AIC AIC1533PLTR Triple-output lcd power supply Datasheet

AIC1533
Triple-Output LCD Power Supply
FEATURES
DESCRIPTION
One Low Dropout Linear Regulator
AIC1533, composed of dual charge pumps and a
Dropout Voltage 500mV at 0.3A Output Current
regulator, provide three independent regulated
Dual Adjustable Charge Pump
voltages designed for using in thin-film transistor
Up to +30V Positive Output
(TFT) liquid crystal display (LCD).
Down to -10V Negative Output
Power Up Sequencing and Adjustable Delay
The main regulator has an adjustable output
time
voltage and a low dropout voltage of 500mV at
Power-Saving Shutdown Mode (0.1µA typical)
300mA load current is performed.
Operating Supply Voltage: 12V
The dual charge pumps independently regulate a
1MHz Operation Frequency
Internal Current Limit and Thermal Protection
built in LDO part
Few External Components Required
positive output and a negative output. AIC1533
has thermal shutdown capability and survives a
continuous short circuit from output to ground. A
unique control scheme minimizes output ripple as
well as output capacitance for both charge pump.
APPLICATIONS
1MHz-switching frequency of AIC1533 provides a
LCD Monitor Panel Module
low noise, low cost total solution. The device
LCD TV Panel Module
operates up to 15V supply voltage and is available
in 14-lead SOP and 16-lead TSSOP package.
Analog Integrations Corporation
Si-Soft Research Center
DS-1533P-02
010405
3A1, No.1, Li-Hsin Rd. I, Science Park, Hsinchu 300, Taiwan, R.O.C.
TEL: 886-3-5772500
FAX: 886-3-5772510
www.analog.com.tw
1
AIC1533
TYPICAL APPLICATION CIRCUIT
OUT3
10V/300mA
12VIN
CIN
10µF
+
Cp
1nF
C1
2.2µF
BAT54S
D1
CFLY1
OUT1
28V/30mA
OUT
SHDN
ADJ
TP
0.1µF
TN
GND
SWN
SUPP
FBN
SWP
VREF
+
R3
910k
Cn
4.7nF
R4
CFLY3 0.1µF
R1
470k
C3
10pF
R5
240k
OUT2
-9V/30mA
Co2
1µF
D3 BAT54S
R6
33k
C4
0.22µF
0.1µF
D2 BAT54S
Co1
1µF
Co3
10µF
130k
FBP
PGND
AIC1533
CFLY2
C2
0.47uF
VCC
R2
22k
CIN, CO3: HER-MEI Electrolysis Capacitor, LER100M1CD11 or
TAIYO YUDEN Ceramic Capacitor, EMK325BJ106MN-B (10µF/16V)
CFLY1, CFLY2: TAIYO YUDEN Ceramic Capacitor, UMK212BJ104KG (0.1µF/50V)
CFLY3: TAIYO YUDEN Ceramic Capacitor, EMK107BJ104KA (0.1µF/16V)
CO1: TAIYO YUDEN Ceramic Capacitor, UMK212F105ZG (1µF/50V)
CO2: TAIYO YUDEN Ceramic Capacitor, EMK212F105KG (1µF/16V)
D1~D3: WTE Schottky Diode, BAT54S
Fig.1 TFT-LCD Power Application
2
AIC1533
ORDERING INFORMATION
AIC1533XXXX
PACKING TYPE
TB: TUBE
TR: TAPING & REEL
PACKAGING TYPE
S: SOP-14
L: TSSOP-16
C: COMMERCIAL
P: LEAD FREE COMMERCIAL
Exam ple: AIC1533CLTR
PIN CONFIGURATION
SOP-14
TOP VIEW
ADJ
1
14 GND
OUT 2
13 VREF
FBP 3
12 FBN
SHDN 4
11 TP
VCC 5
10 TN
SUPP
6
9
SW N
SW P
7
8
PGND
in TSSOP-16 Package & Taping &
Reel Packing Type
AIC1533PSTR
in Lead Free SOP-14 Package &
Taping & Reel Packing Type
TSSOP-16
TOP VIEW
ADJ
1
16
GND
OUT
2
15
VREF
FBP
3
14
FBN
SHDN
4
13
TP
VCC
5
12
TN
SUPP
6
11 SW N
SW P
7
10
PGND
GND
8
9
GND
3
AIC1533
ABSOLUTE MAXIMUM RATINGS
VCC, SHDN to GND
-0.3V to 18V
FBN, FBP, VREF, ADJ, TN, TP
-0.3V to 8V
SWN, SWP
-0.3V to (Vcc+0.3V)
PGND to GND
±0.3V
Operating Temperature
-40°C to 85°C
Junction Temperature
125°C
Storage Temperature Range
-65°C to 150°C
Lead Temperature (Soldering, 10 sec)
260°C
Thermal Resistance Junction to Ambient
SOP-14
100°C/W
(Assume no ambient airflow, no heatsink) TSSOP-16
120°C/W
Absolute Maximum Ratings are those values beyond which the life of a device may be impaired.
