The Mast That Goes Away: Temporary Verticals on a Deed-Restricted Lot
Stealth by duration instead of by camouflage: what your covenant actually regulates, which telescoping poles survive real wind, and why setup time decides whether this works.
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Every stealth antenna article, including the ones on this site, assumes the antenna has to be up all the time, so it has to be invisible all the time. That assumption is worth questioning. An antenna that is thirty feet in the air on Saturday afternoon and in a bag in the garage by dinner is not solving a camouflage problem. It is solving a scheduling problem, and scheduling problems are easier.
I run a 31-foot fiberglass pole on a drive-on mount. Deployment takes under seven minutes. Nobody has ever mentioned it, and there is nothing to mention on the other six days.
What Your Covenant Actually Regulates
This determines whether the strategy is valid or merely a shorter exposure window on the same violation. Pull your CC&Rs and find the antenna language. It sits in one of two places, and the placement matters more than the wording.
If it lives in the architectural control article, alongside sheds and fences, the governing concepts are almost always structure, erected, installed, and permanently affixed. Those words describe a condition of the property, and the enforcement mechanism is an ARC application plus a written approval. A pole clamped to a tire plate for four hours is a weak fit for every one of those words. No foundation, no attachment to the dwelling, no persistent condition to photograph for a violation letter.
If it lives in the use restrictions article, alongside parked boats and clotheslines, the governing concept is conduct rather than construction. Those clauses frequently read "no antenna of any kind shall be erected, placed, or maintained upon any lot," and the word "placed" does real work there. Temporary deployment is squarely inside that language. You are not finding a loophole, you are shortening the window.
Two things will not save you. OTARD does not cover amateur radio. 47 CFR 1.4000 protects direct broadcast satellite dishes, fixed wireless antennas, and television broadcast antennas; the amateur service is excluded by name and always has been. PRB-1 does not reach a private contract. It is a federal preemption directive aimed at state and local zoning authorities, and your HOA is neither. The Parity Act, which would have pushed a reasonable-accommodation standard into private covenants, is dead; the how and why is in the Parity Act postmortem. You are inside a private contract with no federal backstop, which is exactly why duration is the variable worth manipulating.
Underneath all of it: enforcement is complaint-driven. Boards do not patrol. A neighbor sees something, it bothers them, they email the property manager, a letter follows. Compress the observable window and you compress the chance that sequence ever starts.
Fiberglass or Aluminum Is a Loading Decision
Fiberglass is non-conductive. The pole is a support and nothing else. Tape a wire up the outside, hoist an inverted-V apex, hang a sloper off the tip, and the pole has no electrical opinion about any of it. No detuning, no bonding, no parasitic coupling you did not design.
Aluminum push-up masts become part of the antenna whether you planned for it or not. That can be deliberate: a 30-foot aluminum mast fed at the base against radials is a good 40m vertical. But if the plan is to hoist a wire, a conductive tube running parallel to it a few inches away is a parasitic element with a length you did not choose.
| Pole type | Extended height | Conductive | Main failure mode | Solo deploy |
|---|---|---|---|---|
| Fiberglass telescoping, light | 18 to 33 ft | No | Section collapse under compression | 3 to 6 min |
| Fiberglass telescoping, heavy | 33 to 40 ft | No | Tip section shatter in gusts | 8 to 15 min |
| Aluminum push-up mast | 20 to 40 ft | Yes | Permanent bend at a clamp | 10 to 20 min |
| Painter's extension pole | 12 to 24 ft | Varies | Locking cam slip | 2 to 4 min |
For hoisting wire where speed is the point, fiberglass wins. Jackite 31-foot fiberglass poles are the common choice and are sold as kite and flag poles rather than antenna hardware, which is a small advantage at the point of delivery. Comparable telescoping fiberglass masts run 20 to 40 feet. DX Engineering stocks the heavier guyable poles and the clamp hardware for them.
Section Collapse Is the Failure You Will Actually Have
Telescoping poles telescope. Each section is held extended by friction alone, and friction fails under three conditions: wet fiberglass, downward load at the tip, and wind vibration. When a section lets go the pole drops several feet in a fraction of a second, and under wire tension the collapse cascades through the joints below.
The fix costs about ninety seconds per deployment. One turn of self-amalgamating tape at each joint after extending, or a small hose clamp where each section meets the next. Tape is better for a mast that comes down weekly because it peels off clean and leaves no hardware to lose. Self-amalgamating silicone tape belongs in the kit anyway for the coax connector.
Keep tip load near zero. These poles taper to a final section often under half an inch across with a wall thickness measured in fractions of a millimeter. A few ounces of wire is fine. A remote tuner, a loading coil, or a magnetic loop at the top is not, and the pole will tell you so.
Guying Without Leaving Anchors Behind
Anything over about 20 feet needs guys in anything over about 10 mph of wind. Three lines at 120 degrees, attached at two-thirds of extended height.
