For a new ham getting into the hobby of ham radio, the number of radios on the market (and their prices!) can be quite overwhelming. What radios can give you a good amount of features for a fair price, and get you on the air without getting you into debt?
I asked some other hams for their recommendations for radios for new hams, and these radios were popular choices.
Budget Technician (<$200): HT/mobile recommendations for a new tech licensee just getting into the hobby.
- Baofeng UV-5R+Plus (Amazon): Updated variant of the Baofeng UV-5R, recommended over the original. Dual-band (2m/70cm), extended RX/TX (136-174/400-520MHz), 4W, dual-watch, FCC Part 90. Can be programmed with Chirp or RT Systems BAO-5R. (The MicroCenter location near Philadelphia stocks these locally, though they’re not listed on the website.)
- Yaesu FT-60R (HRO, Amazon, GigaParts, AES): Dual-band (2m/70cm), extended RX (108-520/700-999MHz), 5W, FCC Part 15. Can be programmed with Chirp or RT Systems ADMS-1J.
- Leixen VV-898 (Amazon): Dual-band, extended TX/RX (136-174MHz/400-470MHz); FM Radio; FCC Part 90; 10W; Can be programmed with Chirp.
- BTECH Mini UV-2501 (Amazon): Dual-band, extended TX/RX (136-174MHz/400-520MHz); 25W; Download programming software here.
- BTECH Mobile UV-5001 (Amazon): Dual-band, extended TX/RX (136-174MHz/400-520MHz); 50W; Download programming software here.
Full-featured Technician ($200-$400): HT/Mobile/Base recommendation for someone willing to spend a little more.
- Yaesu FT-1D (HRO, GigaParts): Dual band TX (2m/70cm) with multiple band RX (0.5-774/803-999MHz), 5W, System Fusion Digital Voice (C4FM), GPS, APRS (w/messaging), waterproof (IPX5), FCC Part 15, Dual-receive, FM radio, FCC Part 15, pre-programmed with shortwave, weather, and marine frequencies. Can be programmed with Chirp or RT Systems ADMS-FT1D.
Budget HF (<$750):HF recommendation for a General class licensee wanting to get on HF without dropping a lot of cash.
- Icom IC-718 (Associated Radio, GigaParts, AES): TX (160/80/40/30/20/17/15/12/10 meters); Extended RX (0.3-29.999999MHz); Multi-Mode (USB, LSB, CW, RTTY, AM); 100W (SSB/CW/RTTY)/40W (AM); DSP; CI-V rig control port; optional voice synthesizer unit
Full-featured HF: (<$1500): Something full of features for a General/Extra class licensee, but still at a reasonable cost.
- Yaesu FT-857D (HRO, GigaParts, AES): Multi-mode (AM/FM/USB/LSB/CW/Digital), Multi-band (160m-70cm), 100W (HF)/50W (VHF)/ 20W (UHF), extended RX (0.1-56/76-108/118-164/420-470MHz), data port, detachable face, built-in DSP for bandpass/notch/noise reduction filtering, CAT rig control port. Can be paired with the ATAS-120A antenna (HRO, GigaParts) for one-touch tuning from 40m-70cm. Can be programmed with Chirp or RT Systems ADMS-4B.
- Yaesu FT450D (Amazon): Multi-mode (AM/FM/USB/LSB/CW), wide RX (30kHz-54MHz), TX (6-160M), DSP, built-in tuner, 100W
For radios that can be programmed with Chirp, here is the link.
If you have a radio you would like listed here, please contact me and include a link to a website that currently sells the radio so I can get pricing, specs, and link to it.
Some truth and misconceptions about out-of-band Emergency Communications during emergency situations:
Amateur Radio operations do have the equipment, and often the knowledge, to assist in providing emergency communication within the band frequencies that they are licensed to operate on. However, there is a huge misconception about out-of-band operation.
According to the FCC, “§97.403 Safety of life and protection of property. No provision of these rules prevents the use by an amateur station of any means of radiocommunication at its disposal to provide essential communication needs in connection with the immediate safety of human life and immediate protection of property when normal communication systems are not available.” and “§97.405 Station in distress. (a) No provision of these rules prevents the use by an amateur station in distress of any means at its disposal to attract attention, make known its condition and location, and obtain assistance. (b) No provision of these rules prevents the use by a station, in the exceptional circumstances described in paragraph (a), of any means of radiocommunications at its disposal to assist a station in distress.”
