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Electronic fire pit ignition systems provide convenient control, flame monitoring and integration options for residential and commercial outdoor projects. However, reliable operation depends on more than the ignition components themselves. Fuel supply, electrical service, ventilation, drainage, fire media placement, component compatibility and installation conditions all affect how the system performs.

For contractors, understanding the complete ignition sequence can make it easier to specify the right system, coordinate the required trades, commission the installation and diagnose future service issues. This SpotixPro guide explains how electronic fire pit ignition systems work, what to consider during project planning and how to approach common performance problems systematically.

Always follow the installation, operation and service instructions provided by the manufacturer for the specific burner and ignition system. Gas supply changes, pressure testing, electrical work and internal component repairs should be completed by qualified professionals in accordance with applicable codes.

What Contractors Should Know About Electronic Fire Pit Ignition Systems

An electronic ignition system automates the lighting process and monitors whether the fire pit has established a flame. Depending on the system, users may control the fire feature through a wall switch, timer, remote, automation system or mobile application.

Electronic ignition systems are often selected for:

Custom residential fire features
Commercial patios and hospitality projects
Pool decks and outdoor kitchens
Multifamily developments
Automated outdoor living spaces
Fire features with remote or app control
Installations requiring flame-sensing safety technology
Projects where manual lighting is impractical

Although electronic ignition offers convenience, it also introduces electrical components, control modules, sensors and communication devices that must be properly selected and protected.

Electronic Ignition Compared With Other Fire Pit Ignition Options

The appropriate ignition system depends on the project requirements, expected level of control, budget, installation environment and customer expectations.

Match-Light Ignition

Match-light systems use a manually operated gas valve and an external flame source. They are mechanically simple and do not require electrical service, but they require the user to approach the burner during startup.

Match-light ignition may be appropriate when:

The project requires a simple manual system.
Electrical power is not available near the fire feature.
Remote operation is not needed.
The appliance and local requirements permit match-light operation.

Push-Button Spark Ignition

Push-button systems use a battery-powered or piezo igniter to create a spark near the burner. The user generally opens the gas valve manually and presses the ignition button.

These systems provide easier startup than match-light models while remaining relatively simple.

Electronic Ignition

Electronic ignition systems automatically control the ignition sequence. A control module activates the igniter, releases gas to the pilot, verifies the pilot flame and then opens the main burner valve.

Depending on the model, electronic ignition may support:

Wall-switch control
Timer control
Remote control
Bluetooth or app connectivity
Smart-home or automation integration
Automatic relight attempts
Flame monitoring
ON/OFF operation
HI/LO flame adjustment

How an Electronic Fire Pit Ignition System Works

Understanding the normal ignition sequence helps contractors identify which part of the system is failing when a fire pit will not light or remain operating.

The user activates the fire pit through a switch, timer, remote, app or automation system.
The command is sent to the ignition control module.
The control module confirms that the system is ready to begin the ignition sequence.
Power is supplied to the igniter or pilot ignition component.
The pilot gas valve opens.
The pilot gas ignites.
A thermocouple, flame rod or other sensing component verifies the pilot flame.
The control module opens the main gas valve.
The pilot flame ignites the gas flowing from the main burner.
The system continues monitoring the flame while the fire pit operates.
If flame verification is lost, the system may attempt to relight or enter a safety lockout.

When diagnosing a problem, contractors should identify the exact point where this sequence stops.

Choosing the Right Electronic Ignition System

The ignition system should be selected early in the project so the gas, electrical, enclosure and control requirements can be coordinated before construction begins.

Confirm the Fuel Type

Natural gas and propane systems use different orifices, regulators and combustion components. Confirm the fuel source before ordering the burner or ignition system.

Do not assume an ignition system can be converted in the field unless the manufacturer provides a listed conversion procedure and approved components.

Determine the Required Level of Control

Ask how the customer expects to operate the fire feature.

Possible control methods include:

Basic ON/OFF switch
Countdown timer
Handheld remote
Bluetooth application
HI/LO flame adjustment
Home automation relay
Commercial building controls
Emergency shutoff controls

The selected ignition model must be compatible with the desired control method.

Consider Residential Versus Commercial Use

Commercial installations may experience longer operating periods, more frequent cycling and greater exposure to customer misuse. They may also require additional controls, access restrictions or emergency shutoff provisions.

