On Monday, April 1, 2017, Congress passed and President Trump signed a bill to repeal rules that require ISPs to get your permission before selling information about your online habits. You can read more about it at USA Today or Ars Technica.
As soon as it was publicized, we received inquiries from Ayrstone customers about how they can protect themselves. Unfortunately, we really don’t have much we can offer. There is a lot of talk about Virtual Private Networks (VPNs), and some about the Tor Project, but neither is a very satisfactory solution.
VPNs securely route all your Internet traffic to the vendor’s routers, and then sends that traffic to the Internet. This will prevent your ISP from seeing your Internet habits (because, from their perspective, all your traffic is going to the VPN vendor), but clever spies can untangle your traffic from the VPN’s stream, and there is a danger that the VPN will simply collect your information and sell it.*
The Tor project is the result of a U.S. Navy project (paradoxically, while the government spends your money to reduce your privacy, they also have spent money to improve your privacy…). It is voluntary network of computers – you download their software, and all your traffic is routed through a seemingly random collection of computers around the globe before appearing again on the Internet from a random location. This is much more secure, but there are cases where agencies have re-assembled data from the Tor network.
Add to this, unfortunately, that your ISP is far from the only source of information about your Internet usage. Google, Microsoft, Apple, and many, many others gather LOTS of information about your usage, and they use it to target advertising to you.
So there are three things you can do: first, use VPN or Tor software to increase your privacy, second, talk to your lawmakers about re-instating (and, preferably, increasing the scope of) the regulations around privacy, and, third, follow the advice of my old boss, Scott McNealy.
*There is another use of VPN – to connect a remote network to your LAN – and many of our customers use this kind of a VPN. In this case, you have a VPN router on your network, and you connect using VPN software or another VPN router to a remote network, such as (for example) a remote location where you have a different Internet “drop” from your home. In this use of a VPN, devices at that remote location get IP addresses and appear on the network as if they were in your home network, even though their traffic is routed out through a different Internet connection. This means you can be in the remote location and send a job to your printer at home, and it will be printed and ready when you get home, or you can access files on your home PC when you’re away. This does not help your privacy, except against information theft on public Internet connections, but it can make remote working more convenient.
As you know, I think that the “Internet of Things” (IoT) has enormous potential for the farm. But we have all been recently reminded of the problems we are facing as BILLIONS of new devices come on to the Internet – Friday October 21, the IoT literally broke the Internet.
This event has been called the “Mirai botnet attack.” This is an extremely important event, because it used IoT devices to effectively bring the Internet to a stop for several hours on Friday, October 21. Even Ayrstone was affected: we use Zendesk for our customer support portal, and it was unavailable off and on on Friday.
This attack was innovative in two ways: first, it did not attack the affected sites directly, but rather attacked the Domain Name Servers (DNS, the servers that turn domain names like ayrstone.com into IP addresses like 126.96.36.199) of Dyn.com, making a huge number of websites, including Zendesk, Twitter, and others unreachable, even though they were working just fine.
But the most important innovation was the way the attack was done – using a Distributed Denial of Service (DDoS) attack from IoT devices. DDoS attacks work by sending a huge amount of data to a server from a large number of devices on the Internet, overwhelming the server and causing it to fail. Up until now, the “botnets,” as the devices sending the data are known, have mostly been personal computers infected with viruses that allow a remote user to control them and cause them to send out streams of data to the target server.
As I mentioned, however, this attack was different, because it used IoT devices – IP cameras, routers, wireless networking devices, and other little devices that people don’t see as being “computers.” But your router or IP camera has a lot more computing power than the powerful desktop computer you had just a few years ago.
Hackers were able to access these devices and install “botnet” software on them because – and this is THE IMPORTANT THING – the passwords were NEVER CHANGED from the defaults. For instance, many devices come with a default username of “admin” and a default password of “admin” or “password.” If those are not changed and they are exposed to the Internet, they are an open invitation to hackers.
