An updated AIS system

Back in March I blogged about my AIS system, in particular about the LNA4ALL and how it coped with the low signal reception of my homemade antenna.

Things went really well until one day the reception dropped out completely.

A quick test of the system showed that something had gone wrong with one of the pieces of equipment though at the time I was unsure whether it was the antenna, the LNA or the NASA Engine AIS decoder.

As I was due to go away for a short while I decided to tell all the relevant websites that I feed (IHS AISLive, MarineTraffic and VesselFinder) that my system would be offline until further notice due to a technical fault, and that as soon as I’d worked out the issue that I’d get it fixed and back online.

The guys at MarineTraffic were very quick in getting in contact with me and offered to help with a new decoder as long as I didn’t mind being a beta tester for the equipment and some of their new software. I was very happy to agree to their offer.

The decoder they organised for me was a new Comar Systems SLR350ni Intelligent AIS Decoder and it arrived with me about ten days after I agreed to their offer.

The main thing that really appealed to me about this decoder was the fact that it links directly to your home network either by WiFi or hardwired using RJ45 Ethernet cable. This meant that I could install the decoder remotely, nearer to the antenna and out of my radio shack, but have full control of it from my main PC. The decoder itself is interfaced to a Raspberry Pi™ 3 computer, comes with aforementioned WiFi and Ethernet connectivity, 4 USB ports and an HDMI connector for a monitor display. It can be used in any AIS setup and is a dual channelled parallel receiver.

Installation was simple. Within 15 minutes the decoder was connected to my home-made antenna and we were receiving data – and at a much faster rate than the NASA due to the dual channel capability.

The MarineTraffic part of the agreement included some new software that they are testing, which includes the capability of sending received raw AIS data to five feeds such as AISLive. Any of these decoders obtained using MarineTraffic come with their host settings hardwired in so any data received through it is automatically sent to them – you don’t have to do anything to send data to MarineTraffic, just attach an antenna, connect it to your network and switch it on – that’s it.

In the new software there is a page where you can add other host iP addresses and port details. Doing this means a couple of things:

1 – You no longer need to use other software such as ShipPlotter or Neal Arundale’s NmeaRouter/AisDecoder software to forward on the data.
2 – You don’t actually need a PC connected directly to the Comar decoder.

The second point is interesting as it means you no longer need to have a PC running 24/7 to feed any of the AIS data to whichever sites you want. This is a bonus if you currently switch off your computers when you go on holiday or are away from home for a while. It still means you can provide the data whilst you are away.

Personally I have the following set up:
MarineTraffic (hardwired)
AISLive (iP host)
VesselFinder (iP host)
ShipPlotter (internal network address)
AIS Decoder (internal network address)

Using the ShipPlotter software still means I can get a better picture of what I am receiving, range of reception etc.; whilst using the AIS Decoder software means I can look at any of the messages sent in greater detail.

I have to say that I am very impressed so far, and highly recommend the Comar decoder. It is available from numerous online shops, but if you are going to feed MarineTraffic you may as well get it from their site, currently priced at €379.00. Doing this means it already comes pre-programmed to send to MarineTraffic.

A new antenna too

I had gotten round to testing all the equipment to see what the cause of the original loss of reception was and it turned out to be the LNA4ALL. This was a shame as I had new objectives for the LNA with regards to the reception of weather satellites so it means I’ll have to get a new one. Luckily I don’t need to replace the whole thing, just the circuit board, so it will be much cheaper – but a pain none the less, especially if I have the same issues with UK Customs that I had previously. The likely cause of the failure was an Electrostatic Discharge of some sort or other. There had been some Lightning storms nearby over the previous days and it could well have been this that had done it – strange though as my equipment is very well protected from this happening. The area I live in is prone to power surges and power cuts – the joys of living in a remote area in Scotland, still backwards in many things the rest of the UK take for granted.

With the loss of the LNA, this drastically reduced the range of my home-made antenna and so I decided it was time to buy a new one. I’d toyed with building a better one but in the end I just couldn’t be bothered and so I went for a Metz AIS antenna, bought from the Salty John website. Great service from them meant it arrived within 48 hours and so when it came to installing the Comar decoder I also rigged up the antenna in the loft space next to my home-made one at the same time.

If I have one complaint about the Metz, it’s that it doesn’t come with any form of protection for the co-ax connection area. This is especially strange as it is designed specifically for boats and would therefore be exposed to wet/salty conditions all the time. Add to that that the threaded area is over an inch long, much longer than what you would get with a UHF connector, this makes it a weak area for the lifetime of the antenna. If you were to install it outside (which is the general recommendation for AIS reception) then you would need to cover it in self-amalgamating tape and check it regularly to ensure it is still working. Not perfect if you need to climb up on the roof of your property.

One other option would be to use the tightening nuts supplied to fix some plastic or aluminium tubing around the connection, but again this is some extra hassle which could have been remedied by Metz themselves.

