Cheat sheet

NFPA 1002 Driver/Operator Apparatus Cheat Sheet

Quick Facts

Standard
NFPA 1010 Chapters 11-12
Edition
2024 edition
Replaced
NFPA 1002, now consolidated
Required chapters
Chapters 4, 11, and 12
Accreditation
Pro Board or IFSAC
Who certifies
State or regional entity
Prerequisite
None in NFPA 1010
Questions
Set by certifying entity
Pass mark
Entity set; 70% common
Also required
Practical skills evaluation
Stay qualified
Annual competency demonstration
Pro Board compliance
NFPA 1010 since June 30, 2026

Standards Map 2026

NFPA 1010
Firefighter pro qualifications 20242024 ed.
Chapter 11
Driver/operator general requirements
Chapter 12
Pumper apparatus JPRs
Chapter 13
Aerial device apparatus
Chapter 14
Tiller apparatus
Chapter 15
Wildland suppression apparatus
Chapter 16
Aircraft rescue firefighting apparatus
Chapter 17
Mobile water supply apparatus
Replaced NFPA 1002
Also 1001, 1003, 1005
NFPA 1900
New apparatus design standard
NFPA 1910
In-service inspection and testing
NFPA 291
Hydrant flow testing, marking
NFPA 1091
Traffic incident management
NFPA 1550
Responder health and safetyReplaced 1500

Certification Path

Required chapters
Chapters 4, 11, and 124.4.7.2
Pro Board tests
Chapter 11 plus 12
Prerequisite
None listed by NFPA
Driver license
All vehicles you operate
Annual proof
Demonstrate competency every year
Test vehicle
Similar weight, wheelbase, function
AHJ sets
Age, medical, background rules
Written plus practical
Both required to certify
Domain weights
Not published by NFPA
Item count
Entity set, commonly 100
Pass mark
Entity set, 70% common
Compliance deadline
June 30, 2026Pro Board
State adoption dates
Vary by state, 2026-2027

Chapter 11 JPR Map

11.2.1
Verify apparatus operational status
11.2.2
Document inspection and maintenance
11.3.1 + 11.3.6
Road driving operations test
11.3.2
Alley dock exercise
11.3.3
Serpentine exercise
11.3.4
Confined space turnaround
11.3.5
Diminishing clearance exercise
11.3.7
Operate fixed systems and equipment
Chapter 11 applies
Every driver/operator apparatus type

Chapter 12 JPR Map

12.2.1 + 12.2.2
Response and communications JPRs
12.3.1
Pumper-specific inspection additions
12.4.1
Restraints and defensive driving
12.4.2
Establish protected work areas
12.4.3
Connect pumper to water supply
12.4.4
Produce hand and master streams
12.4.5
Pump a supply line
12.4.6
Pump a foam stream
12.4.7
Supply sprinklers and standpipes

Pump Test Runs

One fifty, two hundred, two fifty

100% capacity, 150 psi70% capacity, 200 psi50% capacity, 250 psiTwenty, ten, ten minutes

NFPA 1900 vs NFPA 1910

NFPA 1900

  • How apparatus is built
  • Replaced NFPA 1901
  • Design and construction

NFPA 1910

  • Inspection, testing, retirement
  • Replaced NFPA 1911
  • Annual pump service test

New versus in-service

Out-of-Service Picker

  1. Air leak in brakesOut of service(Safety critical)
  2. Warning lights inoperativeOut of service(Cannot respond safely)
  3. Fuel below three-quartersRefuel now(Then document)
  4. Fluid level slightly lowTop off, record(Return to service)
  5. Pump fails vacuum testRepair before pumping(Cannot hold prime)
  6. Any deficiency foundReport and document(JPR 11.2.2)

Daily Check Items

Tires
Tread depth and inflation
Batteries
Clean, corrosion free, secured
Engine oil
Level within manufacturer specifications
Coolant
Level within manufacturer specifications
Fuel
Keep above three-quarters tank
Belts
Tight, no excessive wearEngine off
Electrical
Warning lights and sirens
Brakes
Check air and fluid leaks
Steering
Linkage wear, fluid level
Transmission
Fluid level within specifications
Pump systems
Engage and check pump12.3.1
Water tank
Agent levels topped off
Foam system
Concentrate level, if equipped
Deficiencies
Report and document immediately