The above rules are in place so that in the event of a distress situation, an Amateur Radio operator (or anyone for that matter), may transmit on any frequency and using any mode, any communication or call for help, and anyone may respond to those calls.
Many people interpret these rules as stating that no enforcement action can be taken against someone transmitting on local police, fire, dispatch, or other commercial or military emergency frequencies in order to transmit or respond to a distress call. This is not correct. While the FCC may not take an enforcement action against you, local governments, municipalities, or businesses may choose whether or not to take enforcement action against you based on the situation. You are, after all, interfering with their licensed operations, and you may be interrupting a call for another, more serious situation.
In some situations, Amateur Radio operators have legitimately called for, and responded to, calls for help. And there have been rare situations where out-of-band transmission was justified and used. But these situations are rare indeed.
However, do not expect to use “it was an emergency” as a wildcard to transmit out-of-band whenever you want. Use discretion, common sense, and take advantage of other methods of communication first, if available. If the situation warrants, and other forms of communication are not available, then out-of-band transmission may be justified.
Situations which warrant out-of-band transmissions are extremely rare. Some people choose to modify and program radios for out-of-band operation as if it would be a regular occurrence. While having the capability to to transmit out-of-band will prepare you for such an emergency, the odds of being able to justify such operation is remote. That’s not to say not to prepare, that’s just to say don’t expect you will ever make justifiable use of it.
Here is a comparison chart:
|Bands available||1 (462/467 MHz)||1 (462/467 MHz)||1 (29 MHz)||(see note 1)||1 (151 MHz)|
|Simplex channels||14 (see note 2)||22 (see note 2)||40||(see note 3)||5 (See note 7)|
|Maximum power (PEP)||0.5 watts||50 watts (5 watts on channels shared with FRS)||12 watts||1,500 watts||2 watts|
|Modes?||FM||FM||AM, SSB||AM, FM, SSB, CW, digital, VoIP, TV||AM, FM|
|FCC Rule Part||Part 95(B)||Part 95(A)||Part 95(D)||Part 97||Part 95(J)|
|Radio Certification Required?||Yes||Yes (see note 4)||Yes||No (see note 5)||Yes|
|License required?||No (See note 6)||Yes||No (See note 6)||Yes||No (See note 6)|
|Who is covered by license?||N/A||Yourself, your spouse, your family||N/A||Yourself only||N/A|
|Exam required for license?||N/A||No||N/A||Yes||N/A|
|More info:||FRS||GMRS||CB||Amateur Radio||MURS|
- Bands vary based on your license class. At least 8 bands (28 / 50 / 144 / 222 / 420 / 902 / 1240 / 2300 MHz and up) are available with a technician class license. See the ARRL frequency chart for details. This does not include technician CW-only or SSB-only frequency ranges, nor the HF band frequencies available to upgraded General or Extra class licenses.
- Certain simplex channels are shared between FRS and GMRS, with power restrictions.
- Ham radio is not channelized, but there are (roughly) 72 available non-overlapping FM simplex frequencies among the 28 / 50 / 144 / 222 / 420 / 902 / 1240 / 2300 MHz bands available to use with a technician class license. This number does not include FM repeater frequencies, nor the HF band frequencies available to upgraded General or Extra class licenses. See the ARRL band plan for details.
- The FCC has allowed radios having Part 90 certification to operate on GMRS as long as they meet the technical emission standards.
- Part 15 or Part 90 radios are required if receiving outside of the ham bands. Any radio can be legally modified to operate within the ham bands. Homebrew equipment is allowed.
- These services are “license by rule”, meaning that as long as you follow the rules, you are “licensed” to use the service. If you break the rules, you lose your license to use the service. No formal licensing is required.
- MURS channels 4 and 5 have been previously allocated to businesses, and may still be used on a grandfathered basis. Where there is a business using either of those 2 channels, they are the primary user and you may be limited to using the other channels.
As WordPress tends to mangle code that I post, I’ve started moving it to GitHub. As I move code to GitHub, I will replace the code within the article to a link to the code on GitHub.