For commercial projects, review:

Expected daily runtime
Operating responsibility
Control access
Local code requirements
Required safety shutoffs
Service accessibility
Maintenance scheduling
Warranty terms for commercial use

Review Environmental Exposure

Outdoor ignition components may be exposed to rain, snow, irrigation, humidity, debris, insects and temperature changes. Select a system approved for the intended outdoor environment and follow all manufacturer requirements for drainage, ventilation and weather protection.

Planning an Electronic Ignition Installation

Many ignition-related callbacks begin during project planning. Coordinating the gas, electrical, masonry, drainage and control requirements before construction can prevent difficult corrections after the enclosure is complete.

Gas Supply Requirements

Verify that the fuel system can support the full rated input of the burner under operating conditions.

Gas system planning should account for:

Burner BTU rating
Total developed gas-line length
Gas type
Available supply pressure
Pipe material
Fittings, valves and restrictions
Regulator capacity
Gas meter or propane supply capacity
Other appliances operating simultaneously

Electronic ignition cannot compensate for an undersized gas supply. Low operating pressure may cause pilot failure, delayed ignition, flame loss or repeated system lockout.

Electrical Requirements

Confirm the required voltage, transformer, wiring method and control configuration before installation.

Review:

Input voltage
Transformer location
Low-voltage or line-voltage wiring requirements
Dedicated circuit requirements
Grounding and polarity
Weather-resistant connections
Disconnecting means
Control wire routing
Maximum wire lengths
Automation interface requirements

Incorrect voltage, poor grounding or improper wire routing can prevent ignition or create intermittent operation.

Component Compatibility

The burner, valve, pilot assembly, control module, transformer, remote receiver and other controls must be designed to operate together.

Avoid combining components from different systems unless the manufacturer specifically approves the configuration.

Before installation, verify:

Burner and ignition compatibility
Fuel configuration
Valve capacity
Control module compatibility
Transformer specifications
Remote or app compatibility
Required communication components
Approved replacement parts

Valve Box Placement and Service Access

Electronic ignition systems require future access for diagnosis, cleaning and component replacement. The valve box and control components should not be permanently sealed behind masonry or installed where they cannot be reached without demolition.

Plan access for:

Valve box
Control module
Transformer
Gas shutoff
Electrical connections
Remote receiver or communication module
Pilot assembly
Burner connections

Service access should remain usable after the finish materials, fire media and surrounding landscaping are installed.

Enclosure Ventilation

Custom enclosures must provide the ventilation required by the ignition-system manufacturer. Ventilation helps manage heat and may prevent unburned gas from accumulating inside the enclosure.

Ventilation requirements may depend on:

Fuel type
Burner input
Enclosure volume
Valve-box location
Control-module placement
Manufacturer specifications

Propane is heavier than air, which makes properly positioned lower ventilation openings especially important where required.

Drainage and Moisture Management

Water is a common cause of electronic ignition failure. Rain, snow, irrigation and condensation can collect beneath the burner or inside the valve enclosure.

The installation should provide:

Drainage through the burner pan
A path for water to exit the enclosure
Protection for control modules and electrical connections
Proper surface grading
Clear drain openings
Appropriate use of a compatible cover

A cover can reduce weather exposure, but it should not be treated as a replacement for proper drainage.

Fire Media Requirements

Fire glass, lava rock and other media must be installed at the approved depth and kept clear of ignition components.

Improper media placement can:

Bury the pilot assembly
Block the igniter
Reduce pilot flame contact with the sensor
Delay flame travel to the main burner
Obstruct burner ports
Trap excessive heat
Contribute to soot

Install fire glass and other media according to the burner and ignition-system instructions.

Common Electronic Ignition Installation Mistakes

Many ignition failures are related to installation conditions rather than defective components.

Common mistakes include:

Ordering the wrong fuel configuration
Using an undersized gas line
Failing to account for simultaneous appliance demand
Using an incorrect regulator
Supplying the wrong voltage
Failing to provide proper grounding
Installing incompatible controls
Routing wiring against hot surfaces
Placing the transformer in an unapproved location
Installing the valve box without service access
Providing insufficient enclosure ventilation
Failing to provide drainage
Allowing water to collect around the control module
Burying the pilot assembly in fire media
Blocking burner ports with media
Installing unapproved media
Failing to test the system before completing masonry
Not documenting model and serial information

Electronic Fire Pit Ignition Commissioning Checklist

Commissioning should be completed before the project is handed over to the customer. Testing the complete system can reveal installation issues while the required trades are still available.

