By Evgeny Slodkevich, UA3AHM/OH5HM, and Dieter Kuckelkorn, DL1DBY
When going to an outdoor camping trip, we will find that in many parts of the world there is no cell phone service avail able in the back country. To make matters worse, in these areas there is almost never a VHF/UHF ham radio repeater in range when we need wide-area coverage. Apart from strictly local communications using VHF/UHF simplex radio, how do we send messages to friends and family over great distances? How do we call for help? A similar problem can even arise in an urban environment if a major disaster strikes like the break-down of the power grid.
In activities like back country trips in areas without cell phone coverage or in a widespread emergency with the loss of our normal means of communication we can use satellite phones, but this technology is very expensive, requires subscriptions and there is no guarantee that the complex infrastructure of satellite communications will work under all circumstances. The obvious solution for Ham Radio operators will be to switch to shortwave communication using battery operated radios and often NVIS modes of operation. NVIS stands for Near Vertikal Incidence Skywave, which means transmitting with special antennas straight up to communicate with other stations 30 km to 300 km (20 to 200 miles) away with low power – which would be the most useful communications distance if help is needed. We could use SSB voice communications, but this requires that the person we want to reach is sitting constantly at his or her radio to be able to receive the message. This can be a problem: In a real emergency we probably won’t have time for this. We could instead use capable digital modes with automatic message handling capabilities like JS8Call, but these require notebook computers or other complicated setups in the field which consume a lot of energy and can be difficult to recharge off-
grid on a reliable basis.
Evgeny UA3AHM/OH5HM and Sergej UA9OV have developed another mode of digital shortwave communications, which aims to be easy to use, capable and – most importantly – friendly to the operator’s resources. Apart from a low power battery operated transceiver and a small digital interface, only an Android smartphone is needed, which can be recharged with cheap and readily available consumer-grade solar chargers. Evgeny and Sergej have created an app called “HFpager” which allows to use the smartphone’s sound chip to encode and decode audio signals in the SSB audio passband of the transceiver – similar to PC based modes like FT8 and JS8Call. It uses rates of transmission of 1.46, 5.86, 23.44 and 46.88 Baud. Modulation is 18-tone Incremental Frequency Shift Keying (IFSK) with forward error correcting Reed-Solomon code RS(15,7) and a superblock by 4 RS blocks with interleaving.
I’m not a summer-heat-loving guy. Quite the opposite, in fact. Give me cold weather and I can hike and camp forever.
On Tuesday, July 13, 2021, it wasn’t cold outside, of course, but I still wanted to fit in a park activation and hike. Despite the forecast highs of 90F/32C. I had almost the entire day to play radio, too–a rarity.
When I have an entire day to devote to radio, I can either hit the road and try to hit multiple parks–perhaps as many as 5 or 6–or I can choose to venture further afield and hit a new-to-me park.
I tend to choose the latter and that Tuesday was no exception.
North and north by NW of Winston Salem, NC, are two parks I’ve always wanted to visit: Hanging Rock State Park and Pilot Mountain State Park.
I devised a plan to first visit Hanging Rock, then Pilot Mountain. Both parks are close together geographically, but a good 30 minutes drive apart.
A quick check of the SOTA database and I discovered that there are actually two summits on Hanging Rock State Park’s grounds. One is off the beaten path a bit and would require some light map work, and the other–Moore’s Knob–is on one of the park’s main trails. Since I was putting this whole plan together morning of, I opted for the “easy” summit as I didn’t have time to double-check topo maps, parking areas, etc.
Hanging Rock State Park (K-2735)
Travel time to Hanging Rock was about 1 hour 45 minutes. Once I arrived on site, I discovered that, like many state parks, the main visitor’s center is being renovated.
I easily found the parking area for the Moore’s Knob loop. It being a Tuesday, the parking lot only had a few cars.
Pro tip: with the visitor’s center out of commission, stop by the swimming area pavilion for some proper restrooms/washrooms!
I planned to take the full trail loop in a counter-clockwise direction.
I’m glad I did, too, as the bulk of the ascent was a long series of steps. I’m not a fan of steps, but I much prefer using them heading up a mountain rather than down.
Near the summit, there’s a very short spur trail to Balanced Rock which is worth a visit not only for the rock, but also the views.
It being a North Carolina state park, there are some obligatory warning signs about how falling off of cliffs can lead to injury or death. These warning signs aren’t as prominent as those at Crowders Mountain State Park, though!
Moores Knob (W4C/EP-001)
There’s no mistaking the summit as there’s a large observation tower on top that affords some spectacular views of the Blue Ridge Escarpment, the foothills, and Pilot Mountain (my next stop). There were a number of hikers on the summit of Moore’s Knob and it was actually pretty gusty up there, too. I searched and found a nice little spot to set up that was sheltered from the wind, shaded, and even had trees tall enough to hang my Packtenna 9:1 UNUN random wire antenna!
Note: I brought the CHA MPAS Lite in case there were no good tree options on the summit.
Set up was quick and easy on the radio side of things, but as with most SOTA activations, positioning my tripod to make a video was the tricky part. Since I’m sitting on the ground, it can be difficult to find the right angle so that the radio, key, and notepad are all in the frame. (See my video below).
I started calling CQ at 16:00 UTC on 20 meters. I had a reasonable cell phone signal on the summit, so I was able to spot myself. Problem was, though, my hiking app seemed to be draining my iPhone’s battery very rapidly (that and my aging iPhone 7 probably needs a new battery at this point). After spotting myself, I shut down the phone to save power. I forgot to contact my buddy Mike (K8RAT) with a frequency, but he eventually saw me on the SOTA spots.
In a period of 29 minutes, I worked 20 stations on 20 meters.
Next, I moved up to 17 meters where I worked eight more stations in seven minutes.
I love effortless activations like this and part of me wanted to continue operating–even switching to SSB–but looking at the time, I knew I needed to hit the trail, make my way back to the car, and drive to Pilot Mountain.
I called QRT around 16:42 UTC and packed up my gear.
Not bad for 5 watts and a 31′ wire!
One highlight of this activation was meeting Jim (NA4J) who heard my CW from the summit and popped by to introduce himself. Although I trimmed out our conversation in the video (I’m not entirely sure he knew I was recording the activation), you’ll hear him in the first half of the activation.
Here’s my real-time, real-life video of the entire activation:
The hike back to the car was very pleasant. It was a bit longer than the path I took to the summit, but the descent had no steps which made it a breeze.