You can find my GitHub here.
This article will walk you through installing GIMP on OS X with an ELA (Error Level Analysis) plugin to detect editing.
To learn more about reading ELA results, read this:
First, download GIMP from here: https://www.gimp.org/downloads/
Next, grab elsamuko-error-level-analysis.scm from the bottom of this page: https://sites.google.com/site/elsamuko/forensics/ela – Save it for later.
After downloading this .scm file, open it in your favorite text editor and locate the following line:
SF-STRING "Temporary File Name" "error-level-analysis-tmp.jpg"
Change it to the following:
SF-STRING "Temporary File Name" "/tmp/error-level-analysis-tmp.jpg"
And save the file. This fixes an issue with images not being able to be processed as the default location is not writable by GIMP.
Now double-click the GIMP .dmg file you downloaded, and copy GIMP to your Applications folder as shown:
Once you have it copied over, you will want to open the package contents by alt-clicking and selecting “Show Package Contents“.
From here, navigate to Contents > Resources > share > gimp > 2.0 > scripts and drop in the elsamuko-error-level-analysis.scm file you download earlier.
Now, run GIMP. Because of security-related things and stuff, the first time you run you will have to alt-click on GIMP and select Open. After doing this for the first time, you won’t have to do it again.
GIMP will appear to freeze for about 5 minutes while it builds its initial caches. This will cause GIMP to appear unresponsive. Do not force-kill it during this time, simply be patient until it opens.
Now, you can perform ELA on an image by opening it, and selecting Image > Error Level Analysis from the menu.
Once you’ve done that, running it against an image will produce an ELA mask as an additional layer, which you can use to analyze an image.
You can toggle the ELA layer visibility by clicking the eye shown in the following screenshot.
(Sample image from http://fotoforensics.com/tutorial-ela.php, retrieved April 11th, 2016)
If you wish to change the Piwik delimiters to break away from any treeing of your pages on the action and titles reports, you can use the method described on http://piwik.org/faq/how-to/faq_62/, but that method doesn’t describe both of the delimiter tags you may wish to apply.
There are two delimiter settings that you may wish to change, which get added to your config.ini.php file under [General]
action_title_category_delimiter = "::" action_url_category_delimiter = "::"
I read several articles on how to install the Munin monitoring tool for Linux, and they all seem to over-complicate the install, or end up with an install that doesn’t work.
This article will walk you through installing Munin for a local monitor/node setup on Debian 8 64-bit. Tweak it to your liking. This also assumes that you are running as root. Prefix commands with sudo where appropriate.
Start by making sure your system is up to date:
apt-get update apt-get upgrade
Next, install apache, munin, munin-node, munin-plugins-extra and dependencies.
apt-get install apache2 apache2-utils libcgi-fast-perl libapache2-mod-fcgid munin munin-node munin-plugins-extra
Now, edit the munin config file /etc/munin/apache24.conf
Change the <Directory /var/cache/munin/www> section as follows:
... Require all granted Options FollowSymLinks SymLinksIfOwnerMatch ...
Do the same with the <Location /munin-cgi/munin-cgi-graph> section, adding the Options line if it’s not preset.
Now restart both apache and munin-node.
/etc/init.d/apache2 restart /etc/init.d/munin-node restart
You can now view munin data at http://<server IP>/munin
A while back I wrote a post called “Why FCC tested transceivers should matter to Ham Radio operators.” As part of this post, I drew attention to testing performed by the ARRL on used ham radio transceivers. One of the highlights of this article was that the Baofeng HTs performed exceptionally poorly due to a high level of spurious emissions.
However, I recently stumbled onto an article on PD0AC’s Ham Radio blog called “Baofeng UV-5R Spectrum Analysis Revisited,” in which Hans (the author) looked into comments about the UV-5R’s suspected spurious emissions. I quote:
“But wait, we did this(link) already … and the UV-5R wasn’t too bad at all. All of his bothered me enough to pick up a few of my own UV-5R’s and repeat the measurements… The only way I could replicate his [failing] results was by reducing external attenuation to such a low level that the linearity of the spectrum analyzer was compromised”
In his initial testing, Hans and Tom (PA2TSL) used a 30 dB attenuator for the spectrum testing.