Now, most of the devices on your network are NOT currently exposed to the Internet – they are safely hidden from the Internet by your router’s NAT firewall. But it is still important to change the default password on devices, and, if you have “port-forwarded” to any devices to make it accessible via the Internet, it is DOUBLY important to make sure it has a STRONG password to protect it.
Ayrstone products, of course, are protected because the username and password for each device is set from AyrMesh.com. The only way an AyrMesh device can have the default username and password is if you don’t have an AyrMesh.com account, and we regularly disable devices that are not checking into an active account. However, even at that, AyrMesh devices should always be used behind a router’s firewall and not exposed to the Internet.
These devices are incredibly useful when used properly, but you have to take some minimal precautions to keep them safe. More information about the Mirai botnet attack and security of IoT devices can be found in this article and elsewhere.
This attack is a good reminder of three things:
Make sure you always use good passwords (long, not a quotation or word) on ALL devices and keep those passwords secret,
Don’t expose devices to the Internet unless you have to, and
Purchase networking/IoT products from reliable vendors who can update the firmware to close vulnerabilities, preferably automatically and over the network. If not, make they make new firmware available to close holes as they are discovered, and install it regularly.
AyrMesh devices have firmware that is updated over the network. We issue several updates per year, and you needn’t do a thing – they happen automatically.
If you have any questions, of course, just let us know – firstname.lastname@example.org.
A few months ago, I was approached by the folks at eze System, who wanted to know if their ezeio product would work with AyrMesh to help farmers measure conditions on farms and control equipment.
They were kind enough to send me one of the ezeio products so I could try it out. Insofar as it is a standard Ethernet (802.3) product, I had no doubt it would work perfectly with AyrMesh, and, of course, it did – I just connected it to an AyrMesh Receiver with an Ethernet cable and it appeared on my network.
What is cool about the ezeio is that it is a complete package – hardware, firmware, and back-end software – completely integrated and ready to plug in and go. It includes connection points for up to 4 analog inputs (configurable for 0-10V, 4-20mA current loop, S0-pulse, or simple on/off), Modbus devices, Microlan (1-wire) devices, and up to two relay outputs (up to 2 amps). This makes it a very versatile unit for both detecting and controlling things on the farm.
I set mine up on a table to see how it worked. The good folks at eze System included a Microlan temperature probe, so I set up my unit with that connected to the Microlan connector and a couple of LEDs (with a battery) connected to one of the relay outputs.
I then went to their web-based dashboard and started setting things up. It’s pretty simple – you get a login on the dashboard, and you add your ezeio controller. You can then set up the inputs (in my case, the temperature probe) and outputs (the relay) and then set up rules to watch the inputs and take appropriate actions. If you want to see the details, I have put together a slide show for the curious so I don’t have to put it all here.
The bottom line is that I was able to quickly and easily set up a system that checked the temperature continuously and, when the temperature dropped below a certain level, lit up an LED. Big deal, I hear you say, BUT – it could easily have been starting a wind machine or an irrigation pump or some other machine, and it could have been triggered by a tank level switch or a soil moisture sensor or some other sensor or set of sensors. It also enables me to control those devices manually over the Internet, using a web browser, without having to “port forward” on my router.
The ezeio is a very powerful yet easy-to-use device which, in conjunction with the web service behind it, enables you to very easily set up monitoring and automation on your farm. For the do-it-yourselfer, it is a great way to get started on employing the Internet of Things (IoT) on your farm. Even if you’re not inclined to take this on yourself, any decent networking technician can easily set up your AyrMesh network and the ezeio to help around the farm.
Much has been written about the use of remote sensors in farming, with soil sensors leading the way. I think it’s worthwhile to understand how these sensors work and what options are available
We have highlighted some of these products (gThrive, Farmx, Edyn), and there are others coming up including Cropx and AgSmarts that we have not been able to evaluate in depth yet, although they are very promising and appear to be more focused on “mainstream” agriculture rather than specialty crops.
