ORBIT — MISSION CONSOLE — BOOT SEQUENCE
MISSION CONTROL INTERFACE — ORBIT SPACE SYSTEMS

We Build
What You
Launch.

Cleanroom design, assembly, and test for 1U–12U CubeSats — from first PCB layout to deployment spring. Trusted by university labs, defense primes, and commercial constellation builders.

47
Units
Delivered
99.1%
Mission
Success
2.4M+
On-Orbit
Hours
SPACECRAFT — 3U CUBESAT — EXPLODED VIEW — Z-AXIS
SUBSYSTEMS NOMINAL
EPS-SOLNOM
28.4V
Solar Array — 3J GaAs
EPS-PWRNOM
3.3V / 5V
EPS Board
COMMS-UHFSTBY
437.5 MHz
UHF Antenna
ADCS-RWNOM
±0.01°
Reaction Wheels
ADCS-STNOM
3 arcsec
Star Tracker
PLD-BAYREADY
0.5U / 500g
Payload Bay
OBC-CPUNOM
400 MHz
OBC — ARM Cortex
ALT: 500 KM SSO — INC: 97.4° — PERIOD: 94.7 MINT-MINUS: 00:00:00
MISSION AGGREGATE TELEMETRY — REAL-TIME FEED
UPLINK NOMINAL
UNITS DELIVERED
0
SINCE 2018
LIVE
ON-ORBIT HOURS
0.0M+
COMBINED FLEET
MISSION SUCCESS
0%
RATE
LAUNCH VEHICLES
0
MANIFESTED
AVG INTEGRATION
0 WKS
WEEKS / UNIT
ORBIT REGIMES
0
SUPPORTED
LIVE
MISSION HERITAGE — COMPLETED PROGRAMS
3 PROGRAMS SHOWN

From 1U Ionosphere Sensor
to 12-Satellite Commercial Fleet

Every program below was delivered on-schedule, on-budget, and on-orbit. Each debrief is the unedited constraint, the engineering decision, and the outcome.

Earth from low orbit showing ionosphere layer and atmospheric glow
2023

IONEX-1

MIT Space Systems Lab
UNIVERSITY
LANGMUIR PROBEISS DEPLOYNSF FUNDED
FORM
1U
ORBIT
LEO / SSO
ALT
500 km
MASS
1.1 kg
INTEGRATION
11 WKS
LAUNCH VEHICLE
SpaceX
▸ CONSTRAINT

NSF grant window closed in 18 months with zero margin for launch slip. The MIT team needed a partner who could absorb schedule risk without compromising test rigor.

▸ OUTCOME

IONEX-1 deployed on schedule from the ISS airlock. First contact achieved T+4 hours. The Langmuir probe returned 14 months of continuous ionospheric density profiles before nominal deorbit.

Satellite antenna dish array pointing toward night sky with stars
2024

RAPID-DELTA

Northrop Grumman — Advanced Programs
DEFENSE
ITAR CONTROLLEDCLEARED FACILITYRF PAYLOAD
FORM
6U
ORBIT
MEO
ALT
1,200 km
MASS
8.4 kg
INTEGRATION
16 WKS
LAUNCH VEHICLE
RocketLab
▸ CONSTRAINT

The payload was export-controlled and the RF architecture was classified. Integration required a cleared facility, cleared technicians, and a build-test documentation trail that could survive a DCSA audit.

▸ OUTCOME

RAPID-DELTA launched on schedule and achieved full mission objectives within the first two contact windows. The program delivered the classified data product 6 days ahead of the contracted milestone.

Earth from orbit showing green vegetation and atmosphere from polar perspective
2025

VERDANT-FLEET

Verdant Analytics
COMMERCIAL
12-SAT FLEETGHG MONITORINGSERIES A
FORM
3U × 12
ORBIT
LEO / Polar
ALT
550 km
MASS
4.2 kg each
INTEGRATION
22 WKS
LAUNCH VEHICLE
SpaceX
▸ CONSTRAINT

Verdant closed their Series A with 14 months to first data product. Building 12 satellites in parallel on a startup budget meant every design decision had to be both manufacturable and flight-proven — no one-off heroics.

