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Digital Guard Dawg PBS II Wiring

Picture of the Digital Guard Dawg PBSII System

Picture of the Digital Guard Dawg PBSII System

Our Infinitybox system plays nicely with any other electrical accessory that you would want to install in your hot rod, restoration, resto-mod, street rod, kit car or pro-touring build.  This blog post is going to cover the Digital Guard Dawg PBS II wiring.  It will show you how to connect the PBS II push-button start PKE module to your Infinitybox 20-Circuit Kit.  This gets you the passive keyless entry features of the Digital Guard Dawg PBS II paired with the power and flexibility of the Infinitybox system.  We have blogged before about wiring their iKey system into our Infinitybox system.  You can see that post by clicking this link.

Before you go anywhere, it is very important that you thoroughly read and understand the manual for the Digital Guard Dawg PBS II.  You can access that by clicking this link.  Once you are familiar with their instructions, it is time to get into the Digital Guard Dawg PBS II wiring and the Infinitybox system.  This blog post is only going to cover the connections between the PBS II and the Infinitybox system.  Follow their instructions for all constant power and ground connects.  Also follow their instructions for wiring their push to start button and their training button.

The PBS II will give you passive keyless entry (PKE) capability for your car.  As you approach the car, the PBS II system detects the presence of the key fob in your pocket.  It engages the ignition and lets you start the car.  The PBS II connects to the MASTERCELL of your 20-Circuit Kit and replaces the need for a traditional ignition/start switch.  This diagram shows the necessary connections that you need to make.

Picture of Infinitybox wiring diagram showing to to wire the Digital Guard Dawg PBSII

Picture of Infinitybox wiring diagram showing to to wire the Digital Guard Dawg PBSII

The PBS II will send the signals to the MASTERCELL for the ignition and the starter.  When the MASTERCELL sees these inputs turn on, it will send the required signals to the POWERCELLs to power your ignition and starter outputs.  The PBS II wires for the ignition and starter are positive signals.  The MASTERCELL requires ground triggers for the inputs so you will need to wire in our inVERT Minis to buffer their positive signal.  You can learn more about the inVERT Mini and purchase them at this link.  The diagram above shows where to put the inVERT Minis in the circuit.

The PBS II also needs a signal to know that you are stepping on the brake pedal.  This signal must be positive 12-volts.  Since our MASTERCELL inputs work by being triggered to ground, you cannot get this positive brake signal from the brake pedal switch directly.  You need to get this from the POWERCELL output for the brake lights.  You can simply splice into the brake light output on the rear POWERCELL.  Alternately, you can use an OPEN output on the front POWERCELL as the brake pedal trigger.  You would wire the corresponding input to your OPEN output to the brake pedal switch, in parallel with your usual brake light input.  Doing it this way keeps the run of wires in the car short.

The PBS II also has provisions to control door locks and trunk poppers.  If you purchased inMOTION for your Infinitybox system, you can wire the MASTERCELL inputs for your door locks to the Unlock and Lock signals on the PBS II Accessory Harness.  We recommend using a diode to isolate the MASTERCELL from any stray voltages that may exist in the PBS II.  This diode should be a 1N4001 and must be oriented per the diagram above.  These inputs will not work if the diodes are installed incorrectly.

The PBS II also has provisions to control a trunk popper from their key fob.  You can take any of the OPEN outputs on your rear POWERCELL to control you trunk popper.  You would wire the corresponding MASTERCELL input to the white Trunk wire in their accessory harness.  Just like the signals for the door locks, we recommend isolating the MASTERCELL inputs from the PBS II with a 1N4001 diode as shown in the wiring diagram.

You can download a PDF version of this wiring diagram by clicking this link.

Please contact our team if you have any questions about this Digital Guard Dawg PBS II Wiring diagram.  You can reach out team by clicking this link.

Passive Keyless Entry Integration

Our customers are very creative.  They are looking for the latest electrical features in their restorations, resto-mods, street-rods, kit cars and Pro-Touring builds.  The Infinitybox system is the only electrical system on the market that can get them the flexibility and the power to fulfill their most creative requirements for their cars and trucks.  We just got this example from Charlie B.  He’s restoring a 1971 Corvette and wanted to integrate a Passive Keyless Entry system into his car.  Check out how he did it with our Infinitybox system.

Charlie is wiring his Corvette with our 20-Circuit Kit.  He wants to integrate as many of the C6 Corvette features as he can into his car.  This includes the Passive Keyless Entry feature and the power door latches found in newer cars.  He purchased a set of the C6 door latches and fabricated them into the B-pillars of the car.  These latches take a 12-volt signal to let you open the door.  He also purchased the C6 door handles that have switches built into them.  When you pull on the handle, it closes a switch that is designed to send a signal to the C6 body computer to trigger the latches.  In this case, our Infinitybox system replaces the body computer from General Motors.