Confirm the burner and ignition system match the specified fuel type.
Verify the gas line is sized for the full burner input.
Confirm regulator type, pressure and capacity.
Leak-test all gas connections using approved procedures.
Verify inlet and operating pressure according to the manufacturer.
Test the fire pit while other major gas appliances are operating when appropriate.
Confirm the correct electrical voltage.
Verify polarity and grounding.
Inspect all wiring and connections.
Confirm the transformer and controls are installed in approved locations.
Verify enclosure ventilation.
Confirm the burner pan and enclosure drain freely.
Inspect the pilot, igniter and flame sensor.
Arrange fire media according to the manufacturer's requirements.
Cycle the ignition system multiple times.
Confirm the pilot ignites consistently.
Confirm the flame-sensing system verifies the pilot.
Inspect the main burner ignition pattern.
Confirm the flame remains stable after ignition.
Test shutoff and safety functions.
Pair remotes, apps and communication modules.
Test wall switches, timers and automation controls.
Check for error codes or diagnostic indicators.
Observe operation under normal site conditions.
Photograph the completed installation.
Record model, serial and commissioning information.
Review system operation with the customer.

Contractor Diagnostic Workflow

A consistent diagnostic sequence helps contractors isolate the cause of an ignition problem without replacing parts unnecessarily.

Confirm the customer's complaint.
Determine whether the system ever operated correctly.
Identify the ignition manufacturer and model.
Review the installation manual and wiring diagram.
Document any error codes or LED flash patterns.
Shut off gas and power before visual inspection.
Inspect the installation for water, debris and damaged wiring.
Verify electrical power, polarity and grounding.
Confirm fuel supply and operating pressure.
Activate the system and observe the ignition sequence.
Identify the exact point where the sequence stops.
Inspect the corresponding component or system area.
Complete the required corrective work.
Restart and cycle the system repeatedly.
Document the findings and customer handoff.

Pre-Service Questions for the Customer

Before arriving at the project site, ask questions that help narrow the diagnostic path.

Did the fire pit ever operate correctly?
When did the problem begin?
Is the issue constant or intermittent?
Does the igniter glow or spark?
Does the pilot ignite?
Does the main burner ignite?
How long does the fire pit operate before shutting down?
Does an error code or LED flash pattern appear?
Does the issue happen after rain or irrigation?
Does it happen only during windy or cold conditions?
Does performance change when other gas appliances operate?
Has fire media recently been added or rearranged?
Has the remote, app, transformer or control wiring been changed?
Has anyone attempted to repair or reset the system?

