- 1 GPS Car Tracker With No Monthly Fees
- 1.1 GPS Data Logger
- 1.2 Do You Have To Pay A Monthly Fee For GPS?
- 1.3 GPS Vehicle Tracking Device No Monthly Fee
- 1.4 Best GPS Auto Tracker No Monthly Fee In 2019
- 1.5 Vehicle Tracking With Passive GPS Data Logger
- 1.6 Vehicle Locator With No Monthly Fee
GPS Car Tracker With No Monthly Fees
GPS Data Logger
Do You Have To Pay A Monthly Fee For GPS?
GPS tracking systems provide a significant value to businesses, consumers, and law enforcement agencies because the technology allows those groups to receive comprehensive reports related to vehicle driving activity. But what about smaller businesses who can’t afford live GPS trackers? Is there an answer for families on a budget who want to track a teen driver but can’t afford real time GPS data monthly data plans associated with live GPS tracking? The real question is “Do you have to pay a monthly fee for GPS?“, and the answer is NO because GPS data loggers are providing the solution to tracking a car without paying any monthly fees!
GPS Vehicle Tracking Device No Monthly Fee
GPS Data Logger Features
- GPS Data Recorded Every Second
- No Installation Required
- Compact Water-Resistant Housing
- Records Addresses Arrived/Departed
- Documents Speeds Driven & Maximum Daily Speed
- Easy Outside Placement With Magnet Mount
- NO SERVICE FEES
Best GPS Auto Tracker No Monthly Fee In 2019
GPS Spy Tracker For Car
Driving Activity Reporter is the most widely-used passive tracking system by consumers, businesses, and law enforcement, making the GPS data logger the best GPS car tracker with no monthly fees! Only requiring two AAA batteries, the car tracker with no monthly fees records driving information every second that includes vehicle speed driven, stops made, and more. NO cumbersome wires, download cables, or external antennas, make Driving Activity Reporter one of the simplest passive tracking systems to command.
How To Use GPS Tracker On Car
- Place GPS tracker inside or outside of the target vehicle
- Tracking device records comprehensive driving activity
- Remove GPS tracker from vehicle, download data, and see everywhere any driver went!
Driving Activity Reporter has provided the truth to parents who have teenage drivers, law enforcement agencies, people in relationships suspecting infidelity, and small businesses with mobile resources.
Vehicle Tracking With Passive GPS Data Logger
Top 5 Car GPS Tracker Features
1. Affordable GPS Tracking With No Fees
For $169.00, or less than the annual price of a gym membership, Driving Activity Reporter will provide users with all of the answers to the unknown driving habits of a teen driver, employee operating a company vehicle, and so much more. Tracking a car every single second has never been more affordable with this hidden GPS tracker with no monthly fee. What makes this vehicle tracking system special compared to live GPS trackers on the market is that Driving Activity Reporter requires NO ACTIVATION FEES or NO MONTHLY SERVICE FEES of any kind for the life of the GPS tracker! This is because the micro car tracking unit is a GPS receiver, not a real time GPS device that is dependent on cellular service. That means it is a car tracker with no monthly fees!
2. Hidden GPS Tracker No Monthly Fee: Driving Activity Reporter
Live GPS trackers require users to pay a monthly service in order to access vehicle tracking information, and some GPS companies even require users to sign a one (1) or two (2) year service contract. Real time GPS tracking devices can cost as much as $44.95 a month for live updates every 3 seconds, but GPS data loggers can record driving activity every single second! This means users get a GPS tracker with no monthly fees! Consumers and businesses looking to receive exceptional and accurate GPS tracking data at a bargain price need to look no further than the Driving Activity Reporter.
3. Online GPS Tracking Software
Since GPS data loggers (GPS tracker no monthly fee) do not have the ability to transmit vehicle location in real time where people can track a car from their phone, users most download GPS tracking data to see where an automobile has been. Once GPS tracking data has been transferred from device to computer users will have the unique opportunity and option to view GPS tracking data in one of the three (3) different ways:
- Digital Street Map Program: Where users can playback historical driving activity.
- Detailed Reporting Program: That provides every stop a driver made, and all the travel history in a text/report.
- Google Earth Satellite Image Program: A free program, Google Earth will display travel data over satellite imagery, allowing users to see exactly what parking space a driver parked in, or what color the house was they stayed at overnight.