Charlie also purchased the Directed 2102T Passive Keyless Entry System.  He wants to replicate the features of the modern Corvettes in his resto-mod.  When he is away from the car, he wants it to be secured.  The doors can’t open and the car cannot start.  When he approaches the car, he wants to be able to pull on the handles to open the doors and press a button to start the engine.  Our Infinitybox system lets him do all of this.

Even before you get into the Passive Keyless Entry integration, our Infinitybox system has a built-in one-button start feature.  From a single button you can manage your ignition and starter.  You can click on this link to learn more about our One-Button Start.  This makes Charlie’s one-button start requirement easy.  It is standard with every Infinitybox kit.

The 2102T has an output that is called the Starter Kill Output.  It is on the 10-position black connector on the 2102T harness.  The Starter Kill output does exactly what it sounds like.  It is a ground switched output, designed to interrupt the starter relay in the car.  It connects to the ground side of the relay coil.  When the PKE transmitters are out of range of the car, this circuit opens to disable the ability to crank the starter.  When the PKE transmitters are in range of the car, the Starter Kill Output closes and creates a path to ground for the starter relay.  This lets you start the car.

In Charlie’s case, he wants to limit the ability to open the doors of the car and start the car using our one-button start.  For all of these switches, he used the Starter Kill Output on the 2102T to interrupt the ground path for his one-button start switch and the switches for his doors.  The following diagram shows the details.

Image of Infinitybox wiring diagram showing how to limit MASTERCELL inputs using the Directed 2102T Passive Keyless Entry System

Image of Infinitybox wiring diagram showing how to limit MASTERCELL inputs using the Directed 2102T Passive Keyless Entry System

Our MASTERCELL inputs are triggered by a connection to ground.  You connect the input to your switch then ground the other side of your switch.  Turning on the switch closes the circuit to ground, which turns on the MASTERCELL input.  The MASTERCELL then sends a command to the POWERCELLs in the system to control your outputs.  This link will get you more detail on how the MASTERCELL inputs work.  If anything interrupts the electrical path from the MASTERCELL input to ground, the MASTERCELL input will not turn on.  Charlie’s using the Starter Kill Output on the Passive Keyless System to interrupt the ground path to control when his switches will work.

For his one-button start, he connected the MASTERCELL input to one side of his switch then connected the ground side of this switch through a diode to the Starter Kill Output.  He will only get a path to ground for the one-button start switch when his PKE transmitter is in range of the car.  When the transmitter is out of range, pushing the one-button start will do nothing.

For his door latches, Charlie picked two open outputs on his rear POWERCELL.  He wired these outputs to the door latches in the B-pillars and grounded the latches to the chassis.  Then he took the MASTERCELL inputs that corresponded to the POWERCELL outputs and connected them to the switches in the door handles.  Instead of grounding the door switches to the chassis, he connected the ground side of the switch to the Engine Kill Output on the 2102T with a diode in series.  When he pulls on the door handle, the switch in the handle closes.  The MASTERCELL input will get connected to ground when the PKE transmitter is range and the Starter Kill Output is on.  This will cause the MASTERCELL to send a command to the POWERCELL to send 12-volts to the door latch to open the door.

The diodes in this circuit are very important.  They isolate the three inputs from each other so that they can operate independently.  Without these diodes, all three MASTERCELL inputs would turn on if you turned on any one of the switches.  The diodes that we recommend are 1N4001 and can be purchased from any on-line electronics seller.  The orientation of the diodes are very critical.  Diodes are like check valves and they must be oriented in the correct direction.  For this circuit, the cathode must be oriented away from the MASTERCELL input.  The cathode end is the one with the stripe on it.

This simple wiring set up gives Charlie all he wanted for his car security.  If anyone walks up to the car without his PKE transmitters, they can pull on the door handles and nothing will happen.  The doors will not open.  If they were to get inside the car and press the one-button start, nothing would happen.  The car would not start.

If Charlie approaches the car with his PKE transmitters, the 2102T activates and enables the switches for the doors and the one-button start.  He can pull on the door handle and the doors will open.  He can get in the car and press his one-button start.  The engine will start.  All of these features are exactly like what you get in a modern Corvette.

You can download a PDF of this wiring diagram for your project by clicking this link.

Please click this link to contact our technical support team if you have any questions about wiring your car or truck with our Infinitybox system.  