TEST CIRCUIT
Refer to TYPICAL APPLICATION CIRCUIT.
ELECTRICAL CHARACTERISTICS
(VIN=12V, CO1=CO2=1µF, CO3=10µF, CFLY1=CFLY2=CFLY3=0.1µF, TA=25°C, unless otherwise specified.)
(Note 1)
PARAMETER
TEST CONDITIONS
Input Voltage Range
Quiescent Current
V SHDN =2.4V, IOUT= 0mA
Standby Current
V SHDN =0.6V,Output OFF
MIN.
TYP.
MAX.
UNIT
10
12
15
V
0.6
1.2
2.0
mA
1
µA
Thermal Shutdown Temperature
°C
155
LOW DROPOUT LINEAR REGULATOR TERMINAL SPECIFICATION
Adjustable Voltage
Line Regulation
1.225
1.25
VIN =12~15V, VOUT3=10V,
1
IOUT3=1mA
Load Regulation
VIN =12V, IOUT3=0.1~300mA
Continuous Output Current
VIN =12V
Current Limit
VIN =12V, V OUT3=0V (Note2)
Dropout Voltage
IOUT3=300mA
1.275
1
%
%
mA
300
350
V
700
mA
500
mV
4
AIC1533
ELECTRICAL CHARACTERISTICS
(Continued)
MIN.
TYP.
MAX.
UNIT
FBP Threshold
1.225
1.25
1.275
V
FBN Threshold
-30
0
30
mV
1.231
1.25
1.269
V
30
mA
PARAMETER
TEST CONDITIONS
CHARGE PUMP TERMINAL SPECIFICATION
VREF Voltage
IREF=250µA
Continuous Output Current
VIN =12V
3
5
7
µA
TP/TN Input Threshold
1.225
1.25
1.275
V
Switching Frequency
0.70
1
1.30
MHz
SUPP switch
5
10
SWP switch
5
10
SWN switch
5
10
0.1
1
TP/TN Bias Current
Internal Switch On-Resistance
Ω
SHUTDOWN TERMINAL SPECIFICATIONS
SHDN Pin Current
SHDN Pin Voltage
V SHDN =2.4V
Output ON
Output OFF
2.4
0.6
µA
V
Note 1: Specifications are production tested at TA=25°C. Specifications over the -40°C to 85°C operating
temperature range are assured by design, characterization and correlation with Statistical Quality
Controls (SQC).
Note 2: Current limit is measured by pulse testing.