Pumper vs Mobile Water Supply

Pumper

  • 750 gpm pump minimum
  • 300 gallon tank minimum
  • 40 cubic feet compartments

Mobile water supply

  • 1,000 gallon tank minimum
  • Pump not required
  • 6 cubic feet hose

Pump versus tank

Annual Pump Service Test

100% capacity
150 psi, 20 minutes
70% capacity
200 psi, 10 minutes
50% capacity
250 psi, 10 minutes
Test source
Draft, lift under 10 ft
Vacuum test
Pull at least 22 in. Hg
Vacuum drop limit
10 in. Hg per 5 minutes
Primer during test
Off once timing starts
Priming time
30 seconds up to 1,250 gpm
Larger pumps
45 seconds at 1,500 gpm
Auxiliary intake
Adds 15 seconds allowance
Transfer valve
Volume position for priming
Governing standard
NFPA 1910, formerly 1911

Pumper Minimum Specs

Fire pump
750 gpm minimum
Water tank
300 gallons minimum
Compartments
40 cubic feet minimum
Hose bed
30 cubic feet, 2½-inch
Preconnects
Two areas, 3.5 cubic feet
Rating point
Draft at 10 ft lift
Rating pressures
150, 200, and 250 psi
Mobile water supply
1,000 gallon tank minimum
Design standard
NFPA 1900, formerly 1901

Air Brake Checks

Governor cut-out
Around 120 to 140 psi
Governor cut-in
Around 85 to 100 psi
Static leak test
Engine off, one minute
Applied leak test
Hold brake, time one minute
Low-air warning
Alarm at 55 psi minimum
Spring brakes
Pop out 20-45 psi
Brake lag
Air travel delay before braking
Chock wheels
Before any brake testing

Four Driving Exercises

Alley, Serpentine, Confined, Diminishing

Alley dock: 12 ft spaceSerpentine: back then forwardConfined: 180 degree turnDiminishing: narrowing clearance

Fixed Driving Exercises

Alley dock
Back into 12 ft space11.3.2
Alley dock turns
90 degrees, right and left
Serpentine
Back then drive through markers11.3.3
Confined space turnaround
Turn vehicle 180 degrees11.3.4
Diminishing clearance
Horizontal and vertical restrictions11.3.5
Course markers
Striking one fails skill
Backing rule
Always use a spotter
Test vehicle
Similar weight and wheelbase

Driving Physics

Total stopping distance
Reaction plus lag plus braking
Weight transfer
Braking shifts weight forward
Centrifugal force
Grows with speed squared
Liquid surge
Partial tank shoves apparatus
Rollover risk
High center of gravity
ABS braking
Firm steady pressure, steer
Never pump ABS
Pumping defeats the system
Hydroplaning
Slow down, avoid hard steering
Following distance
Longer than any passenger vehicle

Due Regard + Response

Due regard
Reasonable care for others
Exemptions apply
Only with lights and siren
Red light
Come to complete stop
Stop sign
Complete stop before proceeding
Negative right-of-way
Intersection where you yield
Seat belts
Fastened before wheels move12.4.1
Riding position
Seated and belted only
Speed
Never exceeds safe control
Backing
Spotter or walk-around first

Scene Positioning

Front of building
Save it for aerial
Uphill and upwind
Standard hazardous materials positioning
Supply position
Pumper takes the hydrant12.4.3
Attack position
Short stretch to entry
Protected work area
Set devices before working12.4.2
Traffic incidents
Block with the apparatus
Collapse zone
One and a half heights
Overhead hazards
Avoid wires and limbs

Cavitation Signs

Speed up, pressure down, gravel sound

Engine rpm climbsDischarge pressure dropsRattling inside the pumpFix: throttle back

Volume vs Pressure

Volume, parallel

  • Both impellers feed discharge
  • Full rated capacity
  • Use above 50% capacity

Pressure, series

  • First impeller feeds second
  • Half rated capacity
  • Pressure roughly doubles