The soil sensor people understand that, to have soil sensors near the plants, you have to have sensors that are battery-powered (because you don’t get enough sun under the canopy to use solar). Because of that, most soil sensors use a low-power radio system; many use a “Personal-Area Network,” usually based on the 802.15.4 low-power, low-bandwidth meshing standard. These networks allow the sensors to use very little power so the batteries can last for months or even years. Additionally, the bandwidth (the amount of radio spectrum they use) is so low that they can transmit a very long distance with minimal power – frequently hundreds of yards – and the meshing capability means they can cover a very large area in a couple of hops. So these sensor networks actually ARE practical for gathering data from sensors, even in a very large field.
gThrive sensors and gLink gateway – Courtesy of gThrive
However, these systems, just like your home WiFi network, require a “gateway” device out in the field to connect them to the larger network (your AyrMesh network or the Internet). The Edyn sensor is an exception, because it connects directly to your WiFi network, but it is primarily aimed at gardeners, not commercial agriculture. Davis Instruments uses the weather station as the Gateway device, which makes it simple, but it does not use a meshing system, which limits how many sensors you can deploy. For almost all systems, sensors are not directly on your network or the Internet – the field network is a special network that only “talks” to the gateway device, and the gateway device “talks” to a normal Internet Protocol network – and that is usually a cellular modem connected to the Internet.
A Gateway device for your sensor network (possibly multiple gateway devices if you want sensors in multiple fields), and
Cellular subscriptions for each gateway device.
This is a lot of “commitment” before you even figure out how to effectively use the sensors and the data that comes from them – thousands of dollars just to get started plus a monthly or annual commitment to get the data. These systems are being marketed primarily to folks growing wine grapes in California or vegetables in Arizona – high-value crops with severe water costs and restrictions.
There are changes coming, of course, but there are also ways to get started now with less commitment.
First, if you’re growing a few acres of cut flowers, organic vegetables, or other high-value, high-intensity crops, the Edyn system may be very useful. Put an AyrMesh Hub near your field and deploy the Edyn sensors and valves controllers. You don’t have to save a lot of time and water to justify the expense.
Davis Weather Envoy, courtesy of Davis Instruments
Second, Davis Instruments has a nice system that they don’t advertise much. Their Wireless Weather Envoy datalogger can be connected to any Ethernet network (e.g. a Remote AyrMesh Hub, an AyrMesh Receiver, or an AyrMesh Bridge) using their Weatherlink IP module. It can then connect to their Soil Sensor Station, which has up to four soil moisture and soil temperature probes. It will also connect to a Vantage Vue wireless weather station, which is a very high-quality, low-cost, integrated weather instrument cluster that you can put up in any field in a matter of minutes. There’s a small annual fee for their cloud-based Weatherlink service, but it makes the system VERY easy to use.
If you need more soil sensors, they also build an Envoy 8x, which has the ability to simultaneously “talk” to up to 8 stations – weather stations or soil stations – within about 1000 yards.
Either the Wireless Weather Envoy or the Envoy 8x can be tucked into the cabinet of the Tycon remote power system we recommend for field Hubs, Receivers, or Bridge radios, and powered from the auxiliary power output on that system.
Third, if you do want to deploy many soil sensors using a system like gThrive or Farmx, you can connect the gateways in each field to an AyrMesh devvice to avoid exorbitant cellular fees for each gateway device. Their gateway devices have Ethernet ports, so they can be connected directly to an AyrMesh Remote Hub, Receiver, or Bridge unit, and you can skip the cellular bills.
We’ll have more on weather and soil sensors – if you have questions or comments, please leave them here (for public response) or contact us.
We have been asked multiple times how to extend the AyrMesh network beyond the availability of plug-in power. The key, of course, is solar panels and/or wind turbines, along with batteries to hold the power when the sun isn’t shining or the wind isn’t blowing.
