IP Library Granted Patent US 12,565,337
Granted Patent B2
US 12,565,337 · App. 18/912,438 · Granted Mar 3, 2026

Satellites and satellite stacks for launch

Inventors: Louis L. LeGrand, III (Seattle, WA); David Paauwe (Petaluma, CA); John S.L. Kim (Seattle, WA); Ben Juda Wild (Bee Cave, TX)
Assignee: Hubble Network Inc.
B64G1/223B64G1/64B64G1/1007B64G1/443
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Quick Facts
Patent No.
US 12,565,337
App. No.
18/912,438
Granted
Mar 3, 2026
Kind
B2
Abstract

A satellite stack includes satellites arranged in a stack, where each satellite in the stack has a planar portion with an associated support structure and a subsystems housing containing satellite subsystems extending along an edge of the planar portion. For each satellite, a height of the subsystems housing is greater than a combined height of the planar portion and the associated support structure. Each satellite is oriented at a nonzero rotational angle with respect to the satellite immediately beneath, such that no satellite has its subsystems housing positioned directly above the subsystems housing of the satellite immediately beneath.

Claims (43)

1 . A satellite stack comprising:

satellites arranged in a stack, wherein:

each satellite in the stack has a planar portion with an associated support structure and a subsystems housing containing satellite subsystems extending along an edge of the planar portion;

for each satellite, a height of the subsystems housing is greater than a combined height of the planar portion and the associated support structure;

each satellite is oriented at a nonzero rotational angle with respect to the satellite immediately beneath, such that no satellite has its subsystems housing positioned directly above the subsystems housing of the satellite immediately beneath; and

for at least one of the satellites, the height of the subsystems housing is a whole-number multiple of a combined height of the planar portion and the associated support structure of the satellite.

2 . The satellite stack of claim 1 , wherein, for at least one of the satellites, the subsystems housing extends along only one edge of the planar portion of the satellite.

3 . The satellite stack of claim 1 , wherein the whole-number multiple is four.

4 . The satellite stack of claim 1 , wherein the subsystems housing of each satellite is positioned directly above the subsystems housing of the satellite that is the whole-number multiple of satellites below that satellite in the stack.

5 . A satellite stack comprising:

satellites arranged in a stack, wherein:

each satellite in the stack has a planar portion with an associated support structure and a subsystems housing containing satellite subsystems extending along an edge of the planar portion;

for each satellite, a height of the subsystems housing is greater than a combined height of the planar portion and the associated support structure; and

each satellite is oriented at a nonzero rotational angle with respect to the satellite immediately beneath, such that no satellite has its subsystems housing positioned directly above the subsystems housing of the satellite immediately beneath;

the satellite stack further comprising a support base immediately beneath a bottommost satellite of the stack, wherein the support base includes a planar central portion and a plurality of peripheral portions arranged at edges of the central portion, and wherein each of the peripheral portions has a different height.

6 . The satellite stack of claim 5 , wherein the heights of the peripheral portions increase in a stepped manner by a same amount in a first direction around a perimeter of the central portion.

7 . The satellite stack of claim 5 , wherein the peripheral portions abut the subsystems housings of respective ones of the satellites in the stack.

8 . A satellite stack comprising:

satellites arranged in a stack, wherein:

each satellite in the stack has a planar portion with an associated support structure and a subsystems housing containing satellite subsystems extending along an edge of the planar portion;

for each satellite, a height of the subsystems housing is greater than a combined height of the planar portion and the associated support structure; and

each satellite is oriented at a 90° rotational angle with respect to the satellite immediately beneath, such that no satellite has its subsystems housing positioned directly above the subsystems housing of the satellite immediately beneath.

9 . The satellite stack of claim 8 , wherein, for at least one of the satellites, the subsystems housing extends along only one edge of the planar portion of the satellite.

10 . The satellite stack of claim 8 , further comprising a support base immediately beneath a bottommost satellite of the stack, wherein the support base includes a planar central portion and a plurality of peripheral portions arranged at edges of the central portion, and wherein each of the peripheral portions has a different height.

11 . The satellite stack of claim 10 , wherein the peripheral portions abut the subsystems housings of respective ones of the satellites in the stack.

12 . A satellite comprising:

a planar portion comprising a printed circuit board (PCB);

a support structure that increases flexural rigidity of the PCB, the support structure comprising rails extending along edges of the PCB; and

a subsystems housing containing satellite subsystems extending along only one edge of the PCB.

13 . The satellite of claim 12 , wherein the support structure further comprises rails extending across the PCB.

14 . The satellite of claim 12 , wherein the support structure further comprises columnar supports arranged about the PCB.

15 . The satellite of claim 14 , wherein the columnar supports are arranged in a grid pattern about the PCB.

16 . A satellite comprising:

a planar printed circuit board (PCB);

a support structure that increases flexural rigidity of the PCB, the support structure comprising rails extending across the PCB; and

a subsystems housing containing satellite subsystems extending along only one edge of the PCB.

17 . The satellite of claim 16 , wherein the support structure further comprises columnar supports arranged about the PCB.

18 . The satellite of claim 17 , wherein the columnar supports are arranged in a grid pattern about the PCB.

19 . A satellite comprising:

a planar printed circuit board (PCB);

a support structure that increases flexural rigidity of the PCB, the support structure comprising a foam grid along at least one surface of the PCB; and

a subsystems housing containing satellite subsystems extending along only one edge of the PCB.

20 . The satellite of claim 19 , wherein the support structure has intersecting strips forming a diagonal pattern of open spaces between the strips.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Oct 11, 2024
From: LEGRAND, LOUIS L., III; PAAUWE, DAVID; KIM, JOHN S.L.; WILD, BEN JUDA
To: HUBBLE NETWORK INC.
Reel/Frame 068879/0413 →
Continuity (2)
Provisional Application 63622110 · Jan 18, 2024
Related Publication 20250236418A1 · Jul 24, 2025
References Cited (2)
US 11492147B2 · Welle · 2022 [cited by examiner]
US 20240416406A1 · Colas · 2024 [cited by examiner]