Flow versus pressure

Pump Problem Picker

  1. Rpm up, pressure downCavitation(Throttle back)
  2. Gravel sound in pumpCavitation(Reduce the flow)
  3. Primer runs, no vacuumFind air leak(Check caps, gaskets)
  4. Pressure spikes on shutdownWater hammer(Close valves slowly)
  5. Pump overheats at idleOpen pump cooler(Little water flowing)
  6. Pressure creeps upSet relief valve(Or use governor)
  7. Need pressure, low flowPressure position(Series staging)

Centrifugal Pump Theory

Centrifugal pump
Nonpositive displacement, cannot self-prime
Impeller
Adds velocity to water
Volute
Converts velocity into pressure
Primer
Positive displacement, removes air
Single stage
One impeller, most pumpers
Two stage
Two impellers, transfer valve
Volume position
Parallel, full rated capacity
Pressure position
Series, half rated capacity
Change to volume
Flow above 50% capacity
Rated capacity
100% at 150 psi
Net pump discharge pressure
Discharge minus intake pressure
Draft net pressure
Discharge plus lift losses

PSI Mode vs RPM Mode

PSI mode

  • Holds set discharge pressure
  • Changes engine speed automatically
  • Preferred for attack lines

RPM mode

  • Holds set engine speed
  • Pressure moves with flow
  • Acts like manual throttle

Pressure versus throttle

Transfer Valve Picker

  1. Flow above 50% capacityVolume position(Parallel staging)
  2. Flow at or below halfPressure position(Series staging)
  3. Long lines, high pressurePressure position(Pressure roughly doubles)
  4. Supplying large master streamVolume position(Full rated capacity)
  5. Priming or service testVolume position(Standard test setup)
  6. Single-stage pumpNo transfer valve(Nothing to change)

Panel Controls + Gauges

Master intake gauge
Compound, also reads vacuum
Master discharge gauge
Pressure leaving the pump
Tachometer
Engine speed in rpm
Pump shift
Engages pump from transmission
OK to pump
Green light before throttling
Tank to pump
Feeds pump from tank
Tank fill
Refills tank from pump
Primer control
Creates vacuum for draft
Transfer valve
Volume or pressure selection
Discharge gates
Open and close slowly

Relief Valve vs Governor

Relief valve

  • Mechanical, dumps excess water
  • Pressure bypasses back
  • Engine speed unchanged

Governor

  • Electronic, changes engine speed
  • No water dumped
  • Two selectable modes

Dump versus throttle

Pressure Control Devices

Relief valve
Dumps excess discharge pressure
Intake relief
Protects pump from surge
Governor PSI mode
Holds set discharge pressure
Governor RPM mode
Holds set engine speed
Water hammer
Surge from sudden closure
Cavitation
Discharging more than receiving
Cavitation signs
Rpm rises, pressure falls
Cavitation sound
Gravel rattling in pump
Cavitation fix
Throttle back, add supply
Pump cooler
Cools recirculating pump water

Cavitation vs Water Hammer

Cavitation

  • Pump starved of water
  • Rpm up, pressure down
  • Gravel rattling sound

Water hammer

  • Moving water stopped suddenly
  • Pressure surge and shock
  • Close valves slowly

Starved versus stopped

Pump Discharge Pressure

Nozzle, Friction, Appliance, Elevation

NP: nozzle pressureFL: hose friction lossAPPL: appliances and standpipeELEV: up adds, down subtracts

Static vs Residual

Static

  • No water moving
  • Stored system pressure
  • Read before opening

Residual

  • Water is flowing
  • Pressure left in system
  • Never below 20 psi

Stopped versus flowing

Water Source Picker

  1. Hydrant close, good pressureDirect hydrant supply(Simplest option)
  2. Hydrant far from sceneRelay pumping(Boost the pressure)
  3. No hydrant, static sourceDraft(Hard suction needed)
  4. No hydrant, no staticWater shuttle(Tankers and portable tank)
  5. Lift above 25 feetMove closer(Lift too high)
  6. Intake falls under 20 psiAdd a pumper(Cavitation risk)

