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Dakota Digital GSS-3000

This blog post will show you the connections that you need to make between your Infinitybox 20-Circuit Kit and the Dakota Digital GSS-3000 Universal Gear Shift Sender.  The GSS-3000 is designed to drive the gear selector indicators on your dash from any automatic transmission.  Their kit has a rotary potentiometer that connects to the shift linkage on the transmission.  It learns the position of the different gears and sends signals to indicators on your dash to show you what gear you are in.  It is a simple and clever product.  The Dakota Digital GSS-3000 has contacts that are designed to drive your back up lights when you have the transmission in reverse.  It also has a set of contacts for a Neutral Safety Switch.  This sends out a signal when the transmission is in park or neutral and it is safe to start the engine.  Your Infinitybox system can take in these two signals to easily drive your back up lights and manage your Neutral Safety Switch.  Keep reading to learn more.

Before you go any further, it is important that you read and carefully understand the instructions for your Dakota Digital GSS-3000 Universal Gear Shift Sender.  You can download these instructions from their website by clicking here.  This blog post is only going to cover the ignition power to the GSS-3000, the neutral safety signal and the connection to the back up lights.  Please follow their instructions for the rest of the wiring to the module.  This picture will show the wiring diagram for the connections to the GSS-3000.

Picture of Infinitybox Wiring Diagram for the Dakota Digital GSS-3000

Picture of Infinitybox Wiring Diagram for the Dakota Digital GSS-3000

First, you need to provide key-on ignition power to the module.  When the key is in the run position, the module will get its power.  You’re going to tap into the ignition output on your front POWERCELL.  Check your configuration sheet for the wire color for your ignition output.  You can splice into this wire directly or you can use one of our Splice Saver Kits to make a simple and clean connection for ignition power.

Next, you can take their Back Up signal and use it to control the back up lights in the back of you car.  The advantage of doing it this way is that you’re running less wire.  The signal will come from the GSS-3000 in the front of the car and connect to the MASTERCELL, also in the front of the car.  The back up lights will get their power from the rear POWERCELL.  You are not running a wire all the way from the GSS-3000 in the front of the car to the back up lights in the rear of the car.  The GSS-3000 puts out a positive signal for the back up lights.  You need to use one of our inVERT Minis to flip this to a ground signal.  See the details in the wiring diagram for how to make these connections.

Lastly, you can use the Dakota Digital GSS-3000 to send the MASTERCELL the signal for the Neutral Safety Switch.  The MASTERCELL needs to see a ground signal through the input for the Neutral Safety Switch.  Check your configuration sheet for specifics on the wire color for your system.  This blog post will get you more details on the Neutral Safety Switch input.  In a lot of transmissions, there is a switch built into them that will give you this signal for when it is safe to start the engine.  If your transmission does not have a built-in safety switch, you can use the signal from the GSS-3000.  This is a ground signal from their SAFETY terminal.  We recommend wiring a 1N4001 diode in series with the MASTERCELL input to isolate the MASTERCELL from the GSS-3000.  This blog post will get you more details about wiring this diode in line.  When you have the transmission in the park or neutral position, the MATERCELL will get the signal that it safe to start the engine.

The is an important consideration here regarding using the GSS-3000 neutral safety signal and the Infinitybox built-in One-Button Start feature.  This feature will not work if you are taking the neutral safety signal from the GSS-3000.  Since the GSS-3000 is getting its power from the ignition output from your POWERCELL, the module will not trigger the neutral safety signal in time for the MASTERCELL to process this.  You will need to use an external neutral safety switch if you want to use our One-Button Start feature and the GSS-3000.

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

Our technical support team is always available to help you wire your car or truck with our Infinitybox system.  Click this link to contact our team with any questions.

 

 

The Dakota Digital PAC-2800BT

Dakota Digital PAC-2800BT Cooling Fan Controller

This blog post is going to show you how to use the Dakota Digital PAC-2800BT to control your cooling fan with the Infinitybox system.  The PAC-2800BT is a powerful controller that lets you program the temperatures that turn on and turn off your cooling fans.  You have the flexibility to use any temperature sender, take in OBDII data from a modern ECU, even interface with the VHX & RTX gauges.  We’ve blogged before about wiring the VHX and RTX gauges with the Infinitybox system.  Click on the links to learn more.