Tycon Power has solved this problem for us by developing an integrated system just for the AyrMesh products: Hub, Receiver, or Bridge radio. The product to use is their RPPL-1212-36-30 unit. You can buy it directly from Tycon at their store site. This system with the 30 Watt solar panel will work in most of the country that receives an average of 3.5 hours per day or more – the red and dark orange bands on the standard insolation map. For areas in the light orange or yellow areas on that map, you will need to add a second 30W solar panel (with mounting bracket) or a wind turbine to keep the batteries charged.
Tycon also makes larger systems for multiple devices. The RPST-1212-100-70 system will provide power for two or three devices – for instance, a Bridge radio and a Hub or two “back to back” bridge radios.
As with the smaller system, if you get less than an average of 3.5 hours of sunlight per day, you’ll need to augment the power generation of that system with an extra 70W solar panel (and mounting bracket) or the wind turbine.
Higher is better
What does it take to set this up? Two things: very rudimentary wiring skills to connect the batteries and the solar panel with the solar controller, and the ability to set up a strong mast or tower. In our tests, we used a 7′ tall free-standing pole, but, for practical use, you’ll want a much taller pole or tower, embedded into the soil with concrete. You need, of course, to get the radios up as high as practical, but at least 25 feet above any obstacles for maximum range. This may require the use of a pole with guy lines or even a tower.
The system provides Power over Ethernet (PoE) for the radios, just like the power supplies that come with the AyrMesh products. The mechanical considerations (attaching the solar panel and battery pack to the pole or tower) is extremely simple, using either U-bolts or hose clamps. Using this to extend your network out into your fields will enable you to use the AyrMesh Cab Hub to automatically move data off your in-cab computers and have WiFi coverage in your cab wherever you are on the farm.
If you have any questions about this, of course, please feel free to comment on this post or get in touch with us at email@example.com.
gThrive is one of the companies I have been watching for a while, because I thought their technology was interesting. I think that the use of sensors for monitoring soil conditions is an excellent example of what technology can do for agriculture, but the existing solutions out there are simply too expensive for use outside of very high-value crops.
gThrive took the approach of using modern sensor and microprocessor technology and mating it with low-cost packaging to create a new soil sensor with more “intelligence” at lower cost than anything currently available on the market – hundreds of dollars per probe instead of thousands of dollars, with more sensors on the probe than had previously been possible.
The probes are simply plastic stakes, each of which has several sensors, a low-power CPU, a battery, and a low-power data radio, which communicates with their gLink base station. The gLink base station must be connected to the Internet via either a cellular connection or WiFi. This means, of course, that it can be easily added to your AyrMesh network, allowing you to have soil probes in multiple fields without having to rack up massive cellular data bills.
All data from the stakes are uploaded through the network to gThrive’s web site, which you can access from anywhere with any Internet-connected device. It’s a simple, clean, efficient system, and they have just started selling their system at the recent World Ag Expo.
Seeing products like this come to market validates the reason we started the AyrMesh product line – to help farmers get more data, faster and cheaper, and be able to do more on the farm. Products like this can dramatically add to the value of your AyrMesh Wireless Farm Network, and vice-versa. We wish gThrive all the best and look forward to working with them and other companies bringing new network-connected products to the ag market.
Now you know how to select an IP Camera, set it up on your farm, and view it from wherever you are, on or off the farm, which may give you a greater sense of security by itself.
However, you can’t watch what’s going on 24×7, and, with most cameras, you can’t go back and see what happened a couple of minutes ago (or last week). If you want to incorporate cameras as part of a security system (which may also include things like driveway sensors, indoor motion sensors, window/door open sensors, and other devices), then you should, at a minimum have some sort of recording, and probably some sort of motion detection on the cameras. What I have found to be best is some sort of system that is continuously monitoring the cameras, and, when motion is detected, it records the previous several seconds of video and keeps recording until after the motion stops. That way, I find, I get a nice, clear video of the mailman coming up to the box every single day (and, if I choose, a text and/or email with a picture of the mailman within a few seconds of his arrival).