Core Formulas

Pump discharge pressure
Nozzle, friction, appliance, elevation
Friction loss
C times Q² times L
Q means
Gpm divided by 100
L means
Length in hundreds of feet
Smooth bore flow
29.7 times d² times √NP
Elevation exact
0.434 psi per foot
Elevation fireground
5 psi per floor
Percent drop
Static minus residual, over static
Head conversion
1 psi lifts 2.304 ft
Flow rule
Double flow, quadruple friction loss

Percentage Method

Ten three, fifteen two, twenty-five one

0-10% drop: three lines11-15% drop: two lines16-25% drop: one lineOver 25%: less than one

Draft vs Hydrant Supply

Draft

  • Atmospheric pressure pushes water
  • Primer required first
  • Lift limits the flow

Hydrant

  • System pressure feeds pump
  • No primer needed
  • Watch residual pressure

Vacuum versus pressure

Nozzle Pressure Picker

  1. Smooth bore handline50 psi(Solid stream)
  2. Smooth bore master stream80 psi(Deck gun tip)
  3. Standard fog nozzle100 psi(Combination nozzle)
  4. Low-pressure fog nozzle75 psi(Reduced nozzle reaction)
  5. Standpipe operationSmooth bore(Pressure device uncertainty)
  6. Flow over 350 gpmAdd appliance loss(10 psi)

Friction Loss Coefficients

1½-inch
C equals 24
1¾-inch
C equals 15.5
2-inch
C equals 8
2½-inch
C equals 2Baseline
3-inch
C equals 0.82½-inch couplings
3½-inch
C equals 0.34
4-inch
C equals 0.2
4½-inch
C equals 0.1
5-inch
C equals 0.08
6-inch
C equals 0.05
1-inch booster
C equals 150
Upsizing hose
Cuts friction loss sharply

Nozzle Pressures

Fifty solid, eighty master, hundred fog

50 psi smooth bore handline80 psi smooth bore master100 psi standard fog75 psi low-pressure fog

Class A vs Class B Foam

Class A

  • Ordinary combustibles and wildland
  • 0.1% to 1.0%
  • Acts as wetting agent

Class B

  • Flammable and combustible liquids
  • 1%, 3%, or 6%
  • Seals vapor with blanket

Wetting versus sealing

Foam Picker

  1. Ordinary combustibles or wildlandClass A foam(0.1% to 1.0%)
  2. Gasoline or diesel spillClass B at 3%(Hydrocarbon fuel)
  3. Ethanol or alcohol fuelAR-AFFF at 6%(Polar solvent)
  4. Burning hydrocarbon spill0.10 gpm per ft²(Fifteen minute run time)
  5. Burning polar solvent0.20 gpm per ft²(Double the rate)
  6. Weak foam from eductorCheck 65 percent rule(Back pressure high)

Nozzle Pressures + Losses

Smooth bore handline
50 psi nozzle pressure
Smooth bore master
80 psi nozzle pressure
Fog nozzle
100 psi nozzle pressure
Low-pressure fog
75 psi nozzle pressure
Appliance under 350 gpm
Loss small enough to ignore
Appliance 350 gpm up
Add 10 psi
Standpipe system
Add 25 psi
Master stream device
Add 25 psi
Handline versus master
Split at 350 gpm

Lift Numbers

Thirty-four theoretical, ten ideal, fifteen dependable

33.9 ft theoretical maximum10 ft ideal lift14.7 ft dependable lift14.7 psi atmospheric

Hydrant + Percentage Method

Static pressure
Stored pressure, nothing flowing
Residual pressure
Pressure left while flowing
Flow pressure
Measured with pitot gauge
Drop 0-10%
Three more equal lines
Drop 11-15%
Two more equal lines
Drop 16-25%
One more equal line
Drop over 25%
Less than one line
Residual floor
Never below 20 psi
Class AA hydrant
Light blue, 1,500 gpm upNFPA 291
Class A hydrant
Green, 1,000 to 1,499NFPA 291
Class B hydrant
Orange, 500 to 999NFPA 291
Class C hydrant
Red, under 500 gpmNFPA 291
Dead-end main
Collapses quickly under flow