Electronic Ignition Troubleshooting Chart for Contractors

Reported Problem	System Area to Inspect	Diagnostic Checks	Common Installation Cause
No Power or Response	Power supply, transformer, wiring and controls	Verify breaker, switch, transformer output, voltage, polarity, fuse, ground and visible wiring connections.	Incorrect voltage, failed transformer, open fuse, loose connection, poor grounding or damaged wiring
Igniter Does Not Glow or Spark	Igniter, wiring and control module	Confirm the system has entered the ignition sequence. Inspect igniter wiring, connections, resistance or continuity where specified and module output according to the manufacturer.	Damaged igniter, incorrect wiring, moisture exposure, failed control module or incompatible component
Igniter Activates but Pilot Does Not Light	Pilot gas supply, igniter position and pilot assembly	Verify pilot gas flow, fuel pressure, igniter alignment and pilot-orifice condition. Inspect for air in a new gas line, water, debris or insects.	Closed gas valve, low pressure, clogged pilot, incorrect igniter placement or wrong fuel configuration
Pilot Lights but Main Burner Does Not Ignite	Flame sensor, thermocouple, main valve and burner	Confirm the pilot flame properly contacts the sensor. Inspect sensor connections, main valve operation, burner obstruction and fire media placement.	Weak pilot flame, misaligned sensor, buried pilot, blocked burner, failed valve or low operating pressure
Main Burner Ignites Slowly	Burner ports, pilot location and media	Inspect flame travel from the pilot to the main burner. Confirm burner ports are open and media is not obstructing the ignition path.	Excessive media, blocked burner ports, incorrect pilot position or inadequate gas pressure
System Shuts Down After Ignition	Flame sensing, operating pressure and wind exposure	Observe whether the sensor remains in the pilot flame. Test pressure under load and inspect for wind moving the flame away from the sensor.	Low pressure, poor sensor alignment, unstable pilot flame, improper media or excessive wind
System Cycles On and Off	Flame sensor, power supply, gas supply and controls	Monitor the pilot, operating pressure, voltage and control signal throughout the cycle. Check for loose wiring and intermittent communication.	Unstable gas supply, loose connection, overheating, flame-sensing interruption or automation issue
System Enters Lockout	Ignition sequence and control module	Record the error code before resetting. Determine whether the system failed during ignition, flame verification, communication or operation.	Repeated ignition failure, flame loss, sensor issue, communication failure or internal control fault
Over-Temperature Error	Enclosure ventilation and component placement	Inspect enclosure openings, control-module location, nearby heat sources and fire media depth. Measure conditions according to manufacturer procedures where required.	Insufficient ventilation, buried components, excessive media or controls mounted too close to heat
Remote or App Does Not Respond	Communication module, pairing and power	Confirm module power, batteries, pairing status, communication cable, range and required app settings.	Unpaired device, failed transceiver, poor module location, damaged cable or incompatible control
Failure After Rain or Irrigation	Drainage, valve box and electrical components	Inspect for standing water, corrosion, wet wiring, blocked drains and moisture inside the valve box or control enclosure.	Poor drainage, unprotected components, surface runoff or irrigation directed toward the fire feature
Performance Drops When Other Gas Appliances Operate	Total gas system capacity	Test the fire pit under simultaneous appliance demand. Review meter, regulator, manifold and branch-line sizing.	Gas system sized for individual demand instead of total connected load

How to Use Electronic Ignition Error Codes

Error codes help identify the stage of operation in which the ignition system detected a problem. Depending on the manufacturer and model, fault information may appear through:

LED flash patterns on the control module
Remote-control indicators
Mobile-app error logs
Controller displays
Automation-system feedback

Before resetting the system, record:

The exact code or flash count
When the code appeared
Whether the pilot ignited
Whether the main burner ignited
How long the system operated
Weather and site conditions
Any recent changes to the system

Do not assume that an error-code description automatically identifies the failed part. For example, an igniter-related fault could be caused by the igniter, wiring, power supply, control module or an installation condition that prevented the ignition sequence from completing.

Always compare the code with the troubleshooting chart for the exact ignition model.

Diagnosing Power and Electrical Problems

If the system does not respond, begin with the electrical supply rather than the gas components.

Verify:

The breaker is on.
The required wall switch or disconnect is on.
The transformer has input power.
The transformer is producing the required output voltage.
The control module is receiving power.
Fuses are intact.
Polarity is correct.
The system is properly grounded.
Connections are secure.
Wiring insulation is not damaged.
Communication cables are connected correctly.
Moisture has not entered electrical enclosures.

Intermittent power problems may only appear after components heat up, when moisture is present or when a loose connection is disturbed.

Diagnosing Pilot and Igniter Problems

If the system receives power and begins the ignition sequence, observe the igniter and pilot assembly.

Igniter Does Not Activate

Potential causes include:

Failed igniter
Damaged wiring
Loose connection
Incorrect module output
Blown fuse
Control-module failure
Moisture damage
Incorrect replacement component

Igniter Activates but Pilot Does Not Light

Inspect for:

Air in a new gas line
Closed upstream valve
Low gas pressure
Clogged pilot orifice
Debris or insect activity
Water inside the pilot assembly
Incorrect igniter position
Wrong fuel components
Damaged pilot tubing

Cleaning or disassembling pilot components should be completed only as permitted by the manufacturer and by a qualified service professional.

Diagnosing Flame-Sensing Problems

After the pilot ignites, the system must verify the flame before opening the main gas valve. If flame verification fails, the system may shut down or attempt another ignition cycle.

Inspect whether:

The pilot flame is large and stable enough.
The pilot flame properly contacts the thermocouple or sensor.
The sensing component is clean.
The sensing component is positioned correctly.
The electrical connection is secure.
Fire media is interfering with the pilot flame.
Wind is moving the flame away from the sensor.
Operating pressure remains stable.
The sensor is compatible with the control module.