4. International GPS Tracker
Driving Activity Reporter is classified as a data logger and therefore only receives GPS information from the network of satellites orbiting the Earth. Since the Driving Activity Reporter does not transmit or transfer data, it can record positions anywhere on the globe! The Driving Activity Reporter will work in any location even if no Internet, cellular or radio service is present, making it the best international GPS auto tracker on the market today!
5. Where Is The Best Place To Put A GPS Tracker On A Car?
Place the car tracker with no monthly fees on a vehicle, remove it after travel activity, and download the GPS tracking data when it is time to review where any driver has been! Driving Activity Reporter has no on/off switch because innovative engineers designed the car tracking device with a motion sensor that automatically powers the tracking system up the moment a vehicle begins to move and powers down the GPS car tracker after 2.5 minutes of holding a stationary position. The motion sensor helps retain battery life, allowing Driving Activity Reporter users to record an average of 37 hours of vehicle-in-motion driving time, or approximately 3-4 weeks of driving data on a single lithium battery life cycle (High-grade AAA batteries). Below are some of the best places to put a GPS tracker on a car:
- Underneath The Automobile
- Inside The Glovebox
- Front Bumper
- Under Bug Shield
- Inside A Car Seat Cushion
- Clipped Onto Sun Visor
- Under Front/Passenger Seat
- Inside Speaker
Vehicle Locator With No Monthly Fee
Driving Activity Reporter Specifications
- Maximum Number of Satellites: 16
- Horizontal Accuracy: 7 Feet (2.5 Meters)
- Communication Protocol: NMEA
- Data Output: Flash Memory (Non-Volatile)
- Storage Capacity: Approx. 100 Hours of Driving Time
- Operating Systems Supported: Windows & Mac OS
- System Requirements: CPU: Pentium 3,500 MHz RAM: 128 MB Hard disk: 400 MB free space Network speed: 128 kb/s Graphics card: 3D=capable w/ 16 MB or VRAM Screen: 1024 x 768; 16-bit High Color screen
- Recommended Configuration Supported: CPU: Pentium 4 2.4 GHz+ or AMD 2400 xp+ RAM: 512 MB Hard disk: 2 GB free space Network speed: 768 kbs/sec Graphics Card: 3D-capable w/ 32 MB of VRAM Screen: 1280 x 1024; 32-bit True Color screen
- Power Source: 2 x AAA Batteries
- Battery Life: (Approx.) 1 Hour Per Day: 3 Weeks. 2 Hours Per Day: 2 Weeks. 4 Hours Per Day: 1 Week
- Power Draw: Track Mode: 49 mA Sleep mode: 0.072 mA
- Sleep Mode Entry: 2 Minutes Without Movement
- GPS Acquisition: Cold Start Time 41 seconds/ Warm Start 33 seconds
- Housing Material: Water-Resistant ABS Plastic
- Mount Type: Exterior Magnet On GPS Tracker
- Operating Temperature: -15 to 185°F (-26 to 85°C)
- Dimensions: (L x W x H) 3.8 x 1.5 x 1.3″ (96.5 x 38.1 x 33.0 mm)
- Weight Not Specified By Manufacturer
How does a GPS receiver work?
So about those trackers: If they don’t use a cellular signal to track the device, how do they work? Passive GPS trackers use GPS data loggers. That is, they keep track of where the device is at all times, provided it has power (whether battery-operated or plugged into the vehicle’s power) and log that data on the device itself.
This is done with a GPS receiver. But how does a GPS receiver work?
First, there are satellites that make up the Global Positioning System (GPS) network. There are currently 31 of these earth-orbiting satellites in operation. Developed by the American military, these satellites are in constant orbit, making two complete rotations around the earth at a height of 12,000 miles above the earth’s surface. Their orbits are designed so that no matter where you are on Earth and no matter what time it is, you should always have at least four satellites visible (if you could see that high, that is) in the sky above you.
A GPS receiver does the work of locating those satellites, determining the distance to each based on the time it takes to get a high-frequency, low-power radio signal from the satellite and the satellites’ known location, and then determines its own location based on the distance to each of the four (or more) satellites. This process works using the mathematical principle of trilateration.
Let’s start by thinking of two-dimensional trilateration, and then we can explore better how it works in three-dimensional space.
Let’s say you’re lost somewhere with no idea where you are. A stranger walks by and tells you you are 690 miles from Minneapolis. Now, that’s great—but absent any other information, isn’t in and of itself very helpful information. You could be anywhere on the circle with a radius of 690 miles from Minneapolis.