I had a radio topic on my mind during that hike and actually pulled out the OSMO Action camera and made a bit of a “hike and talk” video. It’s on the topic of ATUs and resonant vs non-resonant antennas. I haven’t yet decided if I’ll post it–the shaky camera might make some viewers sea sick! 🙂 We’ll see–maybe I’ll brave up and post it anyway…
Next, I drove to Pilot Mountain State Park for a quick afternoon activation. Although Pilot Mountain is a SOTA summit, too, it’s yet to be activated because the actual summit would require proper rock climbing, I believe.
As always, thank you for reading this field report! And thank you to everyone who has supported me through Patreon and the Coffee Fund. I truly appreciate it.
I hope you find time this week to take your radios outdoors to play, or to hunt some parks and summits from your shack, backyard or vacation spot!
And for those of you working on your CW skills, don’t give up and don’t stress about it. Take your time and allow your brain to absorb code by simply listening. When you feel you’re able to copy even some of the contacts in the videos of my activations, you’re ready to start hunting CW activators!
Ever have one of those days where nothing works out the way you had planned–?
Yeah, me too.
In fact–and this is purely a coincidence–today was one of those days for me!
Here’s how it played out…
A New-To-Me Park
This morning, I had an optometrist appointment in Hendersonville, NC and needed to fit in the appointment on my way to visit my parents for a couple of days. I don’t often venture out to Hendersonville so I looked up a few parks in the area and thought I might fit in a quick activation around lunch.
Keep in mind it’s been nearly two weeks since my last field activation, so this QRPer is having some serious withdrawal.
I looked at the map and realized that Green River State Game Land was a very short detour. I had meant to activate Green River last year and actually located an ideal spot for an activation via the NC WRC maps but never activated it. Since it would be awfully fun to fit in a new-to-me park en route to visit the folks, I mapped out my travels, scheduled the activation via the POTA website and notified my buddies Mike (K8RAT) and Eric (WD8RIF) so they could look for me on the air.
The optometrist appointment went well (thanks for asking) so I made my way to Green River Game Land. I had no problem finding the site–it was basically an open parking area off a rural road.
It was hot, though. My car’s thermometer measured 93F, the humidity wise high, and there were no trees to provide shade. I sat up the Chameleon MPAS Lite, a folding chair, and used the open hatchback of my Subaru as shade from the noon sun. It was *just* enough shade for my chair. I placed the Xiegu X5105 on my clipboard, connected the key, and turned on the radio.
The first thing I heard on the radio is the last thing any activator wants to hear. Noise…lots of it.
The radio was tuned to 17 meters and the noise was approaching S9. The noise was raspy and sounded like arching from power lines. I looked at the road behind me where there were several power lines meeting at three different poles.
I checked 20 meters, 30 meters, 40 meters, and 60 meters. The noise was consistently loud across those bands.
I’m certain the noise was coming from a local power pole–it could have been a staple, nail, or something else that was arching.
It was so incredibly hot on site, I had no desire to attempt hiking into the game lands far enough to escape the noise. In my experience, power line/pole noise can propagate vast distances. Plus, again, it was just too hot.
Normally, I’d try to find another game land access point, but having already done a bit of research, I knew going to an alternate spot would be too much of a detour. This was the only access point along my route.
I decided, instead, to pack up my gear, continue my travels, and plot an alternate activation.
South Mountains Game Land
I called my buddy Mike, and told him I thought I’d try South Mountains Game Land. In the back of my mind, I had been wanting to visit one portion of South Mountains I activated in the winter this year. I thought, perhaps, it was actually near a SOTA summit on the game lands.
I pulled over at a gas station a good 45 minutes from South Mountains and tried to log into the POTA website to change my scheduled activation (so it wouldn’t spot me at the wrong park via the Reverse Beacon Network). Problem was, before logging me in, Google wanted to initiate a two-factor authentication since I hadn’t logged into the POTA site on my phone in a while. Google wouldn’t send me a text message to confirm, it wanted me to dig a confirmation code out of my Pixel 3 phone that I only use as a video camera and the Pixel 3 was inaccessible.
I had a hunch that I wouldn’t have mobile phone access on site, so I called Mike back and he agreed to correct my spot on the POTA network. (Thanks, Mike!)
Ten minutes from the game lands entrance, I noticed dark clouds had formed to my north. I pulled over and checked my weather app while I had Internet access. Sure enough, a large line of thunderstorms had formed and were heading my way, very slowly. I decided then and there I was not going to do an activation–my phone was already giving me severe thunderstorm warnings–but I thought I might at least explore the site and see if the road would actually lead to a SOTA summit.
Three minutes from the site entrance, the heavens opened. It was a proper gulley washer of a deluge, too–the type that forces you to drive at a snail’s pace and the type that causes flash-flooding. I turned down the game land road and then the lightening started popping too.
I threw in the towel.
Although a part of me would have enjoyed taking the dirt road several miles into the game lands, these rains were the type that wash out dirt roads and I had no intention of dealing with that too. Plus, it would be my luck…right? Right.
I’m really not that bothered because I actually enjoyed the drive today (save when I hit the storms) and I also found a place in Hendersonville that makes excellent Gyros!
That and I fully intend to do an activation or two tomorrow, weather pending.
We’ll have to see how it plays out. It’s all a part of the field radio fun!
If you’ve been following QRPer or the SWLing Post for long, you’ve no doubt noticed that I am a certified pack geek.
I tend to buy high-quality packs from companies that both design and manufacture their products in the USA (i.e. Red Oxx, Tom Bihn, Spec Ops Brand, GoRuck, etc.).
In other words? The packs I evaluate are pricey, rugged, and backed by a lifetime warranty. Their quality is uncompromising and at the top of the market.
In addition, I’ve even helped some of these pack manufacturers during product design and development stages, much like I do for radio manufacturers.
Radioddity contacted me a few weeks ago and asked if I’d be interested in testing a backpack they’ve started selling that’s designed with field radio operators in mind. I checked out the info they sent me and the backpack design did, indeed, look bespoke–or custom–for field radio operators. In other words, it wasn’t a laptop bag merely labeled as a radio bag.
But the inner pack geek/snob in me worried that a $45 mass-produced backpack would only lead to disappointment. This is an area where I have tremendously high standards and feel like I get my money’s worth when I happily fork out $200-450 US for a pack.
Still, it’s difficult to find field backpacks that are designed to accommodate radio gear. So I told Radioddity to send me one–which they did for free (meaning, at absolutely no cost to me).
The Raddy backpack arrived in two days (basically, everything from Radioddity seems to arrive within two days with tracking and updates).
My first impression was that the Raddy pack was very lightweight, but then again, I tend to buy backpacks made with Ballistic Nylon or 1000 weight Cordura–i.e. materials that are on the heavier side.