So I went back to the original QST article (November 2015, page 74) and re-read it. It’s important to note that the following quote appears under the test results table on page 75:
“Specific makes and models in which the majority of the units tested were noncompliant: Baofeng, UV5R, UV5R+…”
I found the following description of their test equipment and setup:
“Our convention tests measured … using a test fixture consisting of a Bird Model 43 RF Power Meter, a Bird Model 8322 30 dB power attenuator, a Hewlett-Packard HP355C 0 to 12 dB step attenuator, and a Rigol DSA-815TG spectrum analyzer. … First, the power output … was measured using the Bird Model 43 meter. … Next, with the radio push-to-talk (PTT) button pressed and held, the Rigol DSA-815TG spectrum analyzer was used to perform a sweep…”
So, I went to the FCC’s testing setup. They’re the ones who initially gave the UV-5R a pass, so let’s see what they used to do it. Starting on page 37 of the FCC’s published test results, you can read for yourself the detailed setup and testing of the transceiver, including the directly-connected spectrum analyzer test. Note that they specifically show that the signal from the radio passes through an attenuator (if I’m reading the report correctly, the attenuation is 13 dB).
On page 76, of the QST article, Figure 3 shows a borderline result of a tested UV-5R. The attenuation displayed on the display of this figure shows an attenuation of 10 dB, below either of the previous two test setups.
Let me say that I appreciate what the ARRL does, and I don’t believe for a minute that they are unfamiliar with their equipment, but testing at the informal environment of a convention could lead to simple mistakes in the test setup. I would have really liked to see a clear spelling out of what level of attenuation, if any, was between the equipment and the spectrum analyzer. It’s also important to note that the ARRL clearly mentions in their article that this testing was performed on used equipment, not newly-manufactured units specifically submitted for testing. In light of the two previous articles I mentioned above, and the lack of clearly-mentioned attenuation between the radio and spectrum analyzer, I have to say that, in my opinion, the ARRL’s testing is inconclusive.
Your comments are welcome below. Thank you for reading.
If you have purchased a cheap programming cable for your radio from Amazon, eBay, or another dealer, you’ve probably run into an issue where the cable initially won’t work, and someone (perhaps the vendor) told you that you have to use an older driver to get it to work. What you have is a cable that uses a counterfeit chipset. The Prolific chips seem to be the most problematic, while FTDI chipsets work very well. This page on miklor.com offers some background information on this subject.
The Miklor Cables & Drivers page talks about this and offers the older Prolific drivers that work well with cables that feature those counterfeit Prolific chipsets. You will run into one of two problems while dealing with them, however.
Under Windows 8 and previous Windows versions, Windows will offer the newer, non-working driver through Windows update. It is sufficient to go in and block the update, as described here, but you may have to do that each time you plug the cable in to a different USB port.
Under Windows 10, it’s a whole different situation. Windows 10 will install all updates offered through Windows Update, and you have the option to defer upgrades, but not to block individual updates. Windows 10 will continue to install the updated driver, which will continue to cause your counterfeit chipset cable to stop functioning.
So, if you’re using the counterfeit chipset cable under Windows 10, do yourself a favor and get a genuine programming cable. You’ll save yourself a lot of headaches and frustration.
A good source for programming software and cables is RT Systems, as they offer both cables and software for radios they support. If you’re only interested in the cable, and you want to use it with the factory software or the open-source software Chirp, look for cables that mention using genuine FTDI chipsets. They aren’t hard to find, but they will cost a little more. For the Baofeng 2-pin models, this cable from Amazon works well. This cable should work for all Baofeng 2-pin cable compatible radios, such as the UV-5R (and variants), the BF-F8+ (and variants), UV-B5 and UB-B6, and UV-82 (and variants). This should also work for all 2-pin cable compatible radios from other manufacturers, as long as they use the same pin out.
You could also try replacing the chipset with a $3 adapter, as described here. A good eBay seller for that adapter is here. Many other people report success. but I tried it with a counterfeit cable for my Baofeng and couldn’t get it to work.
Questions and comments are welcome below.
A problem exists when trying to access AllStar’s Web Transceiver under Linux where no sound is played.
This is due to issues with Java under Linux.
A workaround is documented here.