A sensor should not be replaced until the pilot flame, gas supply, media placement and wiring have been evaluated.

Diagnosing Main Burner Ignition Problems

If the pilot is verified but the main burner does not ignite, the problem may be related to the main valve, burner, fuel supply or flame path.

Check:

Whether the control module is commanding the main valve to open
Main valve wiring and connections
Gas pressure during the ignition sequence
Burner-port obstruction
Water or debris inside the burner
Fire media blocking flame travel
Correct burner orientation
Burner and valve compatibility
Correct fuel configuration

A damaged or heavily corroded gas fire pit burner may require replacement, but installation and fuel-supply issues should be ruled out first.

Environmental Conditions That Affect Electronic Ignition

Outdoor systems can fail intermittently because of conditions that are not present during a service visit.

Evaluate:

Prevailing wind
Crosswinds through enclosure vents
Heavy rain
Snow and ice
Freezing temperatures
Standing water
Irrigation overspray
High humidity
Salt air
Leaves and landscaping debris
Spider webs and insects
Rodent damage
Direct heat exposure
Movement or settling of the enclosure

Wind

Wind can prevent pilot ignition, move the pilot flame away from the sensor or disrupt flame travel to the main burner. Wind-related failures may occur only from a specific direction.

Water

Standing water can damage igniters, sensors, wiring, valves and control modules. A system that fails after rainfall should be inspected for blocked drains and improper enclosure design.

Insects and Debris

Small pilot orifices and burner openings may be obstructed by insects, spider webs, dirt or plant material. Seasonal inspection is especially important in systems that remain unused for long periods.

Temperature

Cold weather can affect propane vaporization and battery performance. Excessive enclosure heat can cause electronic modules to shut down or display over-temperature faults.

Preventative Maintenance Schedule

A routine maintenance plan can reduce ignition failures and extend component life. Always follow the maintenance schedule provided by the manufacturer.

Before Regular Use

Inspect the burner area for debris.
Confirm the enclosure is dry.
Check fire media placement.
Verify the pilot and ignition area are not buried.
Confirm ventilation openings are clear.

Monthly During the Operating Season

Inspect the flame pattern.
Check for delayed ignition.
Verify reliable startup and shutdown.
Inspect the remote or control device.
Clear leaves and debris.
Confirm drainage openings remain clear.

Seasonally

Remove and clean fire media as permitted.
Inspect burner ports.
Inspect pilot and sensing components.
Check wiring for visible damage.
Inspect the valve box for moisture or corrosion.
Replace remote batteries where applicable.
Test all control methods.

Annually

Complete a professional system inspection.
Verify gas pressure as required.
Inspect valves and gas connections.
Review electrical supply and grounding.
Inspect ventilation and drainage.
Test the ignition sequence repeatedly.
Update installation and service records.

When Electronic Ignition Components May Need Replacement

Replacement should follow diagnosis rather than guesswork. Installing a new component will not correct an underlying gas, electrical, ventilation or drainage problem.

Replacement may be appropriate when a component is:

Physically damaged
Heavily corroded
Water damaged
Electrically open or failed according to approved testing
No longer communicating with the system
Outside manufacturer specifications
Incompatible with the installed ignition model
Confirmed defective through the manufacturer's diagnostic procedure

Before ordering parts, document the complete model number, serial number, fuel type, control functionality and existing component information.

What to Gather Before Contacting Technical Support

Manufacturer and supplier support teams can provide more useful guidance when contractors have detailed installation information available.

Gather:

Ignition-system manufacturer
Complete model number
Serial number
Fuel type
Burner size and BTU rating
ON/OFF or HI/LO configuration
Gas line size and estimated length
Regulator specifications
Static and operating pressure information where available
Input and output voltage information
Transformer model
Control method
Error codes or LED flash patterns
Description of the ignition sequence
Point at which the sequence fails
Photos of the pilot and burner
Photos of the valve box and wiring
Photos of enclosure ventilation
Photos of drainage provisions
Environmental conditions present during the failure
Diagnostic steps already completed

Documenting the Installation and Service Work

Complete documentation supports future service, warranty inquiries and communication between trades.