Radioddity mentions that this pack is “dust and rainproof” but then go on to say that it’s ” [m]ade of durable water-resistant polyester fabric with metal zippers[…]. [N]ote it’s not totally waterproof.”
Thus I believe I would classify this pack as water resistant only. I have had the Raddy pack out in light rain and the water seemed to bead up on it. The zipper openings–while covered–have no proper weather seals, but I see where it would be more than adequate for most rains or showers you would encounter on a day hike. I’m not sure I’d feel comfortable leaving it out in the rain for an extended period of time, though. Part of its ability to keep rain out relies on wearing the pack in an upright position.
The outer polyester fabric feels durable and is pleasant to the touch–it’s not abrasive like some heavier grade materials.
First thing I wanted to do was open the main compartment to look inside. But first, I had to find the main zippered compartment.
Seriously! Turns out, unlike most backpacks, the main compartment opens from the back or shoulder harness side of the pack rather than the front. They obviously used this design to give the Raddy backpack a better operating surface for the rig inside.
Unzipping the main panel is a little awkward when compared with other packs mainly because the shoulder straps feel like they’re a bit in the way. Still, once I got used to this unconventional design, it became second nature to open.
The zippers are metal, but not YYK–zipper pulls are included.
The main compartment opens to 180 degrees if you wish, but sits comfortably at a right angle so that your radio (which will likely live in the pocket mounted on the interior side of the shoulder harness panel) will rest on a padded surface.
There are Velcro flaps on the hinge points of the interior of the pack that you can detach to have the pack open fully.
There is one large padded interior pocket that is the obvious choice for most portable transceivers–especially those with a front faceplate like the IC-703 Plus, Yaesu FT-891, Xiegu G90, etc.
This main pocket has openings at the back corners so that the rig’s power cord, coax line, and accessory cords can all be managed within the pack if you’d actually like to operate from the pack. Admittedly, I’m not certain I’d leave cables and cords attached to the back of my transceiver during transport, though, as it could cause some stress at the connection points on the back of the radio; stand-offs and/or right angle connectors might help with this, however. The back of the pocket is padded and so is he floor of the backpack, so your rig should be otherwise very protected when the backpack is placed on the ground.
The main internal pocket also has two elastic straps designed to hold the radio in the pocket during transport. I think this is a great idea, however, I’ve found in practice they quite easily slip off all but the largest field radios. Speaking of which, the largest field radio I own is the Mission RGO One which is ever-so-slightly too large for this pocket. I assume similarily-sized radios like the Ten-Tec Eagle and Elecraft K2 would not fit.
I wish the pack had a frame sheet and the main pocket had at least one compression strap attached to it to hold a radio in more firmly. The pocket is large enough that even my IC-703 Plus slides around inside.
Of course, this main pocket could also hold a laptop or tablet.
The main interior pocket is not well suited for “blocky” transceivers like the Elecraft KX3, Icom IC-705, or Xeigu X5105 for example. Although the pocket can hold most of these, they would simply fall to the bottom and could not benefit from the full dimension.
The second large padded pocket inside the Raddy backpack is ideal for holding a battery, ATU, or even the “blocky” transceivers mentioned above. I’m calling it a “battery pocket” but in truth it’s obviously designed to also hold transceivers.
This pocket is shorter and has one elastic strap (I’d prefer a compression strap) with a Velcro attachment to hold the contents inside. It’s attached to the front panel of the backpack and when the backpack is zipped closed, this pocket and the rig pocket fit side-by-side.
When I’m carrying the Icom IC-703 Plus in the Rig compartment, I place my 15 Ah LiFePo4 battery in this compartment.
If I’m carrying the Elecraft KX3, I place it in this battery compartment and my tablet and clipboard in the main pocket.
Like the main rig compartment, there are openings at the bottom corners to allow cable management and routing. I’m not so sure how convenient or practical it would be, however, to operate a radio from this particular internal pocket.
There are also two internal mesh pockets: one attached to the front panel and the other attached to the large rig compartment pocket.
There pockets would be ideally-suited to hold small cords, a key/paddle, and possibly a small hand mike.
While the top of each pocket has an elastic band, I would not trust these open pockets to hold small items like adapters. They could easily fall out if the backpack were turned upside down.
In addition, if you have heavier items inside, the pocket may sag a bit and look more like an accessories “hammock.”
Exterior front pocket
There’s also one large, flat exterior pocket on the front panel of the Raddy backpack. This pocket might be easy to overlook if the zipper is tucked inside.
The zipper is centered and oriented vertically. When opened, there’s a surprising amount of room inside, and all sides of the pocket are padded.
The opening isn’t large enough to fit my main clipboard (which is fine, because I would store it inside the main compartment), but it is large enough to allow one to store a tablet, notepads, pens, cables, etc. inside.
While the zipper opening has nearly overlapping seams which should help shed water, the vertical orientation of the zipper would potentially allow for heavy rains to penetrate the zipper opening, especially if that front pocket was bulging with gear. This is why conventional packs tend to have a horizontally-oriented front pocket zipper and rain flap over the zipper.
There’s also an USB access port on the pack that allows for a USB device to be plugged in on the outside and tethered to a device or battery on the inside. I assume this would mainly be used as a battery pack connection.
This would be handy during travels, but I doubt I would ever use it in the field.
I’ve used the Raddy backpack on two short hikes and find it, overall, a very comfortable backpack. I do find the harness a little on the small side, but I have broad shoulders. For those with slightly smaller frames, I think this would work well.
The carry handle is attached across the top of the backpack/shoulder straps.
I also find this a bit odd, because if the pack is fully-loaded and heavy, it puts a lot of strain on the attachment points of the handles and at an angle–meaning, the double stitching isn’t providing the strength it otherwise could if the pack weight was distributed evenly on the top of the backpack body instead of the shoulder harness.
The back of the pack is padded with a mesh that allows for your back to relatively cool as you hike.
Overall, it’s a very comfortable pack, although I wish the shoulder straps felt more robust and I wish the main handle wasn’t attached to the shoulder straps.
One real bonus with the Raddy pack is that it’s low profile, has an “urban” look–in other words, fairly nondescript. This pack does not look like a radio manpack, nor is it tactical in design. If I were to take this through a large city, no one would assume this pack was full of radio gear. It looks like a normal, modern backpack.
There’s real security in a low profile, stealthy design.
In addition, other than the front vertical pocket, this would be an incredibly difficult pack for a pickpocket to steal from..
The Raddy backpack is designed to hold up to 44lb/20kg of weight. I’m not sure I’d ever need or want exceed 20-30 lbs with it myself.
Radioddity also backs this pack with an 18 month warranty. Exceptional. Radioddity told me they would offer a replacement if any stress points on the pack fail during that warranty period. They also told me they’d handle any warranty replacements within 1 business day. Having worked with Radioddity now for a year, I do believe they’ll stick by this quick response/handling time.