There are multiple advantages to using the Infinitybox system with the Dakota Digital PAC-2800BT controller.  First, you can eliminate the external relay and the fuse.  These are built into the POWERCELL.  Next, you can streamline your wiring.  The PAC-2800BT would be located behind your dash, near the MASTERCELL.  The power for the fans comes from the front POWERCELL, which is located strategically where you need it in the car.  Lastly, the POWERCELL has the ability to soft-start the cooling fan.  This decreases the in-rush current to the fan and lets you drive a larger fan with a smaller gauge of wire.  You can read more about this at this link.

As always, we strongly encourage you to read and understand the manuals for anything that you are installing in your car.  Dakota Digital has a very detailed manual for the PAC-2800BT.  You can access it by clicking this link.  Also, this blog post is going to cover the wiring between the Infinitybox system and the PAC-2800BT.  This includes ignition power, the cooling fan triggers to the MASTERCELL and the cooling fan output from the POWERCELL.  Follow the Dakota Digital instructions for wiring battery power, ground, the temperature sender and the other optional features of the PAC-2800BT.

The following picture shows the connections between the Infinitybox MASTERCELL and the POWERCELL for the PAC-2800BT.

Picture of a wiring diagram showing how to wire the Dakota Digital PAC-2800 BT with the Infinitybox 20-Circuit Kit

Picture of a wiring diagram showing how to wire the Dakota Digital PAC-2800 BT with the Infinitybox 20-Circuit Kit

First, you need to get ignition or key-on  power to the PAC-2800BT.  This is going to come from the POWERCELL output for the ignition.  This is output 3, the light-green wire on the front POWERCELL in most systems, .  Please check your specific configuration sheet to confirm.  You can going to bring this ignition power to the IGNITION terminal on the PAC-2800BT module.  You are going to tap off your POWERCELL ignition output to get this power.  You can splice into this wire or you can use our Splice Saver kit to create an ignition junction point.

Next, you are going to connect your MASTERCELL cooling fan inputs to the triggers on the PAC-2800BT.  In most systems, your cooling fan is input 10, which is the blue wire with the green tracer.  Check your configuration sheet to confirm.  If you are using only one cooling fan, Dakota Digital tells you to use the FAN LOW terminal on the PAC-2800BT.  We strongly recommend that you install a diode in-line between the MASTERCELL and the PAC-2800BT.  This should be a 1N4001 diode that can be purchased easily from Amazon.  The orientation of this diode is critical and the system will not work correctly if it is wired backwards.  The diode lead on the side with the stripe should be connected to the PAC-2800BT.

Lastly, you are going to connect your POWERCELL output for the cooling fan to the wires on the fan motor.  The other wire on the fan motor should be connected to a good chassis ground.   This link will get you more details on wiring the cooling fan with the POWERCELL output.

The PAC-2800BT gives you the option to control two separate cooling fans.  If you want to use a second cooling fan, you would simply repeat wiring an unused MASTERCELL input to the PAC-2800BT and an OPEN POWERCELL output to your second cooling fan.  In most of our kits, output 8 on the front POWERCELL can be used as an auxiliary output.  You can use this one to power your second cooling fan.  See your specific configuration sheet for more details.

Here is how all of this works.  The PAC-2800BT takes in the temperature data from the temperature sender, the Dakota Digital gauge controller or the ECU via OBDII.  If the temperature it reads goes higher than the value that you programmed in it, it grounds the MASTERCELL input for the cooling fan.  This turns on the cooling fan input.  The MASTERCELL sends a command to the POWERCELL in the front of the car to turn on the output for the cooling fan.  When the temperature drops below the set point that you programmed in the PAC-2800BT, it turns off the MASTERCELL input for the cooling fan.  The MASTERCELL sends a command to the front POWERCELL to turn off the fan.  It is that easy.

If you choose the option to use two cooling fans, the PAC-2800BT will manage both fans together to control the engine temperature.

There is a PDF copy of this wiring diagram available on our website.  Click this link to download it.

Give our team a call at (847) 232-1991 if you have any questions about wiring the Dakota Digital PAC-2800BT with our Infinitybox system.  You can also contact our team directly by clicking this link.

Picture of the Dakota Digital RTX Gauges

Wiring Dakota Digital RTX Gauges

Dakota Digital has been in the business of making advanced electrical products for the Automotive Aftermarket for a long time.  Their products include gauges, lighting, cruise control systems, gear indicators, linear actuators, climate control interfaces and other automotive accessories.  We’ve posted details before on how to wire their automatic door lock controller and their VHX series of gauges. They recently introduced their RTX gauge family.  These bring classic styling with modern features to any hot-rod, street rod, resto-mod or Pro-Touring build.  This blog post is going to walk you through the details of Wiring Dakota Digital RTX Gauges to our system.