Drafting + Lift

Atmospheric pressure
14.7 psi at sea level
Theoretical lift
33.9 ft at sea level
Ideal lift
About 10 feet
Dependable lift
14.7 ft, most texts
Maximum lift
About 22 to 25 feet
Measure lift
Water surface to intake
Strainer depth
At least 2 ft submerged
Strainer clearance
2 ft off the bottom
Air leaks
Prevent prime from holding
Whirlpool
Means strainer sits too shallow
Hard suction
Rigid hose resists vacuum

Relay + Water Shuttle

Relay minimum
20 psi residual intake12.4.5
Relay target
20 to 30 psi
Source pumper
Largest capacity at source
Constant pressure relay
About 175 psi discharge
Dump line
Relieves excess intake pressure
Shuttle flow limits
Fill rate, dump rate, travel
Not the limit
Tanker tank size alone
Portable tank
Dump site holding basin

Foam + Proportioning

Class A concentrate
0.1% to 1.0%
Class B concentrate
1%, 3%, or 6%
AR-AFFF
3% hydrocarbon, 6% polar
Eductor principle
Venturi creates low pressure12.4.6
Eductor inlet
Rated at 200 psi
65 percent rule
Downstream under 65% of inlet
Eductor hose limit
150 ft to nozzle
Hydrocarbon rate
0.10 gpm per square foot
Polar solvent rate
0.20 gpm per square foot
Run time
At least 15 minutes
Flow match
Eductor and nozzle ratings

Standpipe + Sprinkler Support

Connection point
Fire department connection, FDC12.4.7
Standpipe allowance
Add 25 psi
Elevation per floor
Add 5 psi
Ground floor
Adds no elevation pressure
Standpipe nozzle choice
Smooth bore preferred
Sprinkler FDC
150 psi common defaultAHJ sets
Never shut down
Sprinklers controlling the fire
Two FDC inlets
Supply both when possible
Second supply line
Add if flow increases

Common Traps

NFPA 1002 vs NFPA 1010

NFPA 1002 was consolidated Content now NFPA 1010 Chapters 11-12

NFPA 1900 vs NFPA 1910

1900 builds new apparatus 1910 tests in-service apparatus

Elevation exact vs fireground

0.434 psi per foot exact 5 psi per floor shortcut

Volume does not add pressure

Volume gives full capacity Pressure position doubles pressure

Cavitation is not water hammer

Cavitation starves the pump Water hammer stops moving water

Discharge relief vs intake relief

Discharge relief controls outgoing Intake relief protects incoming

Firefighter I is not required

NFPA 1010 lists no prerequisite Many AHJs require it anyway

Low-air warning vs spring brakes

Warning alarms near 55 psi Spring brakes pop 20-45 psi

Priming thresholds are not equal

30 seconds to 1,250 gpm 45 seconds at 1,500 gpm

Percentage method counts added lines

Answer is additional lines Not the total flow available

Pump rating is not tank flow

Rating set at 10 ft draft Tank-to-pump flow is lower

Hydrant residual has a floor

Never below 20 psi residual Low residual can collapse mains

Last Minute

  1. 1.Pumper operator = Chapters 11 and 12
  2. 2.NFPA writes it; state entity certifies
  3. 3.PDP = nozzle + friction + appliance + elevation
  4. 4.Friction loss uses C Q² L
  5. 5.Double the flow, quadruple the loss
  6. 6.Smooth bore 50; fog 100 psi
  7. 7.Elevation exact is 0.434 psi/ft
  8. 8.Appliance loss starts at 350 gpm
  9. 9.Never let residual drop below 20
  10. 10.Volume above half; pressure below half
  11. 11.Cavitation: rpm up, pressure down
  12. 12.Theoretical lift 33.9 ft; ideal 10
  13. 13.Pump test: 150, 200, 250 psi
  14. 14.Vacuum 22 in. Hg minimum
  15. 15.Alley dock space is 12 ft
  16. 16.Class A foam: 0.1% to 1.0%
  17. 17.Eductor: 65 percent downstream limit
  18. 18.Green hydrant = 1,000 to 1,499 gpm
  19. 19.Pumper minimum: 750 gpm, 300 gallons
  20. 20.Annual competency demonstration is required
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