▸ OUTCOME

All 12 satellites launched across two manifests. First methane plume detection at 8 ppb sensitivity was achieved 19 days after deployment. Verdant delivered their Series B data product 3 weeks ahead of investor milestone.

GROUND STATION UPLINK — AGGREGATE FLEET STATUS
FEED ACTIVE
IONEX-1
NOMINAL
PASSES: 4/day
DATA: 2.1 GB/day
RAPID-DELTA
NOMINAL
PASSES: 3/day
DATA: CLASSIFIED
VERDANT-01
NOMINAL
PASSES: 5/day
DATA: 8.4 GB/day
VERDANT-06
NOMINAL
PASSES: 5/day
DATA: 8.1 GB/day
VERDANT-12
NOMINAL
PASSES: 5/day
DATA: 8.7 GB/day
TECHNICAL CAPABILITIES — SUBSYSTEM MATRIX

Every Subsystem. In-House.

No outsourced subsystems, no single-vendor dependencies. Every board, every mechanism, every test procedure is owned and controlled by Orbit engineers.

Electrical Power
SUBSYSTEM — EPS
SOLAR
3J GaAs — 10W peak
BATTERY
Li-ion 40 Wh
RAILS
3.3V / 5V / 12V
EFFICIENCY
>94%

Custom EPS boards designed in-house. MPPT-regulated solar input, battery management with cell-level telemetry, and fault-tolerant power distribution.

Attitude Determination
SUBSYSTEM — ADCS
POINTING
±0.01° 3-axis
SENSORS
Star tracker + IMU
ACTUATORS
RW + magnetorquers
SLEW RATE
3°/sec

Reaction wheel assemblies, magnetorquer rods, and star tracker integration for sub-arcminute pointing. Proven in imaging and comms missions.

Communications
SUBSYSTEM — COMMS
UHF
437.5 MHz — 9.6 kbps
S-BAND
2.4 GHz — 1 Mbps
X-BAND
8 GHz — 100 Mbps
PROTOCOL
AX.25 / CCSDS

Multi-band radio stack from UHF beacons through X-band high-rate downlink. Antenna deployment systems tested to 1,000 thermal cycles. Ground station network with 3 global uplink sites.

Structure & Mechanisms
SUBSYSTEM — STRUCT
MATERIAL
6061-T6 / 7075-T73
FORMS
1U through 12U
DEPLOY SPRING
CDS-compliant
TOLERANCE
±0.05mm

Machined aluminum structures with CNC tolerances to ±0.05mm. CubeSat Design Specification compliant deployer interfaces across all form factors.

On-Board Computer
SUBSYSTEM — OBC
CPU
ARM Cortex-M7
STORAGE
256 GB NVMe
OS
FreeRTOS / Linux
UPTIME
>99.9% heritage

Radiation-tolerant OBC with watchdog recovery, triple-redundant boot sequence, and heritage across 40+ missions without a single unrecoverable failure.

Test & Integration
SUBSYSTEM — T&I
TVAC
-40°C to +80°C
VIBRATION
Random + sine sweep
EMI/EMC
MIL-STD-461G
CLEANROOM
ISO 7 — 10,000 sqft

Full environmental test suite in-house: thermal vacuum chamber, random vibration table, and EMI/EMC anechoic cell. ISO 7 cleanroom with controlled humidity and ESD protocols. No outsourced test dependencies.

CLEANROOM CLASS
ISO 7
DESIGN-TO-LAUNCH
14–22 WKS
ITAR REGISTERED
DD-254 CAPABLE
FORM FACTORS
1U — 12U
MISSION SCOPING CONSOLE — LEAD QUALIFICATION

Define Your Mission Parameters

Complete the mission parameters console below. Our engineers review every submission within 48 hours and respond with a preliminary feasibility assessment — not a sales call.

MISSION PARAMETERS CONSOLE — STEP 1 OF 5
01 / MISSION OBJECTIVE

What is the primary mission objective?

STEP 1 / 5