As it is, I seem to be getting great coverage from the Metz from it’s position in the loft, though I may still add a LNA4ALL to boost it even more.

With the antennas side by side I was able to run some quick comparisons between the two. The images below show the Spectrum analysis using my Rigol gear.

From the images you can see that with my messing around of the home-made antenna I had over trimmed it to be tuned to 180MHz rather than the required 162MHz. At 162MHz it measured in at 9.3dB which wasn’t even worth calculating the VSWR, whilst at 180MHz its VSWR was 1.23:1

In comparison the Metz antenna, which is a half-wave whip antenna, came in nicely at 83.6MHz with a measurement of 30.15dB/VSWR 1.07:1. Metz communications specify less than 1.2:1 VSWR so this is spot on.

With the new set up things have definitely improved. I also ran a quick test using AISDecoder to see how many messages the two antennas fed to the Comar, be it in a very basic manner of waiting till there was some ships being picked up, running the software with one antenna for a minute, noting how many messages were received and then swapping to the other antenna for the same length of time. In theory it is a reasonable test as the ships won’t have travelled far in that time, but not 100% perfect. Regardless, the Metz was able to pick up 19 messages in its minute test, whilst my home-made antenna only managed three! The test was carried out in less than five minutes.

In conclusion, whilst it has been a pain to lose the LNA4ALL, it has turned out better in the end for my AIS station. Statistically my data feed has improved no end for AISLive and MarineTraffic; and having gone away twice now since installation I have still been able to provide 24/7 coverage where I would normally have switched the whole system off.

Area coverage provided to MarineTraffic since the new installation. Fitting a LNA4ALL in the future should make this even better.

ShipPlotter example with the new installation. The bold plots are being received by my station and show 4673 messages received by 1032z. The image below shows the same but at 1753z and a message number of 28135. This averages out at about 52 messages a minute, though it was a busy time with lots of fishing boats in the area.

NOTES:

Following a couple of questions regarding the Comar decoder I’d like to add that it doesn’t have to be connected to the Internet or a Network to work. It can be used “locally” using the USB connections direct to a PC.

Also, you do not NEED to feed MarineTraffic if you don’t want to. If you don’t want to do this then buy a unit from another supplier which won’t have the files installed.

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Fighting Ships 2017/2018

In the last month or so the latest edition of Jane’s Fighting Ships has been released. It’s available from the IHS online shop for the usual eye-watering price of £984.

One thing to note is that older editions of the yearbook are also available on the IHS website at much cheaper prices.

This is the last edition that Commodore Stephen Saunders RN will be the chief editor of, as he has decided to retire from the role after 17 years. Having been a contributor of JFS for the last five of those years it will be sad to see him go.

From now on there will be a multi-team of editors that will compile both the yearbook and the on-line version. I will be remaining a contributor, and will hopefully be getting more involved than I am already.

There could well be complications regarding contributing data and photographs and I suggest that if you do either of these then to contact the team at IHS as soon as possible. There is a strong likelihood that contracts will need to drawn up with regards to copyright usage of whatever you send in. The email address for the yearbook is JanesFightingShips@ihsmarkit.com

In the meantime, I wish Stephen all the best in his retirement – he’s done a great job editing the yearbook over the last 17 years.

Liman follow-up

Well, it’s a couple of days now since my blog on the Liman incident went live. I’ve had some great feed back on my coverage.

There has however been one individual that has not liked it so much. This is Steffan Watkins, owner of the blog Vessel of Interest. Mr Watkins was one of the unnamed characters I referred to in the Liman blog. He is widely regarded as a conspiracy theorist, and even has to go to the extent of denying it on his own blog. Whether he is or isn’t is irrelevant really.

Interestingly, a recent piece of work I was asked to do for Jane’s Intelligence Review magazine was to analyse an image of Russian navy Vishnya-class AGI Viktor Leonov to try and work out the various intelligence gathering systems that may be on board via all the different antennas visible. The actual article was written by Mr Watkins.

Now, up until this stage I really didn’t pay much attention to anything Mr Watkins wrote, mainly because what he wrote was aiming towards being the aforementioned conspiracy theories. But, he kind of came through with an interesting article – though it was nothing I didn’t know, as a group of us have been following Viktor Leonov for a few years now.

So, why hasn’t he enjoyed my blog? Well, I suggest you read it and see what he has come up with, and then come back here where I’ll answer his “questions”.

Hopefully, then you have read his blog on Liman now.

