motor controller. The
1214-8 and 1219-8
controllers are similar, but
differ in overall length.
Curtis 1214-8, 1215-8, and 1219-8 programmable motor speed controllers
provide efficient, cost-effective, and simple-to-install control for a variety of large
industrial vehicles. Typical applications include walkie/rider pallet trucks, fork
lifts, stackers, reach trucks, and other industrial trucks.
The 1207-based microprocessor logic section combined with a Curtis
MOSFET power section gives the 1214-/15-/19-8 controller high power and
advanced features in a rugged, compact package. The optional handheld programmer enables the user to set parameters, conduct tests, and obtain diagnostic
information quickly and easily.
M- (motor armature)
4-pin connector for handheld programmer
LED
24-pin low-power connector
B- (negative battery)
B+ (positive battery)
Like all Curtis motor controllers, the 1214-/15-/19-8 controller offers superior
operator control of the vehicle’s motor drive speed. Features include:
✓Power MOSFET design, providing
• infinitely variable drive and plug brake control
• silent high-frequency operation
• high efficiency (for reduced motor and battery losses)
✓Overvoltage and undervoltage protection
✓Thermal protection/compensation circuitry that provides
undertemperature cutback, constant current limit over operating range,
Curtis 1214-/15-/19-8 Manual1
A2 (plug diode to
motor armature)
1 — OVERVIEW
and linear rollback in overtemperature—thus preventing sudden power
loss regardless of thermal conditions
✓Intelligent handheld 13XX programmer provides a full set of parameter
and function settings
✓Diagnostic and test information for the controller—and other system
components—readily available through both an on-board LED and the
optional handheld programmer
✓Meets or exceeds EEC fault detect requirements, with circuitry and
software to detect faults in the throttle circuit, MOSFET drive circuits,
MOSFET output, contactor drivers, and contactors
✓Programmable input sequencing options include several combinations
of neutral start and static return to off (SRO)
✓Arcless contactor switching with microprocessor-controlled contactor
sequencing
✓Smooth, controlled plug braking—with either variable (throttle-
dependent) or fixed plug current limit
✓Neutral braking option provides automatic plug braking in neutral
✓MultiMode™ input selects between two different operating modes,
thus allowing optimization of vehicle characteristics for different driving
conditions
✓Emergency reverse (belly button switch) provides full function
with a single input
✓Anti-rollback (ramp start) provides full power for starting on ramps
✓Simple contactor and switch wiring, with coil drivers monitored
for shorts and open circuits—thus ensuring fail-safe operation
✓Flexible throttle circuitry accommodates a variety of throttle types:
✓Sealed package, providing environmental protection
✓Power connections made by tin-plated solid copper busses,
with a polarized Molex connector for control signals
Familiarity with your Curtis controller will help you install and operate it
properly. We encourage you to read this manual carefully. If you have questions,
please contact the Curtis office nearest you.
Curtis 1214-/15-/19-8 Manual2
2 — INSTALLATION & WIRING
INSTALLATION AND WIRING
2
Fig. 2 Mounting
dimensions,
Curtis 1214-/15-/19-8
controllers.
MOUNTING THE CONTROLLER
The controller can be oriented in any position, but the location should be
carefully chosen to keep the controller as clean and dry as possible. If a clean,
dry mounting location cannot be found, a cover must be used to shield the
controller from water and contaminants.
To ensure full rated output power, the controller should be fastened to a
clean, flat metal surface with four screws. The case outline and mounting hole
dimensions are shown in Figure 2. Access is needed at the front of the controller
to plug the programmer into its connector, and to view the LED.
Although not usually necessary, a thermal joint compound can be used to
improve heat conduction from the case to the mounting surface.
180
(7.1)
169
(6.66)
“A”
“B”
[1219 MODELS ONLY]
121412151219
“A”
210 (8.275) 253 (9.975) 309 (12.180)
“B”
165 (6.490) 208 (8.190) 264 (10.394)
23
(0.893)
5.5 (0
.22
)
81.3
(3.2)
Dimensions in millimeters and (inches)
Curtis 1214-/15-/19-8 Manual3
7.1 (0.28) dia., 4 plcs
[6 plcs in 1219]
26.4×20.6×2.3 (1.04×0.81×0.09);
8.4 (0.33) dia. hole thru
3.18 (0.125)
2 — INSTALLATION & WIRING
CONNECTIONS: Low Current
A 24-pin low current connector in the front of the controller provides the low
current logic control connections (see pin list below). The mating connector is
Molex Mini-Fit Jr., part number 39-01-2245. Contact Molex regarding compatible pins: 39-00-0078 for #16 AWG, 39-00-0039 for #18–24 AWG.
A 4-pin low power connector, also located on the front of the controller, is
provided for the handheld programmer.