Is the Raddy Multi-function Backpack for you?
Keeping in mind (again) that I normally review packs at the high end of the market, I’m not familiar with with what would be expected at this $45 price point.
What I can say is that if you’re looking for a compact pack that’s designed to hold and protect radio gear, this is a good option and certainly one of the most affordable I’ve seen on the market.
This pack would best suit the casual park activator that doesn’t need to pack in a lot of extra supplies like field safety gear. It’s designed to only hold a radio, battery, ATU, cables, and a few other accessories–I’ve configured it with a number of radios and found that I can easily pack an entire QRP station inside.
I would use this pack for drive-up parks and summits, and especially for urban outings-. This would be a great pack to wear into a park in or near a city where I wouldn’t want to appear as if I’m a radio operator preparing for field combat scenarios. You could wear this pack into a historic POTA site and politely ask staff if you could activate the park with the low-profile gear you have inside. It would be much less intimidating and conspicuous than a tactical or large hiking pack.
This would also be a great pack if you plan to fly and wish to keep all of your radio gear in a carry-on. Being a compact backpack, the size should easily fit the description of a “personal” carry-on for most airlines (always check before departing, though, as these dimensions will vary by airline). With your gear loaded, it’ll might appear “intentional” and more normal as you go through Airport security as opposed to your gear being simply tossed in a suitcase.
The Raddy pack is not perfect: I would like something more rugged, with a better suspension system and even better weather-proofing around the zippers. I’d also like more rigid padded pockets inside with adjustable straps. I assume all of these things, though, would substantially add to the cost of the pack and might be overkill for most casual operators. While I wouldn’t choose this pack for a 10 mile round-trip hike to a SOTA summit, I would choose it for some casual picnic table operations and, again, for travel.
I love the fact it can be configured so that you can operate directly from the backpack. You could simply open up your pack in the field, connect the antenna, and operate from the open backpack.
I do like Radioddity and find that they stand behind their products. I’m happy to see that they’re offering a competitively-priced radio pack to supplement their product line. I hope other retailers and manufacturers will do the same.
PS: It’s my policy that if I receive a free review product from a retailer or manufacture–and they don’t want it returned–I either use it or give it away. Over the years I’ve had the pleasure of giving away review gear to readers and subscribers who I knew would appreciate it. In this case, I know exactly who I’ll be giving this pack to because she’ll give it a thorough workout and is need of a compact radio pack! Maybe I can even convince her to write her own review in a year or so–? We’ll see!
Of course, the benefit of camping at a state park is being able to play radio pretty much anytime while on the park grounds. For a few days, it’s like you’re living in a park activation and can actually set up an antenna and use it over the course of multiple days.
It’s such a big departure from my typically short (45-90 minute) park activations.
When we first arrived at the New River State Park campground, I deployed my PackTenna 9:1 UNUN random wire antenna.
I brought two transceivers with me: the Xeigu X5105 and the Discovery TX-500–I pretty much split my operating the time equally between the two radios.
New River State Park (K-2748)
Although I spent much more time on the air than I normally do, I didn’t make videos of each session. One reason is I wanted to operate with earphones–especially since some of my sessions were later in the evening or early in the morning. I didn’t want to disturb my neighbors at the campground.
That and, especially with the X5105, I wanted to see what it would be like to operate with earphones for extended sessions. Prior to making videos of my activations, I almost exclusively used earphones in the field. I appreciate the sound isolation earphones offer–I also find they help tremendously with weak signal work. When I make videos, however, I don’t want to go through the hassle of recording the line-out audio separately in order to use headphones, so I use an external speaker.
I decided to record my Wednesday, June 23, 2021 evening session with the Discovery TX-500.
This session started only a few minutes prior to the end of the UTC day which meant I had to watch the clock very carefully and clear my logs at the beginning of the UTC day (20:00 EDT).
In POTA and other field activities, if your activation straddles the UTC day change, you must keep in mind that any contacts made after 0:00 UTC can only be counted on the next day’s logs. This was not a problem for me because I had logged dozens of stations earlier in the day, but if you ever start an activation close to the UTC day change, you need to make sure you log your 10 contacts for a valid activation prior to 0:00 UTC.
Another thing complicating my sessions at New River State Park was that I chose not to schedule my activation via the POTA website prior to our trip.
If you schedule your activation via the POTA website, anytime the Reverse Beacon Network picks up your CQ calls (in CW), the POTA spots website will scrape that information and auto-spot you. It’s an amazing convenience for those of us who operate CW.
I chose not to schedule my activation days at New River because I had also planned to operate at another nearby park during my stay and I didn’t want the system to spot me incorrectly. That, and I thought I would have mobile phone coverage to self-spot.
It turned out that–contrary to my mobile phone company’s coverage maps–I had no internet service at the park. None.
In order to get spotted, I relied on my Garmin InReach GPS/satellite device to send short text messages to my buddies Mike (K8RAT) and Eric (WD8RIF). My pre-formatted message would prompt them to check the RBN for my frequency, then spot me to the POTA site manually.
I’m incredibly grateful to have had them helping me in the background. Everyone should have a Mike and Eric as friends!
I made a real-time, real-life, no-edit video of the entire activation. Note that it took a while to get spotted, so the first ten minutes are simply me talking (it’s alright to skip that bit…it won’t hurt my feelings!).
Also, here’s a QSO map of that day’s contacts. Note that this includes stations I logged later in the UTC day (i.e. the following morning/day.
Due to some unexpected conflicts, our camping trip was shorter than we would have liked. We plan to visit New River later this year and spend much more time there. It’s a beautiful park!
Thanks for reading this short field report and here’s hoping you get a chance to play radio in the field soon!
Well, to be honest, it was a purchase I planned to make, but not until much later this year or early next year.
Except I didn’t.
Don’t judge me.
Last Sunday, I hopped over to the QTH.com Classifieds to price out a nice 100 watt radio for a friend whose daughter is new to the hobby.
Normally, I use the search functionality at QTH.com and seek out classified ads for particular radio models. Since I wanted to offer him several examples, I decided to simply load all ads for that day and skim through the list.
The very first item that came up on the list was a Yaesu FT-817ND. I opened the ad and looked at the photo.
The owner was selling the radio along with everything that originally accompanied it–the box, antenna, manuals, the whole lot–plus side rails he’d purchased and installed. He described it as “like new” with only five hours of operating time on it. He said he was selling it because, “I just can’t do QRP.”
I honestly think I appreciate the FT-817/818 now even more than I did after it initially hit the market. I’ve been enjoying the FT-817ND in the field and have used it in a number of park and summit activations.
