

3


University courses

Specialized equipment and facilities

Attitude determination and control systems (ADCS), or pointing testbed, provides end-to-end ACS testing capability. It simulates the magnetic field and sun exposure of a satellite’s orbit. It also provides two degrees of near frictionless movement from an air-bearing table on which the test subject sits. With these three capabilities, a satellite can be run through an entire mission simulation for orienting, pointing and critical component communication based on location.

The vibration platform is a single-axis dynamic shaker designed to simulate rocket launch vibrational frequencies. Key features include:

  • Capacity: Up to 6U CubeSat.
  • Test types: Sine, shock and random vibration.
  • Critical capability: Random vibration testing (required by all launch providers).
  • Integration: Collocated with integration bay.

ASU’s EMAC facility houses one of the largest university-based anechoic chambers in the U.S., measuring 15.5m x 7.9m x 5.5m internally. The chamber, lined with microwave-absorbing material, simulates free-space conditions for antenna and scattering target testing, with an isolation rating up to 50 MHz.

1 m³ thermal vacuum chamber specifications:

  • Simulates space environment for thermal balance testing.
  • Accommodates flight and development hardware.
  • Temperature range: Extreme hot to cold, covering full mission profiles.
  • Enables precise environmental control for test articles.

Features:

  • Multiple electrical feedthroughs.
  • LN2 cooling system.
  • Zoned patch heating.
  • Temperature range: -70°C to 175°C.
  • Atmosphere: Air or dry nitrogen purge.
  • Internal volume: ~1.2 ft³.
  • Compatibility: 3U CubeSats, 6U CubeSats (limited MGSE).

Applications:

  • Accelerated epoxy curing.
  • Thermal shock testing.
  • Temperature cycling for components and full spacecraft.

Our cleanroom facility supports missions with stringent cleanliness requirements. It features:

  • HEPA air filtration.
  • Precision temperature and humidity control.
  • Restricted access protocols.
  • Proper gowning procedures.

This environment is optimized for integrating sensitive optical payloads.

A dedicated ground control system with direct antenna interfaces, enabling real-time spacecraft telemetry and command. This system supports comprehensive pre-launch end-to-end testing and ensures a seamless transition to mission operations, optimizing team readiness and operational efficiency. It is equipped with dual high-gain Yagi antennas mounted on a rotator for satellite tracking, capable of operating across a wide frequency range: RX 30 kHz–60 MHz, 118 MHz–174 MHz, 420 MHz–480 MHz, 1240 MHz–1320 MHz, and TX 1.8 MHz–54 MHz, 144 MHz–148 MHz, 430 MHz–450 MHz, 1240 MHz–1300 MHz.

Rooftop deck specifications:

  • Adjacent to Interplanetary Lab.
  • Equipped with safety railing.
  • Houses ground station antennas for Earth-orbiting spacecraft communication.
  • Suitable for sky-facing projects and experiments.
  • Facilitates installation of novel communication devices.

This elevated platform provides direct access for antenna maintenance, experimental setups and integration of emerging communication technologies.

Lab project news

SPARCS mission team members (from left) Nathaniel Struebel, Daniel Jacobs, Logan Jensen receive the spacecraft bus.

SPARCS mission spacecraft bus delivered to ASU for final assembly

May 02, 2024

The Arizona State University team that is building the NASA-funded Star-Planet Activity Research CubeSat, or SPARCS…

38th Annual Small Satellite Conference in Logan, Utah, August 2024.

Interplanetary Lab’s Insights from Small Satellite Conference 2024

August 29, 2024

The Small Satellite Conference, SmallSat, is an annual conference held in Utah that brings together over 4,000 industry…

Lab staff members test lunar rover Charlotte in lunar regolith.

Lunar rover project to be featured at NASA forum

November 10, 2022

When the the lunar rover nicknamed Charlotte makes its debut at the NASA 2022 BIG Idea Forum next week, it will be…

Our lab projects

Illustration of the Charlotte rover

Charlotte

How can we enhance our understanding of technical terrain environments?

Rendering of the Coconut CubeSat orbiting Earth

Coconut CubeSat

How can we enable low-cost data collection from remote, low-power Earth-based locations with innovative solutions?

Rendering of Deployable Optical Receiver Aperture also known as DORA

Deployable Optical Receiver Aperture (DORA)

How can we Improve satellite communications with precision pointing accuracy?

The night sky filled with stars

Exocam

How can we assess the impact of rocket exhaust on regolith to prevent contamination of collected samples?

Illustration of a satellite and rocket in space over Mars

LightCube

How can we create opportunities for young generations to directly interact with a satellite?

Books and cards on a table

Pico Balloon

How can we solve weight, stability and data challenges in pico balloons?

Roamer

How can we leverage microsats to repair and service orbital assets?

Five people shining lights at night sky

Star-planet activity research cubesat (SPARCS)

How can we monitor sun flares and sunspot activity on low-mass M and K spectral type stars?

Rendering of a spacecraft orbiting Earth with the moon in the background

VELOS

How can we explore the moon’s permanently shadowed regions to help the future of space travel?

It was exciting to work with Howe Industries, as well as bring new students into the lab from different majors to create a space robot idea called ROAMER.

Chandler Hutchens Systems Engineer at Northrop Grumman

Working with the Charlotte team to build a lunar regolith testbed capable of simulating the Moon’s gravity on an accelerated timeline was both a significant challenge and a unique opportunity to engage in nearly every phase of an engineering project.

Ashley Lepham Structural Analysis Intern at Northrop Grumman

Team

Daniel Jacobs

Assistant Professor

School Of Earth and Space Exploration

Joe Dubois

Engineer Sr, Special Projects

Interplanetary Initiative

Eric Stribling

Interim Lab Director and Assistant Teaching Professor

Interplanetary Initiative

Brooke Owen

Program Coordinator Senior

Interplanetary Initiative

Students

Christopher Mccormick
Graduated, hired by General Dynamics

Chandler Hutchens
Graduated, hired by Northrup Gumman

Ashley Lepham
Graduated, hired by Northrup Gumman

Genevieve [last name]
Graduated, hired by Honeywell

Matthew Adkins
Graduated, hired by Blue Origin

San Cherian
Graduated, hired by Rocket Lab

Ben Weber
Graduated, with the Peace Corps

Dylan Larson
Graduated, hired by Blue Origin

Pawan Vijayanagar
Graduated, Hemisphere GNSS

Harshil Shah
Graduated, Starship Technologies

Dens Sumesh

Logan Skabelund

Ryan Skabelund

Quang Huy Dinh

Athul Kodancha

Christopher Langenderfer

Sid Vaidy

Ysabella McAuliffe

Zach Felty

Ishi Shah

Location

Tempe campus

Sun Devil Hall
451 E Orange St., Tempe, AZ 85281

Main Entrance: Palm Walk
Delivery Entrance: Southwest corner (by arrangement or inquire at main entrance)

Map shows the Interplanetary Initiative Lab located in the south end of Sun Devil Hall on the ASU Tempe campus