Firstly, lets talk about the “expert” part. He seems to think that I am condescending towards others from my comments. I am fully open to ideas and theories if there is evidence to back these ideas up and people also listen to what is being presented to them. In this case he did neither. And my references to things such as the Heather Sea evidence is clear – the ship wasn’t involved, it never was and yet people were still saying it was (not Mr Watkins I hasten to add, he hadn’t looked into anything outside the bubble of Liman). It was a quick and easy search through AIS history to see that it wasn’t, and yet people weren’t doing this. My reference to not being an expert is correct. I have no qualifications in the field of Radio Communications, I do not have an amateur radio licence and such like. I do not have a degree or a masters or any other diploma in the theories of radio – therefore I am not an expert. In ATC we have engineers that are experts in that – I wouldn’t dare tell them their job, just like they wouldn’t tell me how to keep aircraft apart. This is the reference I am making to being an expert.

He also mentions banter on twitter. There was no such thing, certainly not in my eyes. I’ve been around banter for decades – in the forces you need to be able to take it, and give it – and it is actually worse in the world of ATC. I can recognise banter when I see it. He also mentions an exchange of ideas. Yes there were exchanges of ideas, but he really wasn’t coming up with anything of substance. Instead, from his comments, he gave a picture that there was a conspiracy behind the incident – there had to be something because of the nature of the ship involved – an Intelligence Gatherer.

He actually says this in his blog:
Any ship could have an accident while at sea, in the fog, early in the morning. But, this wasn’t “any” ship; just by being a Russian Navy AGI (a “Spy Ship”) it makes me +1 suspicious. There is no good rational basis for that suspicion, except it’s a Russian Navy AGI, it definitely has sensitive gear aboard, and having it sink leaves a gap in whatever task it was doing, on the deployment it was on.

Why does this receive an extra degree of suspicion? Oh, that’s right, there’s no rational explanation, it’s just suspicious.

I wonder what Mr Watkins reactions were to the collision between a French Navy SSBN and a Royal Navy SSBN in the middle of the Atlantic in 2009. Holy shit, the French are at it again, trying to sink our navy 🙂

He refers to the fact that surely the Youzar Sif. H must have been able to have seen the Liman on radar:
The Liman was not a “stealth” ship, and as far as I understand, should have shown up on the navigational radar of the Youzarsif H; isn’t that why navigational radar exists?
Well, if two of the most expensive vessels in the sea, with some of the most sophisticated sonar and listening equipment ever made managed to thump into each other in the wide open Atlantic, then it is perfectly feasible for two ships to hit each other in thick fog in one of the busiest shipping lanes on the planet.

And it doesn’t even have to be in thick fog or underwater – ships hit each other. His Canadian navy had such an incident in 2013 in perfectly good weather when they were approaching each other.

Or there’s the Turkish Coast guard patrol boat that was hit in broad daylight, in the middle of the Bosporus, by a 158ft long Bulk carrier in August last year

Further about the radar he stated:
They were in thick fog, only navigating by instruments, and didn’t see a ship directly in front of them on radar?
Isn’t that weird?
I don’t think it reflects well on the Youzarsif H’s crew, unless the operations of the Liman were causing issues for the radar of the Youzarsif H. Yes, that’s wild speculation, because it makes no sense how a ship doesn’t notice a giant hulk of floating steel in front of it on radar. Make up your own crazy theory! It’s better than what we have now, which is nothing.

None of us know what radar system Youzar Sif. H has in place. I’ve been on quite a few ships in my time, civil and military – and of course I work with radar all the time. You get plenty of radar returns or “primaries” which you don’t know what they are, and you do your best to avoid them if you are not sure, but you have to make an assessment as what you think is a ship/aircraft and what is just weather (or a wind farm in a lot of ATC cases these days). The image here shows just a basic ships radar image, a modern one at that, so actually could be much better than the one on Youzar Sif. H – we won’t ever know I expect. Other radars are available of course, with more detail, but if Mr Watkins can work out what is what in this image then well done.

The next statement he produces is:
There have been no reports regarding who ran into who; or if it was a mutual effort. The news media is making it sound like they were both moving and collided in the fog. I’m not sure that’s correct.
He produces a list of things that could have happened – yes all obvious – but then doesn’t actual state why he thinks the news media are incorrect?? So why do you think this Mr Watkins?

He then mentions jamming of the AIS frequencies, but thankfully seems to have realised that this wasn’t the case. At the time of the “banter” he wasn’t stating that though:
See, there you go down the rabbit hole again. I’m wondering if the AGI screwed itself by engaging in EW in the same frequency range as AIS. 161.975/162.025 MHz range, within the usual Marine VHF band, right? Might explain the sketchy AIS coverage immediately prior.
Firstly, I’m still not sure what he’s referring to with EW. Early Warning?? Electronic Warfare?? Neither of which Liman is equipped for. And, secondly I went into great depths, the best I could at the time (see later) to try to explain the likely reason for the sketchy AIS coverage – all of which he kind of brushed aside for his more extreme likelihoods. Here, again he gives the air of being a conspiracy theorist.