But that’s not why I purchased this one.
I’ve been wanting to get in on a bit of satellite action as, perhaps, a bit of a stepping stone into QRP EME (I mean, the antennas point upwards, right?) and also my ham daughters are both interested in satellites.
My future QRP full-duplex portable satellite system
Ages ago, I’d seen and read about hams who’d paired two FT-817s or FT-818s to create a full duplex portable satellite station.
My buddy Eric (WD8RIF) reminded me about this earlier in the year, too, and it stuck in my head because I really liked the idea.
Why? Besides all of the advantages of using a full duplex station, two FT-817s is still a very portable set-up. Hypothetically, I could use it for both satellites and HF during a park activation. Plus, two portable HF radios, right? Right! What’s not to love–?
Seriously: I see the system as quite a value when compared to other full duplex systems including pricier HTs.
I had not done research about FT-817ND pricing before pulling the trigger–indeed, I still haven’t–but I felt $350 shipped was fair. I know I’ll get $350 of fun out of it!
After taking delivery and unboxing it, I expected it to show normal signs of wear, but the seller described it accurately: it was like new. In fact, it still had the protective film on the screen (yes, I pulled it off) and I could tell the microphone had never even been taken from the box. It was flawless and included every single original accessory mostly in the original bags.
I like the side rails, too: They prop up the radio at a perfect viewing angle. I have no idea who made these, but they’re nice.
Speaking of side rails…
I’ve been very pleased with the Portable Zero side rails and bail that came with my first Yaesu FT-817ND.
Using a dual FT-817ND system in the field, though, I’ll require either a bag to hold them, or a dual side rail system.
Turns out, Portable Zero makes side rails that hold and space two FT-817/818s perfectly. I gulped a bit when I saw the price, though.
Still: they obviously make a great product and, for me, it’s an elegant solution. Before I bite the bullet, though, I might investigate homebrewing something or see if there are other options.
In fact, if you’ve seen other solutions–or have owned the Dual Escort yourself–please comment!
The bag would allow me to house both transceivers, a battery, cables, digital recorder and basically everything I’d need to operate full duplex portable in the field.
Another advantage of using the bag would be that I wouldn’t need to remove the side rails I already have on each FT-817ND (assuming the camera bag could accommodate them). In addition, the bag might make for less dangling cables as I operate.
The fact that numerous satellite gurus like Sean (KX9X) use this same bag is a pretty strong recommendation.
Arrow heading my way
On the advice of Eric, and numerous other portable satellite ops, I ordered an Arrow 146/437-10BP Satellite Antenna.
I assume I’ll use the the BNC connectors on the front of the radio rather than the SO-239 connectors on the back.
The FT-817ND I purchased last year came with a 2kHz Inrad SSB filter. I replaced it with a 500 Hz Collins filter I purchased from Steve (WG0AT)–thanks, Steve!
I opened the new FT-817ND yesterday morning and installed the SSB filter. It sounds great.
If I chased you in POTA or SOTA yesterday, and you logged me, it was with the new FT-817ND running 2.5 watts off of the included NiMH battery pack.
I gave the FT-817ND a thorough work-out and it seems everything functions as it should.
Any other dual FT-817/818 owners out there?
If you have any advice about mounting or packing dual FT-817/818s, I’m all ears. Also, if you use the FT-817/818 with an Arrow antenna, I’m curious what you use in terms of cable assemblies.
I’m a complete newbie to the world of amateur satellites, so any tips or hints are most welcome.
This weekend, I’m going to the first hamfest I’ve attended in 19 months. Let’s hope I can resist other impulse purchases! For what it’s worth, I’ve zero buyer’s remorse about this purchase!
In 2020, I easily spent a total of 100 hours outdoors with my radios activating a total of 82 sites for the Parks On The Air (POTA) program alone. This doesn’t include hours and hours of SWLing (shortwave radio listening). It’s been great.
Taking radios into the field is so much easier to do today than it was in, say, 1985 or earlier, because we have so many more options for powering our gear in the field. Not only have radios become more efficient in operating off of battery power, but we now have so many affordable and lightweight rechargeable battery choices on the market.
In the following article, let’s take a look at some portable battery power options for your radio gear. By “portable,” I’m talking power options for those of us who load a backpack or carry case and head to the field.
To keep the scope of this article in check, I’m also going to focus only on rechargeable battery options. And rather than get bogged down in the nuances of battery chemistries, we’ll focus on the end result––the pros and cons of each battery type, and how practical they might be for your field application.
In addition, I’ll also limit discussion to batteries that can be purchased of-the-shelf rather than addressing homebrew options. While I love building things, I’m very cautious when dealing with battery charging because if not done correctly, the results can be dangerous. I prefer obtaining products from trusted suppliers who thoroughly engineer and test their equipment.
Let’s take a look at several types of batteries, and speak to their advantages…as well as disadvantages. Then––as we summarize our findings––let’s discuss how to choose the right option for your needs.
Consumer-grade rechargeable batteries
Let’s begin by talking about the lowest-hanging fruit in terms of portable power: everyday rechargeables in the form of 9V, AA, AAA, C, and D cells.
While, admittedly, these batteries are not typically an option because of their limited capacity and energy density, they can still be a very practical power source for portable receivers and even a few QRP transceivers.
Rechargeable battery chemistries have improved with time, thus I no longer purchase nickel-cadmium (Ni-Cd or NiCad) or legacy nickel metal hydride (NiMH or Ni–MH) batteries.
These days I almost exclusively purchase low-self-discharge nickel metal hydride (LSD NiMH) batteries, specifically, Panasonic Eneloop batteries (Amazon affiliate link). Although they’re a pricey option compared with generic NiMH batteries, and might even be overkill for certain applications, I do love the shelf life of Eneloops.
Of course, the benefit here is Eneloops have that low self-discharge. They will maintain charge better at rest (i.e., when not in use) than legacy NiMH or NiCad batteries. From my real-word usage, I’m convinced that Eneloops also demonstrate better longevity over numerous charge/discharge cycles than many others.
All of my portable shortwave receivers that accept AA or AAA batteries are powered by Eneloops exclusively.
And although I’ve never done this myself, it is also possible to power highly-efficient QRP transceivers with Eneloop batteries, so long as you use a multiple battery holder to increase voltage and capacity to match both your rig and your desired amount of operating time.
Keep in mind, though, that most transceivers will require a block of at least ten AA batteries to reach a voltage around 12 VDC. As you might imagine, it can be cumbersome after using your radio in the field to remove all ten of these batteries and charge them in a charger that can only hold, say, four batteries at a time. I personally prefer other options, but this one is certainly a fairly affordable, safe, and accessible option.