Curtis 1214-/15-/19-8 Manual4
M-
2 — INSTALLATION & WIRING
CONNECTIONS: High Current
Four tin-plated solid copper bus bars are provided for the high current connections to the battery and motor:
M- output to motor armature
B-negative connection to battery
B+ positive connection to battery/field
A2 plug diode to motor armature
A2
B-
CAUTION
☞
B+
Working on electric vehicles is potentially dangerous. You should
protect yourself against runaways, high current arcs, and outgassing
from lead acid batteries:
RUNAWAYS — Some fault conditions could cause the vehicle to run
out of control. Jack up the vehicle and get the drive wheels off the
ground before attempting these procedures or any other work on the
motor control circuitry.
HIGHCURRENTARCS— Electric vehicle batteries can supply very high
power, and arcs can occur if they are short circuited. Always open
the battery circuit before working on the motor control circuit.
Wear safety glasses, and use properly insulated tools to prevent
shorts.
Cables are fastened to the bus bars by M8 (5⁄16")
bolts. When tightening the bolts, two opposing
wrenches should be used to prevent bending the bus
bars and putting undue strain on the internal connections.
LEADACIDBATTERIES— Charging or discharging generates hydrogen
gas, which can build up in and around the batteries. Follow the
battery manufacturer’s safety recommendations. Wear safety glasses.
Curtis 1214-/15-/19-8 Manual5
2 — INSTALLATION & WIRING
WIRING: Standard Configuration
The configuration shown in Figure 3 is a typical arrangement for most applications. For walkie applications, the brake switch is typically activated by the tiller,
and a belly button switch provides emergency reverse. The emergency reverse
check feature (wiring shown by dotted line) is a factory option.
For rider applications, the brake switch is typically a seat switch or a foot
switch, and there is no emergency reverse.
Fig. 3 Standard
wiring diagram,
Curtis 1214-/15-/19-8
controller.
KEYSWITCH
FUSE
CONTROL
B+
B-
SWITCHES
BRAKE/
SEAT
POLARITY
PROTECTION
DIODE
POWER
FUSE
CONTACTOR
PRECHARGE RESISTOR
(250 Ω, 5 W)
MAIN
FORWARD
REVERSE
M-
B-
B-B-
CONTACTORS
REV
FORWARD
CONTACTOR
A1
FWD
A
MAIN
S1S2
A2
B+
5kΩ–0
THROTTLE
(TYPICAL)
A2
REVERSE
CONTACTOR
SWITCHES
MODE
SELECT
EMERG.
REV
Curtis 1214-/15-/19-8 Manual6
2 — INSTALLATION & WIRING
Standard Power Wiring
In every wiring configuration, it is imperative that the field be wired between B+
and A2 and that the armature be wired between M- and the A2 terminal. The
internal plug diode used in the 1214-/15-/19-8 is connected between M- and A2.
Therefore, the armature and field positions cannot be interchanged. Reversing
contactors can be used to switch either the armature or the field.
Standard Control Wiring
Wiring for the input switches and contactors is shown in Figure 3 (see detail
below). The main contactor, if one is used, is normally connected directly to the
controller. Optionally, the main contactor can be switched directly by the
keyswitch or brake, leaving Pin 17 unconnected.
24-pin detail (see Fig. 3):
EMERGENCY
REVERSE
CHECK
OUTPUT
(factory option)
FORWARD
CONTACTOR
REVERSE
CONTACTOR
2-WIRE POT
MAIN
CONTACTOR
(5 k
Ω
)
POT
LOW
242322212019181716151413
121110987654321
FORWARD
REVERSE
EMERGENCY
REVERSE
(walkies only)
MODE
SELECT
SEAT SWITC H
KEYSWITCH
BRAKE
or
The throttle shown in Figure 3 is a 5kΩ–0 type. Various other throttles can also
be accommodated, and are discussed in the throttle wiring section.
Curtis 1214-/15-/19-8 Manual7
2 — INSTALLATION & WIRING
WIRING: Throttle
Wiring for various throttles is described below. These include 5kΩ–0 and 0–5kΩ
throttles, 0–5V and 0–10V throttles, 3-wire potentiometer throttles, and electronic throttles. If the throttle you are planning to use is not covered, contact the
Curtis office nearest you.
5kΩ–0 Throttle (“Type 1”)
The 5kΩ–0 throttle (called a “Type 1” throttle in the programming menu of the
handheld programmer) is a 2-wire resistive throttle that connects between the
2-Wire Pot pin (Pin 16) and the Pot Low pin (Pin 14), as shown in Figure 4. It
doesn’t matter which wire goes on which pin. For Type 1 throttles, zero speed
corresponds to 5kΩ and full speed corresponds to 0Ω.
Fig. 4 Wiring for 5k
throttle (“Type 1”).