Before we go too far, this post is only going to cover wiring primary power, ground, key-on power, gauge lighting and the signals for the indicators on the dash.  Their manual will cover the details for the rest of the wiring.  Carefully read and understand all of the details of the RTX instructions before you go any further.  You can get their manual by clicking this link.

This diagram shows an overview of the connections to the Infinitybox system for the RTX controller box.

Picture of the Infinitybox wiring diagram showing how to wire the Dakota Digital RTX Gauges

Picture of the Infinitybox wiring diagram showing how to wire the Dakota Digital RTX Gauges

Their RTX controller needs constant power from the battery.  Connect the 12 VDC CONSTANT terminal on their controller box directly to the positive terminal on the battery.  You must fuse this wire at the battery for safety.  You also have to connect the GROUND terminal on their controller box to a good chassis ground connection.  This must be a metal-to-metal connection that is free of paint, powder coating, dirt and debris.

Here are the connections that are specific to the Infinitybox system.

First, the RTX controller box needs ignition or key-on power.  This is what turns the gauges on when you turn the key in the car.  Your ignition output is going to provide this power.  In most systems, this output is number 3 on the front POWERCELL.  Check the configuration sheet that came with your kit to confirm.  This ignition output is going to power your engine management.  You are going to splice into this wire to connect to the IGNITION PWR terminal on the RTX controller box.  You can manage this splice a few different ways but our Infinitybox Splice Saver Kit is a great way to create a sealed junction point for everything in your car that requires ignition power.

Next, you need to connect your parking light output on the front POWERCELL to the DIM terminal on the RTX controller box.  This will turn on the illumination on the RTX gauges when you have your parking or headlights on.  Just like the ignition output, splice into the parking light output on your front POWERCELL and connect this to the DIM terminal.

Next you need to connect your dome light output to the EX terminal in the DOME INPUT section of their RTX controller.  You can use any of the OPEN outputs on your POWERCELLs as your dome light output.  This blog post will get you more detail on wiring your dome lights and pin switches on your 20-Circuit Kit.

Lastly, you need to connect the POWERCELL outputs for your turn signals and high-beam to their respective terminals on the RTX control box for the turn signal indicators and high beam indicators.  Just like the key-on power and parking lights, splice into the output wires for the left turn signal, right turn signal and high-beams and connect them to the LEFT, RIGHT and HIGH terminals, respectively.  When your POWERCELL is flashing the left turn signal, the indicator for the left turn signal will flash on the Dakota Digital gauges.  When you have your high beams on, your high beam indicator will light up on the gauges.

Our Infinitybox system can power any electrical system in your resto-mod, street rod, pro-touring build or race car.  Wiring Dakota Digital RTX Gauges is a great example of that.  You can download a PDF of this wiring diagram by clicking this link.

Our technical support team is available to answer any questions about blog post or any other topics about wiring your car with our Infinitybox system.  Click on this link to get in touch with our team.

Picture of the Dakota Digital PAC-3500 Module

PAC-3500

The Infinitybox Intelligent wiring system can easily interface with any other electronics modules sold into the restoration and motorsports markets. By pairing our system with other popular accessories, you can enhance the features and functions of your resto mod, Pro-Touring build, street rod or race car. We had a customer call us today asking how he could get a speed sensitive electrical function on his car. This blog post covers that in detail.

This guy built a custom license plate holder for the back of his car. It has an electrically operated linear actuator and he’s using our inMOTION motor controller to raise and lower his license plate. He has one pair of inMOTION outputs wired to the linear actuator. He wants his license plate to be lowered when the car is moving and raise when the car stops. He wants to use this only for car shows and not when he is driving the car on the road.

He called us asking how he could get this speed sensitive control with our Infinitybox system. We recommended adding the Dakota Digital PAC-3500 Automatic Door Lock Controller to his system to get this to work. The PAC-3500 takes in the signal from his speedometer sender and uses that to control a lock and unlock input. When the vehicle is moving and the PAC-3500 is getting a speed signal, the module sends out a trigger on one wire. When the vehicle stops moving, the module sends out a signal on a different trigger wire. With the PAC-3500, our customer can easily switch his MASTERCELL inputs to lower his license plate when the car is moving and raise it when the car stops. This diagram shows how to wire the PAC-3500 to the Infinitybox System.