We now get on to my favourite part of his blog:
•The Youzarsif H’s AIS signal was being received by terrestrial based AIS receivers, which Mr Roper described in his blog post with excruciating detail. The signal was very spotty before the collision, and crystal clear after the collision. This is the thing that really draws my eye and triggers my curiosity; it is the basis for much of my suspicion regarding this event. On the day Mr. Roper and I were discussing this he specifically dismissed my speculation that the issue could be related to the sender and insisted the gap in reception must be related to the receiver, or environmental conditions.
“This totally depends on the receiver not the sender! The receiver may have been off.”
-Tony Roper, 6:29 PM EST, May 4 2017
I tried to convey that my interest was less with the gap before the collision, and more with the immediate change to the signal quality (seemingly crystal clear reception) instantaneously after the collision, which Mr Roper had no explanation for at the time. It seems after reflection, he now theorizes the sender, may have had their antenna(s) facing away (blocked by the ship’s superstructure?) from the shore-based receiver when travelling Southbound (toward the Liman) and immediately after the collision turned around and faced their AIS antenna(s) toward the shore-based AIS-T receiver. This is fantastic speculation, and would explain how the signal went from terrible, to perfect, immediately, while other ships in the area had AIS-T signal all along.

Firstly, by excruciating detail I’m guessing Mr Watkins didn’t understand it. You must forgive me for trying to explain how something works instead of just giving less than half information on how something works. If he thinks my information was excruciating then maybe he should read the Propagation pages in the ARRL handbook which is spread over 30 pages. Or maybe he should go to websites such as:
Make more miles on VHF
HF Propagation tools
Or one of the many pages by Tomas Hood on propagation
It is obviously a fault of mine to make something interesting for the reader, that will hopefully teach them something.

I said above that at the time I did my best to try to explain to Mr Watkins what may have happened. This he seems to have thrown back in my face, alluding that I may have changed my mind on my original thoughts. I didn’t dismiss his thoughts but pointed out that there may have been a break in coverage. The interesting thing is the quote he has used, taken at 6:29PM EST. This was actually 23:59PM UK time, I was in a hotel room, 450 miles away from my computers and AIS systems. Maybe Mr Watkins has presumed that the rest of the planet is running at the same time as Canada, and that we were all glued to our PC’s? I made the best assessment at the time – and you know what, I wasn’t far wrong in the theory of coverage, as I proved in the blog.

He says I have “reflected” and changed my mind. No, I haven’t Mr Watkins. It’s a combination of both sender and receiver. I didn’t reflect. What I did was, on getting home, do some further analysis. Something Mr Watkins has quite clearly not done. He can only produce the same data on the what Youzar Sif. H did both before and after the incident. He still hasn’t come up with anything else – yet he has the nerve to criticise my analysis.

Come on Mr Watkins, show us some workings out. Do some actual analysis.

Here’s something for you. Data taken today from the same region.

The image below shows the tracks for various ships and their plots as received on AISLive

Holy crap – how do we explain all those gaps in the plots especially the ones on the rough route Youzar Sif. H took?? How the hell does the furthest ship away from any receivers have the best plot history?? Hmmmm, please do tell Mr Watkins. Maybe the Russians are jamming the area from outer space? Maybe there’s another AGI there?? Or maybe there’s just a poor area of reception.

The picture below shows the same area, at the very same time, but this time taken from MarineTraffic.

I’ve purposefully highlighted Reina as it is also highlighted in the AISLive image. The red ship to at the bottom is also on the AISLive image as the fully tracked ship. But what is that? MSC Eleonora is showing here, but isn’t on AISLive – what the hell?? How does that happen?? Please explain with all your worldly knowledge Mr Watkins.

Here’s some extra data for you, just so that you realise that AIS receivers aren’t on all the time (mine was off whilst 450 miles away for the weekend by the way). The three receiver examples that I used for the blog have the following averages for receiver availability over the last two months:
Istanbul = 93.3%
Burgas = 98.9%
Elena = 97.95%
So, not available all the time then.

He ends the large waffle with:
Can we prove this theory with the available data? Well, it’s certainly not as clear as I would like it to be. It is still crystal clear that immediately after the collision the AIS transmissions went from random times between successful transmissions to a steady stream at 3-4 minutes

The following day, still in the hotel 450 miles away from all my gear, I sent Mr Watkins roughly the same as the above showing a plot of another ship with the same loss of coverage. That obviously wasn’t enough evidence to make it “crystal clear”. I then produced my blog with further evidence – including an example of Youzar Sif. H with a loss of 14 hours of coverage – which again obviously wasn’t “crystal clear”, but was in fact excruciatingly full of too much detail for Mr Watkins. I have now produced the above which explains – yet again – that there are gaps in the coverage, yet other ships somehow have a better plot history. I suspect though, that all this will be far too foggy for Mr Watkins and he still will not be able to see anything clearly – except for a conspiracy.