But, seriously, if you are having trouble with intruders (people breaking into your storage sheds or stealing Anhydrous), getting notification and pictures of them is a good idea. For that, you need a Network Video Recorder (NVR). An NVR is a device that plugs into your network and monitors your IP cameras, allowing you to view several cameras at once and go back to see what happened at a particular time. Most modern NVR systems also have motion detection and multiple alarm functions (including email and tripping a relay to set off an alarm).
Swann DVR with cameras, courtesy of Swann
An NVR is different from a Digital Video Recorder (DVR), although both can be useful tools for farm security. A DVR typically has a number of coaxial inputs for cameras, so you can attach 4, 8, or 16 cameras to the unit using coaxial cable and it will continuously record the video from those cameras. Most modern DVRs also have an Ethernet port so you can connect them to your network and monitor the cameras from wherever you are. A DVR can be very useful anywhere you want several cameras in a single physical location, like your home, workshop, or storage shed, where you don’t mind stringing wires. Most newer DVRs can also detect motion send you an email or other form of alarm when they do.
Foscam indoor camera with storage – the little microSD slot under the antenna – courtesy of Foscam
Some newer IP cameras even have the NVR capability built-in, usually via an SD card slot. They store either still images or video to the SD card continuously so you can just “back up” while you’re viewing the cameras.
Almost all IP cameras have some form of motion detection, but many of them are effectively useless. There are three types of motion detection:
Overall picture motion detection – this just looks for the number of pixels changing in the frame and alerts if that number rises above a certain level. Unfortunately, this is almost entirely useless, because, if the sensitivity is high, it will “alarm” every time the lighting changes slightly, and if the sensitivity is set too low, it won’t alarm at all.
Setting a “zone” so the camera will alarm when the door is opened – courtesy of networkwebcams.com
“Zoning” motion detection – this allows you to put rectangles into the camera’s frame and only alarm if there are changes inside those rectangles. This works better, but you still get a lot of “false alarms.”
Object detection, courtesy of Sitehound
Object detection – this is an algorithm that can pick out moving objects in the video stream and distinguish them from changes in the background. This means that you only get an alarm when something moves, and you can set the size of the object that will set an alarm so you don’t get called every time a gnat flies by.
Most inexpensive cameras use the first type of motion detection, which means the on-camera detection is worthless. Almost all other cameras use the second type of detection, which is not useless but still not great. Some high-end cameras can do object detection, but they’re pretty expensive.
The better idea is to have your NVR software do the detection and alarming, rather than the camera. There are two ways to do this: using a dedicated NVR (a small computer running embedded NVR software) or running an NVR program on a desktop computer that’s on 24×7. There are advantages to either approach.
Using a dedicated NVR is simple: you set it up, add the cameras to it through the onboard user interface, and forward a port to it on your router so you can access it while you’re away. QNAP is a vendor that makes a large range of standalone NVRs that are compatible with a wide variety of cameras. In all honesty, I have never been able to evaluate one, but customers have reported good results with them. Synology has developed a pretty good reputations, also – both brands are generally available on Amazon.
The downside to the dedicated NVR is that only some cameras are supported (although the brands mentioned above support a huge number of brands) and that it is difficult to evaluate the software to tell how well it will work for you. The vendors don’t really provide much detail about how they detect motion, what options are available, and what the units can do.
Ubiquiti Cameras and NVR, courtesy of Ubiquiti Networks
Some camera vendors like Vivotek, GeoVision, and Ubiquiti sell both cameras and NVRs to work with their cameras in an integrated package. Going that way makes it easier to know your cameras will work the the NVR, but more difficult to evaluate whether you have the right cameras and NVR for your operation.
The other option for an NVR is to use an NVR program on a computer that’s running all the time. There are several of these programs, but the two most popular are BlueIris and SightHound. BlueIris is less expensive and runs on any Windows PC; SightHound is more expensive, but has a number of important advantages:
It runs on either Windows or Mac computers;
it is very easy to install, configure, and use; and
it features an advanced object-detection motion detection.