Fig. 5 Wiring for 20k
potentiometer used as a
wigwag-style throttle
(“Type 1”).
Ω
–0
Pin 16
Pin 14
5kΩ–0
PIN KEY
2-Wire Pot
Pot Low
FASTER
14 1315161718192021222324
121110987654321
In addition to accommodating the basic 5kΩ–0 throttle, the Type 1 throttle
input can be used to implement a wigwag-style throttle. Using a 20kΩ potentiometer wired as shown in Figure 5, the pot wiper can be set such that the
controller has 5kΩ between Pins 14 and 16 when the throttle is in the neutral
position. The throttle mechanism can then be designed such that rotating it
either forward or back decreases the resistance between Pins 14 and 16, which
increases the controller output. The throttle mechanism must provide signals to
Ω
Pin 16
Pin 14
20 kΩ
PIN KEY
2-Wire Pot
Pot Low
FASTERFASTER
14 1315161718192021222324
121110987654321
Curtis 1214-/15-/19-8 Manual8
2 — INSTALLATION & WIRING
the controller’s forward and reverse inputs independent of the throttle pot
resistance. The controller will not sense direction from the pot resistance.
With Type 1 throttles, broken wire protection is provided by the controller
sensing the current flow from the 2-Wire Pot pin through the pot and into the
Pot Low pin. If the Pot Low input current falls below 0.1 mA, a throttle fault is
generated and the controller is disabled. NOTE: The Pot Low pin (Pin 14) must
not be tied to ground.
0–5kΩ Throttle (“Type 3”)
The 0–5kΩ throttle (“Type 3” in the programming menu) is a 2-wire resistive
throttle that connects between the 2-Wire Pot pin (Pin 16) and Pot Low (Pin 14).
It doesn’t matter which wire goes on which pin. For Type 3 throttles, zero speed
corresponds to 0Ω and full speed corresponds to 5kΩ.
Fig. 6 Wiring for 0–5k
throttle (“Type 3”).
Ω
Pin 16
Pin 14
FASTER
0–5kΩ
PIN KEY
2-Wire Pot
Pot Low
121110987654321
With Type 3 throttles, broken wire protection is provided by the controller
sensing the current flow from the 2-Wire Pot pin through the pot and into the
Pot Low pin. If the Pot Low input current falls below 0.1 mA, a throttle fault is
generated and the controller is disabled. NOTE: The Pot Low pin (Pin 14) must
not be tied to ground.
0–5V, 0–10V, 3-Wire Potentiometer, or Electronic Throttle (“Type 2”)
With these throttles (“Type 2” in the programming menu), the controller looks
for a voltage signal at either the pot wiper/0–5V input (Pin 15) or the 0–10V
input (Pin 5). Zero speed corresponds to 0V and full speed corresponds to either
5V or 10V. Pot Low (Pin 14) is the current return path for all Type 2 throttles.
It is 200 mV above B- and must have at least 0.1 mA flowing into it to prevent
pot faults.
14 1315161718192021222324
Curtis 1214-/15-/19-8 Manual9
2 — INSTALLATION & WIRING
0–5V Throttle
Two ways of wiring the 0–5V throttle are shown in Figure 7. Broken wire
protection is provided by the controller looking for a minimum current into the
Pot Low pin. If the Pot Low input current falls below 0.1 mA, a throttle fault is
generated and the controller is disabled. If a throttle sensor is used, the sensor’s
ground return current must be less than 10 mA. If the 0–5V throttle input (Pin
15) exceeds 8 volts, the controller output will be disabled. NOTE: In Figure 7(a),
the throttle’s voltage input signal is in reference to Pot Low.
Fig. 7 Wiring for 0–5V
throttle (“Type 2”).
(a) Ground-referenced 0–5V throttle
(Shunt impedance 150 kΩ to ground)
+
-
B-
(b) 0–5V throttle sensor
+
0–5V
SENSOR
SENSOR GROUND
0–10V Throttle
121110987654321
Pin 15
Pin 14
Pin 13
121110987654321
SENSOR OUTPUT
Pin 15
Pin 14
4.7 kΩ
14 1315161718192021222324
PIN KEY
0–5V Input
Pot Low
Pot High
14 1315161718192021222324
PIN KEY
0–5V Input
Pot Low
Two ways of wiring the 0–10V throttle are shown in Figure 8. Broken wire
protection is provided by the controller looking for a minimum current into the
Pot Low pin. If the Pot Low input current falls below 0.1 mA, a throttle fault is
generated and the controller is disabled. If a throttle sensor is used, the sensor’s
ground return current must be less than 10 mA. If the 0–10V throttle input (Pin
5) exceeds 16 volts, the controller output will be disabled. NOTE: In Figure 8(a),
the throttle’s voltage input signal is in reference to Pot Low.
Curtis 1214-/15-/19-8 Manual10
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