Let’s say a second stranger walks by and tells you you are 615 miles from Tuscon. That’s a little more helpful, because now you know you are in one of the two places where the Tuscon circle and Minneapolis circle might intersect. (Think of it like a Venn diagram of sorts.) If a third stranger tells you you are 625 miles from Boise, however, you can determine exactly where you are—because there’s only one place on earth that is at the intersection of those three circles. And sure enough, Denver is 690 miles from Minneapolis, 615 miles from Tuscon, and 625 miles from Boise.
It gets a little bit trickier with three-dimensional space because you’re looking at spheres rather than circles, but the principle remains the same. By the time you introduce three satellites, for instance, those spheres intersect at only two points—and only one of those points can be on Earth. GPS receivers use four satellites, however, instead of three to help ensure greater accuracy as well as to determine elevation.
As a result, if the GPS receiver knows
- The location of at least three (and ideally four) satellites in the sky above, and
- the distance between itself and each of the three (but ideally four) satellites, then
- it can determine its location using trilateration.
The best GPS tracker units have multiple receivers, so that it can it pick up signals from multiple satellites simultaneously.
And because the receivers know that radio waves travel at the speed of light, they can determine how far they are from each satellite based on the atomic clock time signature of when the radio wave was sent and the time it took for that signal to get to the receiver.
Actually, it’s a little more complicated than just having a time signature. Instead, both satellites and receivers run digital patterns of code; the receiver knows how long a signal from the satellite took to reach the receiver by noting the lag in the code. This means the receivers don’t need an expensive atomic clock (which can run $50,000 or more!). Instead, because each satellite has an atomic clock, the receivers can get away with having quartz clocks that don’t need to be quite as accurate. The receiver can simply look at the time signals from the satellites and gauge its own inaccuracies, correcting to that time value.
This works because using four satellites to determine a location builds in redundancy and allows the receiver to determine how the distances are off proportionally (since all of those distances will have been determined using its own clock). After determining that margin of error, the receiver can then automatically reset its clock based on the satellites atomic clocks. And because it does this constantly anytime it is getting radio signals from the satellites, the receivers are guaranteed to be nearly as accurate in keeping time as the atomic clocks on the satellites.
Another piece that helps the receivers stay accurate? An understanding of when and where each of the satellites should be. By storing an almanac of upcoming satellite locations, the receivers know where to look and another layer is built in that can help catch errors, especially as the Department of Defense is constantly monitoring each of the satellites exact positions so that they can update the almanac when variance results (such as courtesy the gravitational pull of the moon and sun, for instance).
There are still other areas where errors can pop up, however. For instance, the earth’s atmosphere slows radio signals at different rates depending on where you live and what the atmosphere is like in that location, making it difficult to account for that slowing. Similarly, objects such as skyscrapers, mountains, and anything else that might disrupt that “line of sight” to the satellites can create a bouncing signal, which also introduces error. Finally, satellites also sometimes send out bad data, meaning they misreport their own location.
In general, though, the most essential function of a GPS receiver is to lock in on at least four satellites, use the timestamp data to determine the distance to each of those satellites, and use trilateration to determine the receiver’s own location, which the GPS data logger then stores until someone next downloads the data files from the passive GPS tracker.
As a result, passive GPS trackers or no monthly fee GPS trackers often contain the following bits of information:
- How far the receiver has traveled, much like an odometer
- Where the receiver traveled, often as a map overlay
- How long the receiver traveled
- The speed(s) at which the receiver traveled
- The average speed at which the receiver traveled
How accurate is a GPS receiver?
That varies. GPS-enabled phones, for instance, are usually accurate within 5 meters (16 feet). Better GPS receivers are obviously more accurate; signal transmission (that is, the signal transmitted by the GPS satellites) is 95% accurate within 1 meter (3 feet). Even if most receivers aren’t quite up to that standard, some receivers get closer than others.
Lots of things can affect that accuracy, however, some of which we’ve discussed previously. For instance, anything that might affect that line of sight to the GPS satellites (including underground use, buildings, bridges, trees, etc) will also affect accuracy. Similarly, atmospheric considerations that affect accuracy include solar storms, radio interference, and more. There can also be issues with the receiver itself, or with the GPS’ mapping software, which can, in turn, lead to accuracy issues or, at the very least, perceived accuracy issues.