I’m an unabashed fan of SightHound – I have written about it before on this blog – although I have used BlueIris and it is also very good. I also like the Ubiquiti system (Note: Ubiquiti builds the hardware for the AyrMesh system), although I find their software to be a bit too complex for most users. It also integrates with their mFi sensors and switches for security and automation.
Dropcam – courtesy of Dropcam
There is actually a third option – a camera that automatically loads its video to a “cloud-based” NVR. Dropcam is a system that uses nice, small, relatively inexpensive indoor cameras, which automatically send their video stream to their cloud servers, without the need for port-forwarding. I have also written about Dropcam before on this blog. The big advantages with Dropcam is that they are VERY easy to set up and use, and the company is now part of Nest (maker of the Nest thermostat), which is part of Google – they have the resources to keep this going and expand those products to do a lot more in the future. The disadvantages are:
They currently only make indoor cameras; there is no outdoor option, and the cameras are not designed for outdoor temperatures.
They charge on a per-camera basis for the recording function. They charge $10 per month/ $99 per year for the first camera and $5 per month/ $50 per year for each additional camera (that’s for 7 days of recording; they charges for 30 days of recording are 3x higher)
There is no way to directly view the camera – the only way to view it is through the Dropcam website. This is not a big problem practically, but it does bug me a little. Even without a subscription, you can view the camera through their website and get notices when motion is detected, which is nice.
Whatever cameras and NVRs you choose, you’ll need to connect the cameras to the network, connect the NVR to the network, and make sure the NVR is “talking” to the cameras. You can then port-forward to the NVR (remember about this from the router series?) in order to access it from the Internet; that way you don’t have to port-forward to each of the individual cameras. You’ll need to fine-tune the sensitivity of each camera in order to get appropriate “alarms” for movement. You’ll also need to set the alarms up so they contact you appropriately. Setting up an email alarm is relatively easy, and all the cellular phone providers give you an email address that goes through as an SMS text message – for instance, on Verizon, if the phone number is 555-123-4567, you can email “firstname.lastname@example.org.” That way you can get a text message on your phone whenever motion is detected.
So, now you have cameras set up in the critical parts of your farm, which you can view through your NVR, and you are set up to get alerts any time something moves in the field of view of those cameras. All of this, of course, is made possible because of your AyrMesh Network, covering your farm with powerful IP connectivity.
And there’s still a lot more you can do with the network… stay tuned!
There are a wide variety of IP (network) cameras available, ranging from the very inexpensive to the very good. That’s not to suggest that inexpensive cameras are not useful; it just means that you want to know which camera to use where.
If you just want to be able to see what’s happening on part of your farm, a cheap 640×480 (VGA size) camera will do a nice job. You can bring it up on your phone or tablet from anywhere on the farm, or port-forward to it to see what’s going on when you’re away. These cameras can be VERY inexpensive – from about $35 on Ebay – and they can work well for some applications; some are very small for indoor use, and some are built for outdoor use. The build quality on the very inexpensive ones is generally not great: one very inexpensive outdoor camera I purchased had the IC board held in place inside the housing with dabs of hot glue. That said, I still have it and it still works.
One thing to be aware of is that some inexpensive IP cameras require Internet Explorer to view the image on the camera. While this works with your laptop, it may keep you from seeing the camera on your phone or tablet (or they may offer a reduced-quality video stream for your phone or tablet), and it may prevent the camera from being integrated with a Network Video Recorder into an overall security system. If Internet Explorer is one of the requirements for the camera, I generally recommend against its use.
There are three major factors contributing to the quality of an IP camera:
Camera sensor chip
1.) Image sensor – the size (1/4”, 1/3”, or larger) of the sensor and its resolution (640×480, 1024×720, 1280×960 or 1280×1024) – in general, the larger the better.