5
AIC1533
SHDN
0
Shutdown exit
Delay time
LDO
0
Negative Charge
Pump
0
90%
10%
90%
T1
T2
Positive Charge
Pump
0
T1 set by CN
T2 set by CP
Fig. 2 Power Up Sequencing
TYPICAL PERFORMANCE CHARACTERISTICS
VSHDN=0~3V
V O2=-10V, I O2=30mA
VCC=12V
Vo1
Vo3
VO1=30V, IO1=30mA
Vo2
Fig. 3 Power- Up Sequence
Fig 4. Ripple Voltage Waveforms
6
AIC1533
TYPICAL PERFORMANCE CHARACTERISTICS (Continued)
800
VCC=12V, VO3=10V, CO3=10µF, Io3=300mA
VCC=12V
VCC-VOUT (mV)
700
VO3
IO3
600
500
400
300
200
100
0
0
50
100
150
200
250
300
350
400
450
IOUT (mA)
Fig. 5 LDO Load Transient Response
Fig. 6 Dropout Voltage vs. LDO Load
800
800
600
500
400
300
200
-40
700
Current Limit (mA)
VCC-VOUT (mV)
700
IOUT=300mA
-20
0
20
40
60
80
100
600
500
400
300
120
-40
-20
0
Temperature (°C)
80
100
120
TN/TP Bias Current (µA)
7.0
IOUT=300mA
475
VCC-VOUT (mV)
60
Fig. 8 LDO Current Limit vs. Temperature
500
450
425
400
375
10
40
Temperature (°C)
Fig. 7 LDO Dropout Voltage vs. Temperature
350
20
11
12
13
14
15
16
17
18
VCC (V)
Fig. 9 LDO Dropout Voltage vs. Input Voltage
6.5
6.0
5.5
5.0
4.5
4.0
3.5
3.0
-40
-20
0
20
40
60
80
100
120
Temperature (°C)
Fig. 10 TN/TP Bias Current vs. Temperature
7
AIC1533
TYPICAL PERFORMANCE CHARACTERISTICS (Continued)
1.260
-8.0
-8.4
1.255
-8.8
VREF (V)
VNEG (V)
1.250
1.245
1.240
-9.2
VCC=11V
-9.6
VCC=12V
-10.0
-10.4
1.235
VCC=13V
-10.8
1.230
-40
-20
0
20
40
60
80
100
120
Temperature (°C)
0
20
30
40
INEG (mA)
Fig. 12 Negative Charge-Pump vs. Load Current
Fig. 11 VREF vs. Temperature
32
100
VNEG=-10V
31
90
VCC=13V
Efficiency (%)
30
VPOS (V)
10
29
VCC=12V
28
VCC=11V
27
26
VCC=12V
VCC=11V
80
VCC=13V
70
60
50
40
25
0
10
20
30
40
IPOS (mA)
Fig. 13 Positive Charge Pump vs. Load Current
30
0
10
20
30
40
INEG (mA)
Fig. 14 Negative Charge-Pump vs. Load Current
100
VPOS=30V
90
Efficiency (%)
VCC=11V
80
VCC=12V
VCC=13V
70
60
50
40
30
0
10
30
40
IPOS (mA)
Fig. 15 Positive Charge-Pump Efficiency vs.
Load Current
8
AIC1533
BLOCK DIAGRAM
14
ADJ
1
+
VCC
OUT
-
Current
Limit
Thermal
Shutdown
Reference Voltage
ADJ
-
FBP
13
EA
2
90%VREF
5V
+
12
10%VREF
-
COMP
3
SHDN
+
5µA
VCC
5
Q6
OSC
FBN
COMP
5µA
Shutdown
VREF
5V
11
4
GND
1.25V
TP
Q7
TP
10
Q1
TN
VCC
SUPP
6
Q4
Q2
9
SWP
7
-
EA
+
Q3
FBP FBN
+
VREF
-
SWN
EA
Q5
8
PGND
9
AIC1533
PIN DESCRIPTIONS
PIN 1: ADJ
- Providing VADJ=1.25V (typ.) for
adjustable VOUT.
PIN 2: OUT
- Adjustable
output.
PIN 3: FBP
- Positive charge pump feedback
input. Regulates to 1.25V
typical.
PIN 4: SHDN
- Active-Low logic level shutdown
input. Connecting SHDN to VCC
for typical operation.
PIN 5: VCC
- Supply input.
PIN 6: SUPP
- Positive charge pump supply pin.
It monitors negative charge
pump.
LDO
The capacitor on this pin sets
negative charge pump to
provide independent time control.
Or TN connects to high level
directly if it is not in use for
programming delay time.
regulator
PIN 7: SWP
- Positive charge pump driver
output. Output high level is VCC,
and low level is GND.
PIN 8: PGND
- Power ground. Connecting to
GND.
PIN 9: SWN
- Negative charge pump driver
output. Output high level is VCC,
and low level is GND.
PIN 10: TN
- Programmable delay time pin.
PIN 11: TP
- Programmable delay time pin.