Note that in recent years, Panasonic started offering Eneloop Pros: while pricier than standard Eneloop batteries, they offer slightly higher capacity at the expense of overall longevity (roughly 500 versus 2100 total charge/discharge cycles). Since the voltage is the same, I’ve never felt the need to use higher-capacity Eneloop Pros.
Rechargeable Panasonic Eneloop AA batteries (non-Pro version):
Price: $2.25 – $4 US per battery, depending on the number in the package
Weight: 4 grams/.4 ounces per cell
Voltage: 1.2 V each
Longevity: Excellent, up to 2100 charge/discharge cycles
Ease of recharging: Simple via Eneloop OEM chargers
Solar- charging option: Eneloop originally marketed solar chargers, but doesn’t seem to do so presently
Sealed Lead Acid (SLA) Batteries
When I first became a licensed ham radio operator in the late 1990s, sealed lead acid batteries were the primary battery power source used for field radio operation.
At the time, these batteries were one of the best options for portable radio use because they could be purchased in a variety of sizes (based on amp hour capacity), and unlike flooded lead acid batteries, they required no maintenance––and being sealed, did not outgas.
While I’ve owned everything from 3 Ah to 15 Ah SLA batteries, I found the once-ubiquitous 7-8 Ah size to be the “sweet spot” in terms of portability and capacity.
SLA batteries are still among the most accessible high-capacity batteries on the planet. No matter where you travel, it’s likely you’ll be able to hunt them down in any hardware or electronics store. Our small local hardware store has a wide selection of these at their battery kiosk.
What are some of the pros of these batteries? In terms of “bang for buck,” the SLA is still hard to beat. You can purchase a quality 7.2 Ah 12-volt SLA battery for about $18-20 US (affiliate link). This would be more than enough battery to power a typical QRP transceiver for many hours on end. Chargers are also inexpensive––you can purchase a dedicated charger for about $10-15 US. Not bad.
In addition, 12-volt batteries are nearly ideal for amateur radio use since most transceivers are designed to operate with 12-13.8 volts DC +/- a modest margin.
There are some negatives compared with more modern battery chemistries, however. For one, SLA batteries are much heavier than the batteries we’ll discuss in the following sections. After all, they’re (still) made of lead! In addition, the battery’s longevity will be negatively impacted if you discharge it too deeply.
With that said, if you take care of an SLA battery, it can give you five or more years of service life in the field, yielding an excellent value for the modest investment. If you have an application that requires relatively little capacity from the battery, you might get a very long service life, indeed. In 2011, I built a remote antenna tuner box around an LDG Z11 Pro ATU and a discarded 7Ah 12V SLA battery. At the time, this battery could no longer hold voltage long enough to be reliable in the field, but I knew the Z11 Pro requires very little in the way of power, so I thought I’d try it as a power source anyway. Since the remote ATU box isn’t near an outlet, I charge the SLA battery with a 5-watt solar panel I purchased used at a hamfest with a Micro M+ charge controller. A decade has now passed, and that SLA battery continues to power the Z11 Pro even through seasonal temperature variances of -10F/-23C to 90F/32C. Not bad! Again, keep in mind this application works because the Z11 Pro is so flexible in terms of power requirements––it’ll operate on 6-16 volts DC at 300 mA with a 20 uA standby current.
Clearly, SLA batteries are affordable candidates for back-up power in the shack during occasional power outages.
Price: Most affordable option per Ah of the batteries listed here
Weight: By far, the heaviest of all the battery options in this article
Voltage: Various, but 12VDC is very common
Longevity: Very good if properly maintained
Ease of recharging: Easy, via simple charge controllers
Solar charging option: Multiple types of charge controllers can be used with SLA batteries; among the listed batteries, the easiest and least expensive to charge via solar
Without a doubt, lithium-ion batteries have revolutionized the consumer electronics world.
Why are they so popular?
First of all, their construction allows for a variety of form factors ranging from cylindrical cells to slim packs and pouches so thin they can fit in an ultra-thin mobile phone, eReader, or tablet. They’re the easiest type of battery to accommodate in compact consumer electronics, and indeed, they power most of the consumer electronics we’ve put to use in the last decade.
Secondly, they have a very high energy density, thus pack a lot of capacity for the size and weight. Indeed, if size and weight are your primary requirements, li-ion batteries should be high on your list.
In addition, Li-ion batteries are ubiquitous and affordable because they’re used in so very many applications.
There are negatives, though, with these power sources. First and foremost, they’re very sensitive to over-voltage and over-current events that initiate a thermal runaway. To prove this point, I’ll share some first-hand experience from the early days of large lithium-ion packs…
Li-ion Horror Story
In 2011, I evaluated a lithium-ion battery pack with integrated 5V USB chargers and even a simple one-outlet inverter from one of the big names in portable power systems. At the time, this was a new battery pack and a relatively new technology, at least in terms of the energy density and compact size. After receiving the battery, I charged and discharged it perhaps twice during testing. I had a flight scheduled from North Carolina to California, and decided I’d take it in my carry-on bag to power my laptop in flight. It worked fine on the flight to KSFO. Once there, I recharged it. On my return flight, it simply didn’t work. I thought perhaps I hadn’t plugged it in properly, or that the hotel outlet I used didn’t work. Upon arrival I emptied my travel pack onto the bed and plugged in the battery pack; it indicated it was taking a charge.
After doing a few projects around the house, I went back up to the bedroom and was greeted with an overpowering smell––almost like the pungent chemical odor of nail polish remover. I looked everywhere for the source of the odd smell. Finally, I located it: it seemed to be coming from the battery pack. Upon examination, I could tell the battery had begun to swell. As I lifted it up, I noticed that the bottom portion was essentially in a state of melting. As quickly as I could, I unplugged it and removed it from the room. I then discovered that in the thermal runaway process, it had begun burning through the sheets and mattress of the bed. Shocked, I suddenly realized it could have burned down my home.
Keep in mind, I was completely new to this battery technology, and this was years before thermal runaways made the news and airlines began restricting their transport. To my relief, the company from which I purchased the pack ended up pulling that model off the market, and even reimbursed me for the mattress and bedding. But it was a hard lesson learned.
If I’m being perfectly honest, this lesson had a major impact on my willingness to experiment with Li-ion battery packs.
The problem with the model of pack I had purchased was not the battery chemistry or construction, per se, but the charge controller). The fact is, Li-ion batteries require millivolt accuracy and a number of protections to detect and stop thermal runaway. Battery packs with multiple cells need a battery management system (BMS) that also balances the cells and monitors them closely. Fortunately, most manufacturers of the technology now understand this.