2.) Optics – good optics make a big difference. A full-HD (1280×1024) camera with a crummy lens is less useful than a VGA (640×480) camera with a sharp lens. Unfortunately, it is impossible to evaluate the quality of a lens from the specifications of the camera – the price of the camera is a reasonable, but not entirely reliable, proxy. Some cameras offer different “sizes” of lens – for instance, a 3.6 or even 2.8 mm wide-angle lens or a 6 or 8 mm telephoto lens. Obviously, what you are watching will determine what kind of lens you need.
3.) Firmware – the software running on the camera itself determines how easy it is to use and the features available. For instance, inexpensive cameras may offer MJPEG video streams and motion detection based on the entire scene the camera is surveying, while better cameras will offer h.264 streaming (which uses less bandwidth and better framerates – frames of video per second), and the ability to detect motion in specific zones of the camera’s picture.
The internal electronics and build quality of the camera make a difference, of course, but that is generally only an issue with the lowest-cost cameras – my own experience is that any name-brand camera costing more than $100 has adequate hardware and good build quality.
Here are three examples of IP cameras that I have purchased and evaluated, with specific comments on each.
Cheap Ebay Camera
View through the cheap camera
1.) No-name $35 Outdoor WiFi Camera from Ebay (China). This little camera is actually one of my favorites. It has an adequate lens, a good, strong case, 640×480 resolution, and uses MJPEG for video. It sends about 4-5 frames per second, which is adequate for most purposes. It also has infrared (IR) LEDs in front for nighttime illumination. The biggest advantage this camera brings is that I can use it as a “scout” camera to see if I want to put a better camera in a particular place, and, if it gets kicked or dropped or destroyed, I won’t cry over it – I typically buy then 3 or 4 at a time and, if they have problems, I just throw them away.
View through Agasio Camera
2.) Agasio outdoor WiFi Camera. The specs on this camera are identical to the “no-name” camera above (WiFi, 640×480, MJPEG), but with more IR LEDs for better nighttime performance and a mechanical IR filter for better color in low light conditions. I am not actually sure the IR filter is that useful (and Foscam sells an identical camera without the IR filter), because it can fail in cold weather and make the picture look very odd as the filter clicks continuously in and out). I consider this (and the similar Foscam camera) the “workhorse” – it’s inexpensive and it works well, and Agasio/Foscam (they’re the same company) has an office in Houston you can call if you have trouble. I use these at my house to keep an eye on the yard, but I don’t use the motion detection capabilities because it’s very difficult to use effectively: if you turn the sensitivity down, you won’t capture motion when it happens, but, if you turn it up, you’ll be getting alarms every sunrise, sundown, and every time a cloud crosses the sun.
Axis indoor camera
View from Axis camera
3.) Axis indoor WiFi camera M1031-W. Axis is generally acknowledged to be the highest-quality IP camera vendor, and appropriately priced. This is their lowest-cost unit, but it clearly shows the difference between their quality standards and those of the lower-cost cameras. Even though this camera has only a 640×480 sensor and a tiny lens, the picture is excellent and the firmware is very easy to use yet feature-filled. It offers several different kinds of streaming (MJPEG, h.264) and the ability to detect motion in “zones” you can select with a little Java applet on the camera. I use these cameras to protect my house, although I do get false alarms from it.
That’s a quick overview of the “cheap and the good” of the IP camera world. If you are just looking to have a camera on your farm that will allow you to see some critical item when you need to, I generally recommend one of the Foscam WiFi or Ethernet cameras. For more critical tasks, such as keeping an eye on a foaling mare, I generally recommend an appropriate Axis camera.
Outdoor Point-Tilt-Zoom (PTZ) camera
One handy thing you can do is have a camera way up on a pole or tower that you can swivel around and zoom in in any part of the farm. The Axis outdoor Point-Tilt-Zoom cameras can give you an amazing view of your property, but you’ll need to connect them to your network with an Ethernet cable (or an AyrMesh Hub, Receiver, or Bridge), because they don’t have WiFi. You’ll also need to mount them to something secure, because movement in the camera will make the quality of the picture moot.
Next, we’ll look at putting together a system of cameras for home and farm security, including cameras and Network Video Recorders – see part 3 here.