The capacitor on this pin sets
positive charge pump to provide
independent time control. Or TP
connects to high level directly if
it is not in use for programming
delay time.
PIN 12: FBN
- Negative charge pump feedback
input. Regulates to 0V typical.
PIN 13: VREF - Internal
reference
bypass
terminal. Connecting a 0.22µF
capacitor to ground. Providing a
positive voltage greater than
negative feedback voltage to
obtain a positive voltage for
FBN.
PIN 14: GND
- Ground. Tie GND pin directly to
local ground plane to obtain best
performance.
APPLICATION INFORMATION
an adjustable start-up delay time. In shutdown
Introduction
AIC1533 is composed of dual charge pumps and a
regulator to provide three independent regulated
voltages exclusively designed for thin-film transistor
(TFT) liquid crystal display (LCD) applications. LDO
regulator has an adjustable output voltage with a
low dropout voltage of 500mV at 300mA load
current. Two independent charge pumps regulate a
positive output and a negative output by using a
1MHz
switching
frequency,
and
a
pulse-width-modulation (PWM) architecture.
AIC1533 provides a start-up sequence function with
mode, it only consumes 0.1µA supply current.
AIC1533 also features an internal current limit and
thermal shutdown protection.
Operation
As Fig. 16 shows, two internal MOSFETs - Q2, Q3,
and external components comprise a positive
charge pump, whose output is three times as much
as input voltage. After delay time, which determined
by CP, Q1 turns on. During on state, which indicates
Q2 is at off stage and Q3 at on stage, CFLY1
connects VCC and PGND and is charged by VCC.
10
AIC1533
During off state, Q2 at on stage and Q3 off stage,
voltage of C2 is the addition of VCC and VCFLY1.
And then go back to on state with voltage of CFLY2
AIC1533
VCC
D3
equal to VC2, which is twice as much voltage as
VCC. Lastly, the system goes to off state, voltage of
SWN
Q4
CFLY3
Co1 is the addition of VCC and CFLY2, that is, three
times as much voltage as VCC.
-
3
Q5 FBN
2
Fig.17 shows the structure of a negative charge
R5 C5
Co2
+
R6
VREF
pump. During on state, which represents Q4 at on
stage and Q5 at off stage, voltage of CFLY3 is equal
Vn
1
PGND
C4
to VCC. During off state, indicating Q4 at off stage
and Q5 on stage, SWN pin connects to PGND
Fig. 17 Structure of Negative Charge Pump
directly, and voltage of Co2 equals to -VCC.
AIC1533
12VIN
VCC
Q1
Power-Up Sequence And Adjustable Delay
Time
For thin-film transistor (TFT) liquid crystal display
1
SUPP
D1
Q2
CFLY1
C1
3
2
SWP
Q3
FBP
C2
PGND
3
voltages is required. Fig. 3 indicates the power-up
sequence of AIC1533. After shutdown exit delay
time, output of LDO starts rising. When it reaches to
D2
1
applications, power-up sequence of three output
CFLY2
2
90% of normal voltage, which is determined by an
external resistor divider, CN starts being charged
from 5µA current source (referring to BLOCK
DIAGRAM). The charging time of CN, defined as T1,
Vp
+
Co1
R1
-
can be calculated as
R2
C3
Fig.16 Structure of Positive Charge Pump
T1 = Cn ×
VTH,n
In
(1)
where VTH,η = negative threshold voltage, 1.25V,
In = negative bias current, 5µA
Afterwards, while negative output voltage starts
decreasing from 0V, VFBN decreases from 1.1V to
0V proportionally. As VFBN decreases to 10% of
VREF, Q7 turns off and Cp starts being charged
from 5µA current source (referring to BLOCK
DIAGRAM). The charging time of CP, defined as T2,
can be calculated as
11
AIC1533
T2 = Cp ×
VTH,P
(2)
IP
Shutdown
AIC1533 shuts off all devices and consumes only
where VTH,P = positive threshold voltage, 1.25V
IP= positive bias current, 5µA
0.1µA supple current when SHDN gets lower than
0.6V. This pin can be pulled high to 2.4V for normal
operation. Due to high impedance of SHDN pin, it
can’t be floating.
