What Cascade Space users actually want

New capacity launches in Q2 2027, but customers need to finalize mission designs and commit to service reservations months in advance to align with their launch schedules. The simulator becomes available Q3 2026, creating a nine-month window for customers to test configurations, validate performance, and commit to capacity blocks before the production array goes live. Without a reservation mechanism, customers face uncertainty about service availability during their critical mission phases, which will suppress early adoption and engagement.

Five performance tiers exist with dynamic sizing capability throughout the mission lifecycle, but customers lack tooling to model how their aperture needs change over time. A lunar mission requires different G/T ratios during Earth departure, trans-lunar cruise, lunar orbit insertion, and surface operations. Without timeline-based modeling, teams either over-provision for the entire mission (wasting budget) or under-provision for critical phases (risking mission failure).

Designer already integrates vendor pricing from Plane Wave and Orbital Systems and is built on open-source spacelink, but the component catalog remains vendor-curated rather than community-driven. RF engineers routinely work with custom or niche components not represented in vendor catalogs—custom antenna designs, experimental modems, legacy hardware from previous missions. When these components aren't available in Designer, teams fall back to spreadsheet workflows or abandon the tool for that design iteration.

Dynamic aperture sizing allows customers to scale performance throughout their mission, but without visibility into array availability, they can't reliably plan when they'll have access to higher tiers. If multiple missions need DEEP+ simultaneously in Q2 2027, who gets priority? The absence of capacity visibility creates planning uncertainty that will drive customers toward conservative over-provisioning or force them to maintain backup ground station contracts with competitors.

The simulator launches nine months before production capacity, creating an opportunity to de-risk customer missions before they commit spacecraft resources. Deep space missions have narrow launch windows and high failure costs—a communications system that underperforms on-orbit can jeopardize the entire mission. A certification program that validates link margins, tests failover scenarios, and confirms performance across mission phases would reduce customer technical risk and create stickiness before capacity goes live.