Quick LNA4ALL test

Despite the best efforts of the Royal Mail service, I have been able to get my hands on a Low Noise Amplifier created by Adam at LNA4ALL. The Royal Mail showed just how useless it is, when the parcel arrived here in the UK in just 11 hours from Croatia on February the 14th, but then not getting delivered to me until March the 14th – yes, one month! There is no surprise that courier companies such as DPD and Hermes are getting more business than the Royal Mail – they are bloody useless.

Anyway, the reason for the purchase is for a later review on an AIS dongle that I will be testing, but which has unfortunately been possibly damaged before getting to me.

So, as I had some time to spare I thought I’d run a quick test on how the LNA performs against the claims that is shown on the LNA4ALL website. For the test I used a quickly built 12v to 5v PSU that was connected to a Maplin bench PSU and also a Rigol DP711 Linear DC PSU where I could ensure a precise power input. As it was, it was good that I used the DP711 because my quick PSU was only chucking out 1.2v at connection to the LNA4ALL, despite an unconnected output of 5v – some work needed there I think.

Despite this lower power the LNA4ALL still worked with just the 1.2v input, though the results where not as good.

Other equipment used were a Rigol DSG815 Signal Generator and a Rigol DSA1030 Spectrum Analyser (no longer available), along with various Mini-Circuits shielded test cables. The Rigol equipment I purchased from Telonic Instruments Ltd last year.

Below then is a table that contains all the relevant data. As you’ll see the Gain claim is pretty much spot on with some being over. Just a couple of frequencies are below that which is claimed, especially at 28 MHz.

LNA4ALL Frequency data

A couple of things to note.

Firstly, somehow I managed to miss testing 1296 MHz. I obviously didn’t put it in the table in Excel before I started 🙂 Also, the DSG815 only goes up to 1.5 GHz so I couldn’t test above that.

Secondly I ran a test for the AIS centre frequency of 162 MHz, for which there was no comparison to the LNA4ALL data. A gain of over 24dB though shows that the LNA would be perfect for those of you with AIS receivers that may want to get better reception. To prove the theory I compared the LNA reception against data without it connected to the NASA Engine AIS receiver that I currently use. In ShipPlotter I average a max range of around 15nm without the LNA, but with it connected this increased to around 22nm. The number of messages received also tripled as it was able to dig out the weaker signals.

The NASA Engine isn’t a bad receiver, but it is a frequency hopper rather than a dual monitor, and so it changes between the two AIS frequencies every 30 seconds (161.975 MHz and 162.025 MHz). I suspect a dual monitor would give better message numbers and range.

Below is a graph made using the excellent software by Neal Arundale – NMEA AIS Router. As you can see the message numbers (or sentences) for over an hour are pretty good – well, it is a vast improvement on what I used to get with my current “temporary” set-up, with 419 messages received in an hour. The software is available at his website, for free, along with various other programs that you can use with AIS. If you’d rather not use ShipPlotter he has created his own AIS Decoder which can be linked into Google Earth and such like. Visit his website for more information.

My antenna isn’t exactly top-notch. It is at a height of just 4 metres AGL in the extension loft, and it is made from galvanised steel angle bead used by plasterers to strengthen corners prior to skimming – this I cut down as a dipole for a target of 162 MHz. As usual with my trimming of antennas, I cut just too much off and ended up with it cut to 161.167 MHz. It gives a VSWR of 1.018 and Return loss of 40.82dB, with 162 MHz being approx. 30dB Return loss which equates to 1.075 VSWR – that will do.

Also, as I live right on the coast, about 50 metres from the sea, I’m practically at sea level, which doesn’t help much with range and signal reception either. Despite this the antenna produces great results, though it is just temporary until I can get a new homebuild up on the roof.

VSWR reading for the homebrew loft AIS Antenna

The LNA4ALL retails at various prices depending on what option you go for. I went for the aluminium box version so it was around £54 including the delivery. I had looked at a Mini-circuits equivalent, and when it looked like the LNA4ALL was lost I did actually order one. But this was nearly twice the price, and seeing as the LNA4ALL contains many components from Mini-Circuit I doubt it is any different really.

All in all the LNA4ALL is all you need to boost your weak signals – couldn’t get any more all’s in 🙂

December Warships International Fleet Review

As I said in my last post, I was expecting there to be a few of my images in the December edition of Warships IFR magazine. This has turned out to be correct.cover-dec16-wifr

 

 

 

 

 

 

 

Most of the images are part of an article on Exercise Joint Warrior 162 written by Phil Rood. Unmanned Warrior was also taking place at the same time (as part of Joint Warrior really) and the article also goes into detail about this too.

The editor of the magazine, Iain Ballantyne, has kindly allowed me to publish extracts from the magazine here.

robowarriorsprd1

robo-warrior-sprd2

Another of my images was included as part of a news item on the German navy and their recent order for five new Braunschweig-class corvettes.

wifr-germ-corvette

Further information on the magazine, including subscription plans, are available on their website – http://www.warshipsifr.com/

Recent published work and photography processes

It’s been a busy six months or so for me with regards to having work published.