Record:

Manufacturer, model and serial number
Fuel type
Burner input
Gas line size and length
Regulator type and capacity
Ignition-system type
Control method
Transformer and electrical specifications
Fire media type and quantity
Ventilation configuration
Drainage configuration
Commissioning results
Error codes
Replacement parts
Service procedures completed
Photos before and after service

For app-connected or software-controlled systems, also record the app version, device type and relevant connectivity information when available.

Customer Handoff and Callback Prevention

A thorough customer handoff can prevent service calls caused by improper operation or maintenance.

Review:

Normal ignition sequence
Expected startup time
Correct shutdown procedure
Location of the gas shutoff
Wall-switch, timer, remote or app operation
Remote battery replacement
App pairing and account access
Normal flame appearance
Fire media placement restrictions
Wind limitations
Use of a compatible cover
Drainage and moisture precautions
Seasonal cleaning
Winter shutdown procedures where applicable
Error-code reporting
Conditions that require professional service

Provide the customer with the installation and operation manual and retain a copy of the final project documentation.

Electronic Fire Pit Ignition FAQs

How does an electronic fire pit ignition system work?

An electronic ignition system activates an igniter, releases gas to a pilot, verifies the pilot flame and then opens the main burner valve. The system continues monitoring the flame and may shut off the gas if flame verification is lost.

What causes an electronic fire pit ignition to fail?

Potential causes include inadequate gas supply, low operating pressure, electrical failure, damaged wiring, poor grounding, pilot obstruction, flame-sensing problems, improper media placement, water intrusion, insufficient ventilation or failed components.

Why does the igniter activate but the pilot not light?

The pilot may not light because gas is not reaching the pilot, air remains in a new gas line, the pilot orifice is obstructed, the igniter is misaligned, pressure is insufficient or the system contains incorrect fuel components.

Why does the pilot light but the main burner not ignite?

The system may not be verifying the pilot flame, the main valve may not be opening, the burner may be obstructed or fire media may be interfering with flame travel. Gas pressure and component compatibility should also be checked.

What causes ignition lockout?

Ignition lockout generally occurs when the system cannot ignite or verify the flame within its programmed sequence. Causes may include low gas pressure, igniter failure, pilot obstruction, flame-sensing issues, communication problems or an internal control fault.

Can fire media cause electronic ignition problems?

Yes. Excessive or improperly placed fire media can bury the pilot, block the igniter, obstruct burner ports, interfere with the flame sensor and delay ignition of the main burner.

Can water damage an electronic ignition system?

Yes. Standing water and repeated moisture exposure can damage igniters, sensors, wiring, control modules, valves and communication components. Proper burner-pan and enclosure drainage are essential.

Why does an electronic ignition system overheat?

Overheating may result from insufficient enclosure ventilation, excessive fire media, improper control-module placement or heat from nearby components. Follow the manufacturer's ventilation and clearance requirements.

Should a contractor replace the ignition module first?

No. The contractor should identify the point where the ignition sequence fails and evaluate the gas supply, electrical service, wiring, pilot, flame sensor and installation conditions before replacing the control module.

How should contractors diagnose intermittent ignition problems?

Document when the issue occurs and evaluate changing conditions such as wind, rain, temperature, simultaneous gas demand, component heat, loose connections and communication range. Intermittent issues may not appear during a short service visit.

How can contractors reduce electronic ignition callbacks?

Callbacks can be reduced through proper system selection, compatible components, correct gas and electrical planning, adequate ventilation and drainage, careful media placement, complete commissioning, documentation and customer education.

Build More Reliable Electronic Fire Pit Systems

Electronic fire pit ignition systems offer convenient control and valuable flame-monitoring features, but their performance depends on the entire installation. Gas delivery, electrical service, ignition components, ventilation, drainage, media placement and environmental exposure must all be considered together.

By planning these requirements early, observing the complete ignition sequence and commissioning every system before customer handoff, contractors can diagnose problems more accurately and reduce unnecessary callbacks.

SpotixPro supports contractors, builders, designers and other trade professionals with exclusive trade pricing, dedicated account support and priority order processing. Our product specialists can also help identify compatible burners, ignition systems, controls and replacement components for upcoming installations and service projects.

The recommended title remains **SpotixPro Guide to Electronic Fire Pit Ignition Systems: Installation, Diagnostics & Commissioning**.