Image of wiring diagram showing how to use the Dakota Digital PAC-3500 with our Infinitybox system

Image of wiring diagram showing how to use the Dakota Digital PAC-3500 with our Infinitybox system

The PAC-3500 needs fused constant power from the battery and a connection to the chassis to ground. It also needs a ignition signal which would come from the ignition output on your POWERCELL. Next, you connect the SPD terminal on the PAC-3500 to the output from your speed sender. Lastly, you connect your MASTERCELL inputs to the LOCK and UNLOCK terminals on the PAC-3500. You must isolate the MASTERCELL from the PAC-3500 using diodes. We recommend a 1N4001 diode. The orientation of these diodes is critical so note their orientation in the wiring diagram.

Whatever MASTERCELL input that you have connected to the LOCK terminal on the PAC-3500 will turn on when the vehicle is moving. Whatever MASTERCELL input that you have connected to the UNLOCK terminal will turn on when the car stops moving. You can set the vehicle speed that turns these on and off by following the instructions in the manual from Dakota Digital. This link will take you to the manual for the PAC-3500.

With the PAC-3500 and our Infinitybox system, you can get speed sensitive control of your electrical system. Raising and lowering this license plate is just one example. You could also use this to lock and unlock your doors with our inMOTION cell. We could set your system to turn off power to your electrical power steering assist above a specific speed. We could use this to raise a wing on the back of the car when you exceed a specific speed. Your options are limitless.

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

Give our technical support team a call with specific questions about interfacing the Dakota Digital PAC-3500 to our Infinitybox system to get speed sensitive control of your electronics. You can reach them by clicking this link.

Control module for the Dakota Digital VHX Gauges

Wiring Dakota Digital VHX Gauges

Dakota Digital has been in the business of making advanced electrical products for the Automotive Aftermarket for a long time.  Their products include gauges, lighting, cruise control systems, gear indicators, linear actuators, climate control interfaces and other automotive accessories.  We’ve posted details before on how to wire their cruise control systems and their automatic door lock module.  Their VHX series of gauges has become very popular in the market and a lot of our customers have asked about how to connect their VHX gauge controller box to our Infinitybox system.  This blog post is going to walk you through the details of Wiring Dakota Digital VHX Gauges to our system.

If you are using the RTX gauges, you can click on this link to get to a wiring them.

Before we go too far, this post is only going to cover wiring primary power, ground, key-on power and the signals for the indicators on the dash.  Their manual will cover the details for the rest of the wiring.  Carefully read and understand all of the details of the VHX instructions before you go any further.  You can get their manual by clicking this link.

This diagram shows an overview of the connections to the Infinitybox system for the VHX controller box.

Picture of wiring diagram showing you how to interface your Dakota Digital Gauges with the Infinitybox 20-Circuit Kit

Picture of wiring diagram showing you how to interface your Dakota Digital Gauges with the Infinitybox 20-Circuit Kit

Their VHX controller needs constant power from the battery.  Connect the CONST. POWER terminal on their controller box directly to the positive terminal on the battery.  You must fuse this wire at the battery for safety.  You also have to connect the GROUND terminal on their controller box to a good chassis ground connection.  This must be a metal-to-metal connection that is free of paint, powder coating, dirt and debris.

Here are the connections that are specific to the Infinitybox system.

First, the VHX controller box needs ignition or key-on power.  This is what turns the gauges on when you turn the key in the car.  Your ignition output is going to provide this power.  In most systems, this output is number 3 on the front POWERCELL.  Check the configuration sheet that came with your kit to confirm.  This ignition output is going to power your engine management.  You are going to splice into this wire to connect to the ACC. POWER terminal on the VHX controller box.

Next, you need to connect your parking light output on the front POWERCELL to the DIM(+) terminal on the VHX controller box.  This will turn on the illumination on the VHX gauges when you have your parking or headlights on.  Just like the ignition output, splice into the parking light output on your front POWERCELL and connect this to the DIM(+) terminal.

Lastly, you need to connect the POWERCELL outputs for your turn signals and high-beam to their respective terminals on the VHX control box for the turn signal indicators and high beam indicator.  Just like the key-on power and parking lights, splice into the output wires for the left turn signal, right turn signal and high-beams and connect them to the LEFT(+), RIGHT(+) and HIGH(+) terminals, respectively.  When your POWERCELL is flashing the left turn signal, the indicator for the left turn signal will flash on the Dakota Digital gauges.  When you have your high beams on, your high beam indicator will light up on the gauges.

Our Infinitybox system can power any electrical system in your resto-mod, street rod, pro-touring build or race car.  Wiring Dakota Digital VHX Gauges is a great example of that.  You can download a PDF of this wiring diagram by clicking this link.

Our technical support team is available to answer any questions about blog post or any other topics about wiring your car with our Infinitybox system.  Click on this link to get in touch with our team.