My main work has been the continuous analysis of the Russian navy to assist the editor of Fighting Ships, Stephen Saunders, to keep the data in the yearbook as accurate and up to date as possible. This information is also used in the on-line version of the yearbook. The current 2016/2017 edition is now available with plenty of my Russian navy data included, along with photos that I’ve taken. jfs2016_001

As you know I stopped selling the yearbooks last year (apart from a large sale at the beginning of this year) and since then IHS have added older titles to their online store. Though not as cheap as I was able to get them, it may be worth taking a look to see if there’s any titles you may need in your collection. Here’s the link to the Fighting Ships page in the store.

As with all things involved with data analysis, looking into one thing generally off-shoots into another. From the OSINT work that I generally do for Fighting Ships, I normally have to take notes and data which would also fit into some of the other yearbooks. Some of this data has been sent to the various editors of the C4ISR yearbooks, which I hope will also be included in future publications. And there’s also photographs of radars, weapons and other systems that I’ve been taking over the last few years that hopefully will also be of use.

jir_july_001 jir_aug_001

 

 

 

 

 

 

 

The OSINT work also brought me to the attention of one of the IHS magazines, Jane’s Intelligence Review. Since May I have worked on three articles for this magazine, two in conjunction with other writers, and one on my own. I am currently working on two more pieces for them, but at this time I can’t divulge on the subject matter. jir_sep_001

The work has been very interesting indeed, and has brought me a couple of new acquaintances and friends from it. I’m hoping that that I can carry on with other articles for them once the two I’m working on now are complete. jir_aug_002

 
Another magazine by IHS, Jane’s Navy International, has used a couple of my photos in recent months with hopefully more to follow. The magazines can be subscribed to from the IHS magazine online store.

It’s good work editing images for magazines, but its certainly a lot harder than it used to be – in general for less money than what you used to receive. The advent of digital photography has reduced the prices one gets for inclusion in magazines, mainly due to the fact that so many people now do it and so the editors have a plethora of images available to them. The silly thing is that in the old days you used to only take the photo, normally on slide film (Kodachrome 64), with no further editing by yourself (unless you happened to process the images in your own darkroom – I didn’t!). You’d send away the film to Kodak who would process it for you, and then you’d check over the slides after they’d been returned, deciding on which ones to send away. The only real work needed was to annotate the slide with basic information, and include a letter with further notes and where to post the cheque payment if used. Of course, you’d never see the slide again, and so if you wanted to have a copy for yourself then you’d need to take two photos – it was costly business using slide hence the payments you received being greater than they are now for far less work (one trip to the USA cost me more in Kodachrome 64 than it did in flights!!).

These days, the full photo process takes much longer.

Take the recent Joint Warrior (JW) exercise that I photographed. For this exercise I set aside two days for the actual photography. I then needed a further four days to carry out the actual editing of the photos for various publications! With current copyright laws, and the fact that most publishers are aware that photographers send away the very same image for inclusion in different magazines, the publishers now insist on exclusivity with an image (including publication online). Because of this, as a photographer you have to think ahead about who you are taking photos for. With JW I was thinking of three main possible targets – Fighting Ships, Jane’s Navy International and Warships IFR. As well as these I also had to think about the various other yearbooks by IHS (C4ISR and Weapons). So, if one ship comes along I need to take at least three images of it, maybe milliseconds apart, to cover the three main publications. Multiply that by a few hundred and you can see that there is a lot of images to go through once back home.

Back home then, I now need to process the images myself – no longer do they go away to Kodak for initial processing, and the publication no longer fine tunes the image for what ever use they may have. You need to trim it, get the exposure and colours right and make sure it’s sharp. Not only do you need to edit each image, you also have to include additional information for each one. This needs to be a title, your name, copyrights, what the subject is, when and where you took it and any other information you may think is needed for the publisher. With over 400 photos to go through for this JW it took a lot of time to carry out the whole process – 4 days as I’ve already said. From the 400 or more images that I took, I sent away around 70. How many of those will finally end up being published is unknown but I hope that it is around half of them.

Saying all that, it really is good fun and I still enjoy seeing my photos in any publication, be it book or magazine. I recently bought a new gadget for my GoPro, a time-lapse timer that moves the camera, and I decided to test it out whilst editing one of the images taken at Joint Warrior. The result of that test is below:
 

 

wifr_001 Talking of having things published in Warships IFR, I have actually had quite a good amount put into print for this magazine recently. And I believe there is to be a good spread in the December edition with images taken from the Joint Warrior exercise that I have mentioned above. I also hope to start writing the occasional piece for the magazine.

I’ll keep you informed.

