IP Library Granted Patent US 12,735,209
Granted Patent B1
US 12,735,209 · App. 19/192,229 · Granted Sep 15, 2026

Unmanned aerial vehicle (UAV) system including field-portable housing with internal chambers and related methods

Inventors: David Lopez (Malabar, FL); Hugh McFadden (Indialantic, FL); James Cornett (Lago Vista, TX); Bruce Yancy (Grant, FL); Randy Bolling (Odessa, FL)
Assignee: EAGLE TECHNOLOGY, LLC
B64U70/50B64U70/70B64U70/92B64U80/25
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Quick Facts
Patent No.
US 12,735,209
App. No.
19/192,229
Granted
Sep 15, 2026
Kind
B1
Abstract

An unmanned aerial vehicle (UAV) system may include UAVs. Each UAV may include a body and at least one deployable blade coupled thereto. The UAV system may also include a field-portable housing having internal chambers receiving respective UAVs therein, and elevators carried by the field-portable housing and associated with respective internal chambers. Each elevator may be configured to move a respective UAV between lowered and raised positions.

Claims (35)

1 . An unmanned aerial vehicle (UAV) system comprising:

a plurality of UAVs, each UAV comprising a body and at least one deployable propulsion blade coupled to the body to define a vertically-profiled UAV;

a field-portable housing having a plurality of internal chambers receiving respective UAVs in the plurality of internal chambers;

a plurality of tubular silos carried by the field-portable housing and defining the plurality of internal chambers, each tubular silo sized to receive a corresponding vertically-profiled UAV therein with the at least one deployable propulsion blade retracted; and

a plurality of elevators each carried within a corresponding one of the plurality of tubular silos and each elevator configured to move a respective vertically-profiled UAV between lowered and raised positions within the corresponding tubular silo with the at least one deployable propulsion blade retracted.

2 . The UAV system of claim 1 comprising a controller carried by the field-portable housing to selectively operate the plurality of elevators for vertically-profiled UAV launching and recovery.

3 . The UAV system of claim 2 wherein the controller is configured to communicate a desired tubular silo to a respective vertically-profiled UAV during vertically-profiled UAV recovery.

4 . The UAV system of claim 2 comprising a wireless transceiver; wherein the controller is configured to cooperate with the wireless transceiver for remote wireless communication.

5 . The UAV system of claim 1 comprising an electrical charging arrangement carried by the field-portable housing for charging the plurality of vertically-profiled UAVs.

6 . The UAV system of claim 1 comprising a cooling arrangement carried by the field-portable housing for cooling the plurality of vertically-profiled UAVs.

7 . The UAV system of claim 1 comprising a plurality of vertically-profiled UAV presence detectors, each associated with a respective tubular silo.

8 . The UAV system of claim 1 wherein each elevator comprises:

a rail;

a capture cup movable along the rail and for receiving a respective vertically-profiled UAV; and

an actuator for moving the capture cup along the rail.

9 . An unmanned aerial vehicle (UAV) system comprising:

a field-portable housing having a plurality of internal chambers receiving respective ones of a plurality of UAVs in the plurality of internal chambers, each UAV comprising a body and at least one deployable propulsion blade coupled to the body to define a vertically-profiled UAV;

a plurality of tubular silos carried by the field-portable housing and defining the plurality of internal chambers, each tubular silo sized to receive a corresponding vertically-profiled UAV therein with the at least one deployable propulsion blade retracted; and

a plurality of elevators carried within a corresponding one of the plurality of tubular silos and each elevator configured to move a respective vertically-profiled UAV between lowered and raised positions within the corresponding tubular silo with the at least one deployable propulsion blade retracted.

10 . The UAV system of claim 9 comprising a controller carried by the field-portable housing to selectively operate the plurality of elevators for vertically-profiled UAV launching and recovery.

11 . The UAV system of claim 9 comprising an electrical charging arrangement carried by the field-portable housing for charging the plurality of vertically-profiled UAVs.

12 . The UAV system of claim 9 comprising a cooling arrangement carried by the field-portable housing for cooling the plurality of vertically-profiled UAVs.

13 . The UAV system of claim 9 comprising a plurality of vertically-profiled UAV presence detectors, each associated with a respective tubular silo.

14 . The UAV system of claim 9 wherein each elevator comprises:

a rail;

a capture cup movable along the rail and for receiving a respective vertically-profiled UAV; and

an actuator for moving the capture cup along the rail.

15 . A method of operating a plurality of unmanned aerial vehicles (UAVs), each UAV comprising a body and at least one deployable propulsion blade coupled to the body to define a vertically-profiled UAV, the method comprising:

storing the plurality of vertically-profiled UAVs in a plurality of tubular silos carried by a field-portable housing having a plurality of internal chambers defined by the plurality of tubular silos and receiving respective ones of a plurality of UAVs in the plurality of internal chambers, each tubular silo sized to receive a corresponding vertically-profiled UAV therein with the at least one deployable propulsion blade retracted; and

operating a plurality of elevators each associated with a corresponding one of the plurality of tubular silos to move respective vertically-profiled UAVs between lowered and raised positions within the corresponding tubular silo with the at least one deployable propulsion blade retracted.

16 . The method of claim 15 comprising using a controller carried by the field-portable housing to selectively operate the plurality of elevators for vertically-profiled UAV launching and recovery.

17 . The method of claim 16 wherein using the controller comprises using the controller to communicate a desired tubular silo to a respective vertically-profiled UAV during vertically-profiled UAV recovery.

18 . The method of claim 16 comprising using a wireless transceiver cooperating with the controller for remote wireless communication.

19 . The method of claim 15 comprising using an electrical charging arrangement carried by the field-portable housing for charging the plurality of vertically-profiled UAVs.

20 . The method of claim 15 comprising using a cooling arrangement carried by the field-portable housing for cooling the plurality of vertically-profiled UAVs.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Apr 30, 2025
From: LOPEZ, DAVID; MCFADDEN, HUGH; CORNETT, JAMES; YANCY, BRUCE; BOLLING, RANDY
To: EAGLE TECHNOLOGY, LLC
Reel/Frame 070986/0346 →
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