Picture of the Digital Guard Dawg iKEY System

Digital Guard Dawg iKEY

We always say that our Infinitybox system plays nicely with any other piece of automotive electronics.  We have our own remote keyless entry system with inLINK and our one-button start feature is built into all of our 10 and 20-Circuit Kits.  Some of our customers like to use  push-button start feature and Passive Key Less Entry (PKE) system manufactured by other companies.  This post will go through the details of connecting the Digital Guard Dawg iKEY system to the Infinitybox system.

Before we go any further, you must thoroughly read and completely understand the manuals that come with your Digital Guard Dawg iKEY system.  In the case of this system, there are two manuals.  One for the push-button start module and one for the PKE module.  This blog post is only going to describe how to connect the wires that are relevant to the Infinitybox system.  Carefully follow the instructions for all of the other connections to their harnesses including power and ground.

By connecting the Digital Guard Dawg iKEY to the Infinitybox system, you get all of the advantages of Infinitybox plus the PKE features of the iKEY system.  The iKEY system has several outputs that are +12 volts and ground switched.  The Infinitybox MASTERCELLs work on ground signals.  You will need to use our inVERT Mini‘s to connect the +12 volt outputs to the MASTERCELL inputs.  Failure to do so will damage the inputs on the MASTERCELL and will void your warranty.  Also, you must use a diode to isolate the ground outputs on the Digital Guard Dawg iKEY from the MASTERCELL inputs.  Failure to do this could result in damage to the inputs and will void your warranty.  You can use a 1N4001 diode easily sourced from any electronics store.  Also note that the orientation of the diode is critical.  Please pay attention to this in the wiring diagrams.

Please note that the wire colors and connector locations shown in the following diagrams may not match your system exactly.  We have several different configurations.  Please reference the configuration sheet that came with your kit for the exact wire colors and connector locations.

The following diagram shows you how to connect the Push-Button Start module to the MASTERCELL inputs and POWERCELL outputs of your Infinitybox system.

Picture of the wiring diagram showing the Digital Guard Dawg Push Button Start Wiring with the Infinitybox System

Picture of the wiring diagram showing the Digital Guard Dawg Push Button Start Wiring with the Infinitybox System

Here are the details:

  1. Digital Guard Dawg has a dedicated harness with Negative Ignition Outputs designed to work with our Infinitybox system.  You can use this harness to connect directly to the MASTERCELL inputs for the Ignition, Starter and Accessory.  The yellow wire in their harness connects to your starter input.  The green wire connects to your ignition input and their white wire connects to your accessory input.
  2. Connect the Black wire from the accessory harness to the neutral safety or clutch interlock switch.  This is the same switch used for the neutral safety input going to the MASTERCELL.  Be sure to wire in the diode to isolate the MASTERCELL input from the Push-Button Start module.
  3. Tap off of the brake light output on your rear POWERCELL and connect that to the Brown wire on your accessory harness.

This diagram will show you how to wire the PKE module to the Infinitybox system.

Picture of the wiring diagram showing the Digital Guard Dawg PKE Wiring with the Infinitybox System

Picture of the wiring diagram showing the Digital Guard Dawg PKE Wiring with the Infinitybox System

Here are the details.

  1. Connect the Brown wire on the power harness through a diode to an optional input for a trunk popper.  Not all of our systems may be set up for this feature.  Your system may need to be updated to add this.
  2. Connect one of the Grey wires from the power harness to an inVERT Mini.  Tap into the MASTERCELL input for the parking light and connect that to the MASTERCELL side of the inVERT Mini.
  3. Connect the Green and Blue wires from the power harness to the optional inputs for door lock and unlock.  You need to have inMOTION for this option to work.  The MASTERCELL inputs must be isolated from the PKE module by diodes as shown in the drawing.
  4. Connect the Purple wire from the power harness to your MASTERCELL input for the horn through a diode.
  5. Connect the Green wire from the accessory harness to the pin switches on your doors.  This is the same switch used for the interior lights input going to the MASTERCELL.  Be sure to wire in the diode to isolate the MASTERCELL input from the Push-Button Start module.
  6. Tap off of the brake light output on your rear POWERCELL and connect that to the Brown wire on your accessory harness.

You can download a PDF version of this wiring diagram by clicking this link.

If you follow these instructions, you can get the full functions of the Digital Guard Dawg iKEY system.  You can pop your trunk and control your door locks from their system.  You get PKE functionality from their remotes.  You get their one-button start feature.

Click on this link to contact our technical support team with additional questions about connecting your Digital Guard Dawg iKEY system to our Infinitybox system.