The Spectrum Monitor article June 2016

tsm_june_001A few months later than normal, but here’s a copy of my article from the June edition of The Spectrum Monitor

Russian Navy around the World

The Russian Navy has started to get active again after the usual period of rest over the winter months. The main reason for this is because most of the areas the Navy operate from in the North are frozen over, and are only just now starting to thaw out. There are three busy areas that produce the most traffic in the summer, but one of those practically disappears over the winter; and that is the area that falls under the command of the Northern Fleet, and in particular the White Sea. I intend to cover the Northern Fleet in much greater soon.

One thing that is noticeable is that the fleets seem to have moved to a more regional network of frequencies. They used them anyway before, but in general they tended to stick to 8345 kHz at night and 12464 kHz during the day as the main ship frequencies. I suspect that with the large increase of ships becoming active these frequencies were getting saturated with calls – something that was becoming noticeable as ships were “stepping” on each other. I mentioned last time that these main frequencies were quiet, and it now looks like this it was the reason.

As I say, I’ll go into regional stuff through the rest of the year so I’ll concentrate on a couple of interesting things that have happened over the last few months.

One of my favourite ships is Admiral Vladimirskiy, a Akademik Krylov Class Survey/Research Ship that uses the CW callsign RHO62. From late August 2014 this ship carried out a round the world trip, starting from the Baltic Sea headquarters at Kronshtadt, routing around the north coast of Russia through the Barents Sea, Kara Sea, Laptev Sea, East Siberian Sea and through the Bering Straits. From there it head south down to Taiwan and then across the Pacific to Corinto in Nicaragua, down through the Panama Canal, across the Atlantic to Brest, through the English Channel and home to Kronshtadt. It returned home on the 18th of January 2015 – a huge trip and one that our small group of monitors was able to track the whole way round, probably getting around 95% of all weather/TESAC reports that it sent. After that, it needed a good rest, and that it had until November last year when it set sail for the Antarctic.

Again, we have been able to follow its travels all the way down to the Northern edge of the Antarctic Ice belt, where it operated for some time near Davis Station, part of the Australian Antarctic program. They have a great website which provides various webcams, but unfortunately Vlad didn’t get within their sights. It’s worth checking out their website, just so that you can watch the fascinating time-lapse videos that are produced from the webcams. Vlads route took it this time through the Med, through the Suez Canal, the Gulf of Aden, along the East coast of Africa, stopping off at Madagascar for Christmas. Then it was down to Port Elizabeth in South Africa, before its final push to the Antarctic, getting there mid-January. For its time down to around Madagascar it stuck to 8345 or 12464 for its reports, but later on it transferred to 8460 kHz where it then spent most of its time. It would try the other frequencies should it not get through of course, there’s a huge selection that it could choose from.

8460 kHz is noted as being used by RMP (Baltic Fleet HQ at Kaliningrad) but in fact Vlad was calling RJH25 to pass on its messages. RJH25 is a RX/TX site in Kyrgyzstan and in this case is used in simplex instead of the normal duplex. This was good because it meant we were able to get both sides of the conversation easier than having to monitor lots of frequencies in duplex mode. A link to Google maps is in my callsign list which shows the RJH25 antenna site.

Here is one of my receptions of a FM-13 weather report from the 15th February on 8345 kHz:
0010z RHO62 586 20 15 0301 586 = SML FOR RJH45 RJH48 RJH74 RJD38 =
15001 99655 30900 22233

rho62_davis_001

Distance from RHO62 to my Wellbrook Loop antenna using Google Earth

I’ve missed out most of the weather information to show the relevant data for positioning. The data equates to RHO62 being at 65.5S 90.0E heading SE @ 11-15kts. This is approximately 9670 miles from ship to my Wellbrook Loop antenna!! I must say, I am very pleased with that achievement.

So, what are the Hydrographic ships of the Russian Navy doing? Their main task is to carry out data acquisition of the waters that the Russian navy operate in, which is why the TESAC is very important to them. The checking of sea temperatures against salinity levels helps them in various ways, but there are two particular reasons for this data. One, is that temperature and salinity actually affect how torpedoes and missiles from underwater launches travel through the water – the higher the salinity and colder the sea water is, the more it can cause drag. The second is for much the same reason, but in this case it is for Submarines. Not so important for the Nuclear powered ones, but a little more so for the SSK’s as this can affect the time they can stay underwater before requiring to surface to “snort” and power up their batteries.

The TESAC data also provides the depth of the sea though most of the Hydrographic ships will have equipment that fully maps the sea beds. Again, depths are important, especially for the Submarine fleets, and I suspect they use these ships to map potential routes to strike areas for the SSBN’s. You see a good amount of Hydrographic ship activity in the Northern waters of the Arctic for instance, as with the higher sea temperatures, and the receding Ice cap, more routes are becoming available there – and this is useful for the ships too.

And finally, of course, the Hydrographic ships will be providing information to the Russian Government, not only on things like climate change but also in the search for oil and minerals. The Russians have a civilian Hydrographic fleet for this, but it is not large and so they will use data acquired from the navy too.