Use non-conductive line. Dacron or braided polyester, never steel, because a steel guy alongside an HF antenna is a resonant parasitic element sitting a few feet from your radiator. Dacron antenna guy rope in 3/32 or 1/8 inch is rated well beyond what a light pole can put into it and does not creep the way cheap paracord does.
For anchors that go home with you: screw-in dog tie-out stakes go into turf in seconds and leave a pencil-diameter hole, but they pull straight out of wet clay, so load-test each one by leaning on the line before you trust the mast to it. Sandbags or water jugs work where you cannot penetrate the surface, at roughly 25 pounds per guy minimum. And if the mast is on a drive-on mount, one guy back to the tow hook makes the vehicle do a third of the work with no extra hardware.
Tension snug, not taut. This is counterintuitive if your experience is with steel towers. Over-tensioned lines put a thin-wall fiberglass pole into compression and buckle it, and the buckle happens at a joint, which starts the collapse sequence above.
Bases That Do Not Involve Digging
| Base | Stability | Surface needed | Stows? | Notes |
|---|---|---|---|---|
| Drive-on tire mount | Highest | Driveway or firm turf | Yes, flat plate | Vehicle weight is the anchor |
| Screw-in ground spike | Good with guys | Turf or soil | Yes | Leaves a small hole |
| Umbrella base with sleeve | Moderate | Patio, deck | Heavy to move | Fill with water, empty to stow |
| Deck or fence rail clamp | Good | Existing structure | Yes | Reads as permanent if left up |
| Bucket of concrete | Good | Anywhere flat | Not really | Cheap, but it lives outside |
The drive-on tire mount requires nothing of the property at all, which is precisely the argument you want to be able to make. Plate under a front tire, mast socket at the edge, a thousand pounds of car holding it down.
The rail clamp is the trap on this list. It is fast and stable and it is also the option most likely to get left attached to the deck between sessions, at which point you have built a permanent installation one weekend at a time. If you use a clamp, the clamp comes off with the pole.
What Goes Up There
Inverted-V apex. The mast holds the center of a dipole and the ends go to stakes or fence posts. Highest performance per unit of visible time, because the mast only supports the apex and the feed point ends up where it should be. A 40m V wants about 33 feet of apex height to have a useful pattern. A linked 40m/20m dipole keeps it to one feedline.
Wire vertical with ground radials. Tape a wire up the outside and lay four to eight quarter-wave radials on the grass. A 20m quarter wave is 16 feet and does not need the whole pole; 40m is 33 feet and does. Radials lying on turf are effectively invisible from ten feet away and spool up in a minute. Fastest configuration to strike.
End-fed half-wave sloper. Transformer at the base, wire up the pole and out to a stake at an angle. One support, one ground stake. Remember the EFHW still needs a counterpoise and a choke or the coax becomes the return path and puts RF back in the shack; mechanism and fix are in the grounding and counterpoise article.
The feedline still has to reach the radio without becoming the most conspicuous object on the lot. For a weekend deployment, flat coax under a door sweep beats anything you would install permanently. Tradeoffs are in the feedline routing article.
Setup Time Is the Whole Strategy
This matters more than any hardware choice on the page: if deployment takes 40 minutes you will operate once a month and then stop. If it takes 6 minutes you will operate most weekends. Gain is irrelevant next to that number, because an antenna you do not put up has no gain.
Design the kit around the clock. Pre-cut every guy line and mark its attachment point with tape. Coil the feedline on a spool. Tie the wire ends to their stakes permanently and store them attached. Keep pole, guys, stakes, coax, and mount in one bag or one length of PVC tube so a deployment is one trip to the garage.
Then time your first three deployments and write the number down. That number, not the SWR, tells you whether this is your station or a project you abandon in November.
Where This Fails
An absolute covenant clause. If the document says no antenna of any kind shall be placed upon any lot, a temporary mast is a violation with a short duration, not a compliant install. Some people take that trade knowingly. Take it knowingly.
A corner lot with constant foot traffic, or a board member two doors down. A short exposure window only helps if the window is usually unobserved.
Sustained wind over about 20 mph. A pole coming down across a neighbor's driveway is a much worse conversation than an antenna complaint. Take it down before the front arrives. If a neighbor does raise it, the neighbor complaint article covers handling that directly instead of through the board.
What I Would Put Up
A 31-foot fiberglass telescoping pole on a drive-on tire mount. Three 1/8-inch Dacron guys pre-cut to reach screw-in turf stakes at roughly two-thirds height. Self-amalgamating tape at each joint after extension. A linked 40m/20m inverted-V at the apex, ends to two more stakes. Fifty feet of RG-8X on a spool with a mix-31 choke at the feed point.
Roughly $200 to $260 depending on the pole, and it goes garage to on-air in under ten minutes once you have done it four times. It is not the best antenna you could build on that lot. It is the best antenna you will actually use there, which is a different and more useful thing.
Still weighing temporary deployment against a permanent stealth install? The restricted-space decision tree walks the fork.