Modern Li-ion cells and chargers are much safer and more stable
Since then, Li-ion battery chargers have become both orders of magnitude safer and more effective. Still, I only charge these batteries on a surface which, should the battery be tempted to melt down, would be less likely to be damaged or serve as a fire hazard. I also never leave them unattended during charging.
With that said, I don’t think Li-ion batteries are to be feared. Obviously, many of us walk around with one tucked in our pocket all day––in our smartphones! They’re generally considered very safe now. Of course, I’d only buy the best and would steer away from the lowest-costs units you might find on eBay and Aliexpress, as many of these products are made in places with little oversight or regulation.
Another interesting fact about Li-ion battery packs is that since their voltages are usually available in multiples of approximately 3.6 volts (e.g., 3.6, 7.2, 10.8, 14.4 and 18 volts), they are not always ideally suited for radios that require 13.8V input power. Some packs, however, have circuitry that provides an output voltage closer to your desired amount.
One Lithium-ion battery pack I’ve been using with my Mountain Topper MTR-3B, Elecraft KX2 and KX3 transceivers is a (very affordable) TalentCell rechargeable 3000 mAh Li-ion battery pack that provides both 12V and 5V USB power. It has built-in charging circuitry and is very compact. I purchased mine for about $25 on Amazon.com, and have been very pleased with it so far.
Summits On The Air operators often place priority on smaller-sized and lighter-weight power sources, and thus turn to Li-ion battery packs. Many SOTA friends have invested in high-quality balance charger/dischargers to maximize the life of their batteries, and have been happy with the performance they receive. A quality charger may costs upwards of $60, but is worth the investment if you choose Li-ion batteries as your portable power of choice.
Price: From affordable to pricey, depending on capacity and charger investment
Weight: The lightest weight portable battery options in this list
Voltage: Often in multiples of approximately 3.6 volts: (3.6, 7.2, 10.8, 14.4 and 18VDC)
Longevity: Good. Typically around 400-500 charge cycles if properly maintained
Ease of recharging: Simple, if a self-contained pack; more complex, if using multiple cells that need balancing
Solar charging option: Not advised (yet). There are a number of homebrew Li-ion solar charging projects on the web, but I believe this battery chemistry fares better with a balance charger connected to a stable AC power supply.
Lithium Iron Phosphate (LiFePo4/LFP)
The final type of battery chemistry we’ll cover here is my favorite of the bunch.
There are good reasons why Lithium Iron Phosphate batteries have become one of the choice rechargeable batteries for field radio use.
LiFePo batteries are inherently stable and safe
They offer a longer cycle life than that of other Li-ion, NiMH, NiCad, or Lead Acid batteries–thousands of charge cycles as opposed to hundreds
LiFePO batteries have an excellent constant discharge voltage
LiFePo batteries use phosphates––as opposed to cobalt or nickel, which are supply-constrained and carry heavier environmental concerns
LiFePo batteries have a lower self-discharge
LiFePo batteries are very lightweight compared to SLA batteries
3.2 V nominal output voltage means that four cells can be placed in series for a nominal voltage of 12.8 V, near ideal for most field radio gear
Any cons? Yes…while they’re lightweight, LiFePo4 batteries aren’t as compact as Li-ion battery packs. But the primary negative here is the price. At time of print, LiFePo4 batteries have the highest cost per Amp hour of the batteries discussed in this article. With that said, due to the excellent longevity of these batteries, the LiFePo may be the most cost effective option in the long term.
LiFePo4 battery systems sport built-in battery protection modules to address concerns like over-voltage and balancing.
How do LiFePo batteries stack up?
Price: One of the pricier options, when you include the battery and charger
Weight: Very light weight, but size tends to be larger than comparable Li-ion packs
Voltage: Excellent match for gear requiring 12V – 13.8 VDC
Longevity: Excellent. Thousands of charge/discharge cycles
Ease of recharging: Simple, using the provided charger (battery packs have a built-in charge controller)
Solar charging option: Bioenno sells charge controllers designed to work with LiFePo batteries, handy for the field
Without a doubt, the best-known LiFePo battery manufacturer in the world of ham radio is Bioenno Power. I’ve purchased their batteries exclusively and have been incredibly pleased with the quality, longevity, and performance of their products.
Choosing the right battery for you
Each one of these battery types have their pros and cons, and you can find lengthy, in-depth discussions online about the nuances of each battery chemistry. At the end of the day, however, what matters is which one best suits your particular application and provides your gear with the appropriate amount of voltage.
Here’s when I would reach for each of our types of batteries…
NiMH LSD AA batteries
If you’re willing to use a battery pack to run 8-12 cells in series to achieve your required nominal output voltage, Eneloop batteries are relatively affordable, lightweight, and of course, power an array of electronic devices in our world.
Of course, AA Eneloop batteries are also invaluable for those of us who have an arsenal of portable shortwave radios that accept AA cells!
Sealed Lead Acid Batteries
If you’re on a very tight budget and weight is less of a concern, SLA batteries are a great choice. They’re an especially affordable option if you plan to make a solar-powered battery pack since charge controllers are quite simple and affordable.
If you’re looking for a stationary back-up battery for home, these are an excellent choice, as long as you keep the charge topped up.
Backpacking or flying overseas, and size and weight really do matter? Purchase a Li-ion battery system. Li-ion cells and packs offer the highest energy density of any of the battery chemistries in this list. They’re incredibly compact––and as long as you use a quality charge controller with built-in protections, and you don’t damage or puncture an actual Li-ion pack––they should be quite safe, and you’ll be pleased with performance. Note: Keep in mind some airlines have regulations about the size of Li-ion battery pack you’ll be allowed to carry on board, so do check before departure.
If you’re looking for a simple, effective portable battery solution that is almost custom-designed to power radio gear, invest in a LiFePo4 battery and charger. I have everything from a 15 Ah 12V LiFePo4 battery that can power my 50 watt Mission RGO One transceiver, to a 3 Ah 12V pack I now use for 2-3 hours in the field at a time with my QRP transceivers. Bioenno has recently sent me a 9 V 3 Ah battery pack to test with my Mountain Topper MTR-3B––it’s incredibly compact, since it only needs three 3.2V cells in series. LiFePo batteries are also the ones I suggest for those who are new to the world of battery packs and want something that is hassle-free and simply performs.
I admit, I’m being transparent here about why I own a total of three LiFePo4 batteries from Bioenno Energy––they’re amazing and I know I can rely on them.
…I would offer this final piece of battery-usage advice: whatever you do, don’t “cheap out” on your battery and charging system. No matter what chemistry you decide to purchase, buy the best quality you can afford. If using any variant of a Li-ion battery, heed my tale, and be sure any separate charge controllers you employ will protect your battery (and your home)!