The navy fleet consists of around 80 ships that are potentially capable of providing Hydrographic readings, though it is hard to find out exactly whether each one can or cannot. There’s certainly quite a few in the Baltic, where they test the SSK’s and torpedoes. And there’s also plenty in the Northern fleet which has a huge areas in the Barents Sea and White Sea for the testing of missiles launched from SSBN’s. They will use the Hydrographic ships to analyse the water before and after any trials of the submarines or weapons.

Monitoring 8460 Khz for RHO62 also brought us some luck with another callsign, RMGZ, a Prut Class Submarine Rescue Ship named Epron. This had in late summer 2015 travelled east from its home at Sevastopol in the Black Sea, again via the Med and Suez Canal where it was eventually lost from our radios off the east coast of Sri Lanka. It had been erratic on 8345 up until then anyway, and this was probably because it looks like it was using 8460 as its primary frequency. Of course, we didn’t know this as we weren’t monitoring it. Epron was heading towards Visakhapatnam in India to take part in exercises and later on in a Navy exhibition. My furthest east report from it was at 16.3N 82.5E, about 50km SW of Visakhapatnam. Epron is now at home in Sevastopol after its long journey.

Prut-class Submarine Rescue ship “Epron” transits the Bosporus on its journey home to the Black Sea – Photo by Yörük Işik

I mentioned last time Project 550 Large Dry Cargo and Passenger ship Yauza which uses the callsign RHM80. Yauza has been a very busy ship over the last few months as part of the Russian ferrying of equipment and troops to Syria – named by many as the “Syrian Express”.

In all, our tracking of RHM80 shows it made five trips to Tartus from either Sevastopol or Novorossiysk , both being Russian Navy bases in the Black Sea. The last trip to Tartus has ended, and instead of heading round towards the Bosporus, it headed towards Malta, arriving there on the 4th of April; it will probably travel onwards to its Northern Fleet base of Murmansk after picking up some supplies for the journey from Valletta. The Russian navy quite often uses Valletta as a stop off point and with plenty of ship photographers there, it is a useful port for tying up callsigns to ships.

Of course we will be tracking it all the way home on 8345 and 12464 as it is very good at sending FM-13’s every six hours as required. It also sends lots of “11111” messages – so called because of the first five figure group in messages to Moscow (RIW), Sevastopol (RCV) and Severomorsk (RIT). These are status messages I believe and of low priority, and are very common. But, you don’t need to be listening out on the Russian frequencies to track Yauza, you can just use MarineTraffic to track it. Just enter its name into the search area.

Yauza wasn’t the only ship involved in the “Syrian Express” so there was plenty of traffic from other ships. Some of the callsigns we know and some of them we don’t. There’s still a couple of Large Landing Ships that are avoiding us, but it looks like I have been able to tie-up at least one ship that is currently involved in Syria – and this is RKA80. This I believe is Slava Class Missile Cruiser Varyag, and it’s given itself away by sending messages via RCV for RJS, the callsign for Pacific Fleet HQ, Vladivostok. The messages started around the time that Varyag arrived in the Mediterranean Sea so time will tell if it disappears from the frequencies once it departs the operational area. It has recently stopped sending messages with the extra section for RJS so I wonder if it’s realised it was giving itself away? An example of their messages is here:

1900z RKA80 639 106 29 1230 639 = SML FOR RJS =
MMMMM ХАФЖШ ШЫЖКТ ….. ЦЦЬДЦ ВОПЫУ
АБПУИ = + RKA80

I removed most of the message for ease as this one was 106 groups long, but this was part of what looks like a standard schedule of three priority messages, each well into the hundreds of groups (normally around the 150 mark)

Well, I hope I haven’t gone on too much. Not much frequency information for you this time but I that I plan to change when I start with the Fleet information articles in the future. 8460 kHz monitoring has also bought us some other interesting things which wasn’t known before – but that would fill one article on its own.

As I say, keep an ear out on 8345 Khz and 12464 kHz. And if you’re on the West Coast of North America then try 8348 kHz which seems to be the Pacific Fleet primary CW frequency. If you do decide to give it a try then if you do manage to get anything, in particular from North America, then please do contact me either using my contact info in my blog, or via the TSM editor. I’m very keen to see what coverage there is elsewhere in the world.

Notes:
Since the time that I wrote the article I have confirmed that RKA80 is Varyag

Project 21631 Buyan-M class Patrol ship Zelenyy Dol transits the Bosporus, heading for its first ever patrol. It was heading for the port of Tartus as part of the Russian Syrian crisis fleet. Since this image was taken, sister ship Sepukov also deployed to the Med, and after further deployments both have transferred to the Baltic. Both of these ships will be two of the unknown callsigns we’ve picked up recently – photo by Yörük Işik