A USB Cellular adapter (mine is from FreedomPop, because they provide good coverage where I work and are extremely inexpensive, but I also have a Verizon one I use in more remote areas)
A 20′ telescoping flagpole – these are available from lots of places; mine is from Harbor Freight Tools because it was inexpensive. There are better-quality poles (and longer ones) available.
The way I set it up is like this:
Inside the cab of my truck, I use a 2-way utility plug extender plugged into the “always on” utility plug.
Router plugged into USB power, with USB dongle
I plug a USB charger unit into one of the plugs. The router runs off USB power, so it plugs right into the charger, and the USB cellular “dongle” plugs into the router.
Inverter, Hub power supply, and Ethernet cables
I then plug a small inverter into the other power plug, and plug the Hub’s power supply into the inverter. I run a short Ethernet cable from the “LAN” port on the Hub’s power supply to the Ethernet port on the router, and plug a 30′ Ethernet cable into the “PoE” port of the power supply
I then run the long (orange) Ethernet cable out through the side window of my truck so it can be connected to the Hub.
I mount the Hub on the flagpole with a zip-tie, and connect the long Ethernet cable to the Hub.
Hub mounted on pole
After making sure the Hub is on and connected to the Internet, I push the mast up to maximize the range of the Hub.
Pole extended, ready for use.
I can then set up a Cab Hub in a vehicle and use the Internet while I’m working, up to 2.5 miles from my truck.
This setup is not perfect for use on very windy days, because the flagpoles can move around and reduce the effectiveness of the Hub.
The other caveat is that you’ll want to locate the Hub at a high location so it receives a good cellular signal and maximizes the Hub’s WiFi signal. This only works well if you have a place with good cellular coverage and good “line of sight” to your fields.
Recently I have swapped out the power inverter and power supply for a power plug and a “passive PoE injector,” which actually makes the setup a little simpler. I also have a Verizon USB “dongle” that I sometimes use when I’m testing.
Setup with PoE injector and Verizon dongle
This setup is frequently very handy for me, and it can be very useful for you to use in remote fields. You lose the advantages of being connected to your “home” network (being able to browse files on your local machines or print to networked printers), but you should have good Internet connectivity for collecting data to the “cloud,” browsing the Internet, checking email, etc.
Many people start building an AyrMesh network on their property to provide Internet access across their acreage. However, having an Internet Protocol (IP) network across your property gives you the opportunity to connect devices on the property to help you be more productive, more efficient, safer, and happier.
When I ask people what else they’d like to do with their AyrMesh Network, the first thing that usually comes up is cameras – the ability to see their property remotely.
There are two distinct reasons for putting cameras on your property: the first is what I call “situational awareness” – being able to bring up a view of some part of your farm any time you want. The second is for security – automatically monitoring some view of your property and alerting you when something happens.
If you have animals on the farm, you probably worry about them – especially if your livelihood is tied up in them. One of the most common uses for cameras on the farm is to be able to check on the animals, whether it’s just so the kids can see the horses when you’re away or if you need to check on farrowing sows, calving cows, or foaling mares to protect your investment.
A lot of people also just want to be able to view some part of the property, like the driveway or the kid’s play area, so they can know what’s going on any time. Sometimes these cameras may be dual-purpose, serving both a security function and for situational awareness.
Putting a camera on your property gives you a “view” – you get the IP address of the camera from your router and you can bring up that view from anywhere on your property. Then you can do what’s called a “port forward” on your router to make your camera viewable from the Internet, wherever you may be. For instance, I always forward port 9001 to a camera in my living room. I can look at my public IP address on AyrMesh.com and find that it’s 188.8.131.52 (it’s not, but let’s pretend…), so I just need to point a browser to http://184.108.40.206:9001 and log into my camera (note: you HAVE to have a good, strong password on your camera).
Next we’ll talk a little about the different kinds of IP cameras and the tradeoffs and compromises you can make – see part 2 here.