And now…Go out there and have fun. I assure you: when you take your radios––whether portable shortwave radios or ham radio transceivers––to the field, you’ll find you can escape all of the noises that so often plague us indoors. And out there, you, too, may find your radio bliss.
Many thanks to Don (W7SSB) who shares the following news from Chameleon Antenna:
WE’RE MOVING TO A NEW LOCATION!!
In August 2021, we will be at our NEW location, South of the airport in Sparks Nevada! The NEW location will be TWICE the size of the current one which will allow us to hire more people, increase production & inventory thus allowing us to ship faster!
To quote the W4C association manager Pat, KI4SVM, “Anderson is a drive-up with no other redeeming qualities.” This perfectly describes the mountain. It is easy to get to, at the top of Tower Road, right off of Route 16. The road to the top get a bit rough in places, but is passable in any car.
He had me at “no other redeeming qualities”–!
I must admit that all of the summits I’ve activated so far have been pretty amazing: offering up spectacular views, wildlife, and wonderful hiking opportunities. All of them were also on protected public lands like state/national/county parks.
Anderson Mountain (W4C/WP-012)
Earlier this year, I made a spreadsheet of summits I planned to activate. Anderson Mountain was one of them because of its convenient location in my travels to visit family each week. I had also been saving it for the day that I planned to activate a nearby park–Tuesday, July 6, 2021 was that day!
The mountain is directly off of US 16–the main highway between Newton/Conover and Charlotte.
You turn off of the highway onto a dead end road that leads to the summit. About halfway up, it turns into a single lane privately-maintained road that, as AA6XA noted above, is rough but passable in any car (well, save a Lamborghini but I’m guessing most SOTA ops don’t own one of those!).
The road to the summit is a straight–there’re no confusing forks in the road and it’s impossible to get lost.
Once on top, you’re greeted by a few clusters of communications towers. This is actually pretty common sight with smaller one point summits because they typically have superb line-of-sight to populated areas and are easily accessible by vehicle.
When you look around, you can understand why Pat would say it has no redeeming qualities: towers, rusty transmitter buildings, razor wire on chain link fences, and litter all over the place.
Not the sort of spot that would inspire Ansel Adams.
It’s worth noting here that, unlike POTA, you’re not allowed to operate from a vehicle during a SOTA activation–even at a “drive-up” summit. There’s no such thing as a mobile SOTA activation.
Indeed, you’re not supposed to operate in “the vicinity” of your vehicle either (although, there’s no distance noted and I’m guessing this is on purpose to allow leeway and the op to make a judgement call).
I set up in a little island of trees in the middle of a road loop on the summit. While I wouldn’t call it a hike, I did walk the entire summit after arriving to check for other operating spots, but decided to set up near where I parked the car. In fact, it’s really the only safe spot I noted in the activation zone to park since the road is single lane and you would otherwise block access to one of the transmitter sites. I thought about parking further down the road next to one of the transmitter fences, but I felt like that would have been on private property.
Side note: SOTA forbids operators from trespassing on private property without the owner’s permission. I checked the road very carefully for “no trespassing” signs, but the only ones I found were to keep people out of and away from the fenced-in transmitter sites.
I also thought about trying to operate in a spot on that little island where I couldn’t see my car as easily in the cluster of trees–to remove myself from the “vicinity” of the car–but that would have been awkward, too and only separated me an additional 10-15 meters or so. I chose the option where others could see me and I could see them if, for example, a Duke Energy service vehicle approached.
I was fully outside of my car, though, and not using it to support my antenna or any equipment–another important factor.
Sometimes as an operator you have to make a judgement call when you arrive at a site to stay within the rules and the spirit of the program. I’ve never had a SOTA or POTA activation where I felt I was splitting hairs until this one. I decided that this was the best scenario to activate Anderson Mountain in a way that wouldn’t inconvenience other property owners, nor cause suspicion that might lead to a future no trespassing sign on the road. It was the safest set up and I’m willing to bet most previous activators did exactly the same thing. I felt it was within the spirit of the program.
Since I used the speaker wire antenna at Mountain Island, I used it on Anderson Mountain as well. I deployed the entire station within 5 minutes max: herein lies the advantage of using an arborist throw line, a shack-in-a-box transceiver like the KX2, and a simple wire antenna.
I first hopped on 20 meters CW, spotted myself to the SOTA network (mobile phone reception was superb, by the way) and started calling CQ SOTA.
Within three minutes I logged K6YK, KT5X, W5GDW, and K0LAF which already validated this SOTA activation.
Wow–validating this activation was, as my daughters used to say, “easy peasy lemon squeezy.” 🙂
I added WB6POT and N0RZ for a total of six stations on 20 meters within five minutes.
I then moved to 40 meters SSB and worked K8RAT, W4NA, and WN4AT all within about three minutes.
Finally, I moved up to the 17 meter band and worked F4WBN (our well-known French SOTA chaser) and K2LT.
Packing up my gear was as quick as setting it up.
I did make one of my real-time, real-life videos of the entire Anderson Mountain activation with no edits. If you need a cure for insomnia, I encourage you to watch or listen to it:
At least one redeeming quality…
I mention in the video that some readers and subscribers have confessed that they feel SOTA is less accessible to them than POTA or WWFF. I would have to agree that summit activations are much less accessible than park activations.
For one thing, there are flat regions on our planet that lack prominences that qualify for the SOTA program. If you live in the middle of a prairie state, you may have to drive a great distance to reach the closest qualifying summit (although you might have a number of POTA and WWFF parks nearby).
In addition, summit activating generally involves hiking–which is actually the motivating factor for many of us (certainly for me as I love hiking).
Some would-be SOTA activators have mobility issues, however, and simply can’t hike great distances with gear on their backs.
This is where “drive-up” summits like Anderson Mountain come in: they’re much more accessible for those with health considerations.
If you live in an area with SOTA summits, but haven’t attempted an activation because you can’t do strenuous hikes, connect with local SOTA activators and ask for a list of “drive-up” summits. There are many of these around–some, like Anderson, are accessible because there are radio towers on top, other are accessible because they’re on a park with accessible vistas, or some are even in a mountaintop neighborhood.
I’d like to thank all of you for reading this field report and I’d especially like to thank those of you who contribute to QRPer.com via Patreon and our Coffee Fund. While my content will always be free and QRPer is very much a labor of love, your support helps me purchase gear and supports my radio travels. With that said, if you’re saving up for your first radio or need to invest in your own kit, I’d rather you support yourself!
My goal with QRPer is to champion field radio operations and encourage others to discover the benefits of playing radio outdoors!