Current Limit And Thermal Protection
To protect devices from damage caused by short
circuit, AIC1533 provides current limit and thermal
protection. When short circuit occurs, output current
is clamped at the current limit. Due to power
dissipation of LDO is defined as
PDISSIPATION = IOUT * (VIN-VOUT)
(3)
Under short circuit condition, the temperature rising,
which is caused by power dissipation, gets to
thermal shutdown temperature and shuts AIC1533
down. As the temperature gets lower than the
thermal shutdown temperature, the device will
Components Selection
1. Determining The Number Of Charge
Pump Stages
The number of charge pump stages to regulate is
determined by output voltage, supply voltage,
switching frequency, load current, forward voltage
of diodes, on-resistor of internal MOSFET, and
value of ceramic capacitor.
resume. The pattern of temperature of the device
For positive charge pump, the number of required
recycles until the short circuit condition is removed.
stages can be calculated as
The waveform under short circuit condition is shown
NPOS ≥
as Fig.18.
VPOS − Vcc + R TH × Iout
Vcc − 2VD
(4)
where VPOS = output of positive charge pump
IOUT
RTH = equivalent output impedance of
charge pump
Current
VD
Limit
= forward voltage of diodes
Vcc = input voltage
Thermal Shutdown
The following equation approximates RTH
RTH =
VOUT
2(R DS,ON(P ) + R DS,ON(N) ) + (
1
1
)
)+(
CO × FSW
CFLY × FSW
(5)
Fig.18 Current Limit Waveform of AIC1533
where RDS, ON(P) is on-resistor of internal P-channel
MOSFET, RDS, ON(N) means on-resistor of internal
N-channel MOSFET, and FSW
is
switching
frequency of AIC1533 (referring to ELECTRIVAL
CHARACTERISTICS).
12
AIC1533
For negative charge pump, the number of negative
VLDO = VADJ × (1 +
charge pump can be determined by
NNEG ≥
R TH × Iout − VNEG
Vcc − 2VD
(6)
R3
)
R4
(10)
where VLDO = output voltage of LDO
VADJ = adjustable voltage of LDO, the
where VNEG = output of negative charge pump
recommended R4 is 130kΩ.
Example
To obtain VPOS=28V/30mA, VNEG=-9V/30mA from
2.2. Output Voltage Of Positive Charge
Pump
VCC=12V, CFLY=0.1µF, the number of positive and
Output
negative charge pumps can be calculated as
determined by connecting a resistor divider to
follows
output terminal of positive charge pump, GND, and
RTH
FBP
= 2(R DS,ON(P ) + R DS,ON(N) ) + (
= 2(10 + 10) + (
1
1
)+(
)
C FLY × FSW
C O × FSW
1
0.1× 10
−6
× 1× 10
6
)+(
1
1× 10
−6
=51
× 1× 10
6
)
(7)
voltage
of
(referred
to
positive
charge
TYPICAL
pump
is
APPLICATION
CIRCUIT). The values of resistor divider can be
calculated as equation (11).
VPOS = VFBP × (1 +
R1
)
R2
(11)
where VPOS = output voltage of positive charge
pump
VFBP = feedback voltage of positive charge pump,
NPOS
≥
VPOS − Vcc + R TH × Iout 28 − 12 + (51 × 30 × 10 −3 )
=
Vcc − 2VD
12 − 2 × 0.5
= 1.59
(8)
NNEG
R × Iout − VNEG (51 × 30 × 10 −3 ) − ( −9)
≥ TH
=
Vcc − 2VD
12 − 2 × 0.5
1.25V. The recommended R2 is 22kΩ
2.3 Output voltage of negative charge
pump
Since comparator input of negative charge pump,
FBN, is referenced to 0V, a positive reference
(9)
= 0.96
Thus, the number of positive charge pump is two,
and the negative one requires one charge pump.
2. Output Voltage Selection
2.1 Output voltage of LDO
A resistor divider, determining output voltage of
LDO, connects to OUT, GND, and ADJ (referred to
voltage, which can be obtained by adding a 0.22µF
bypass capacitor between VREF and GND, is
needed (referred to TYPICAL APPLICATION
CIRCUIT). The value of resistor dividers can be
calculated as equation (12).
VNEG = − VREF ×
R5
R6
(12)
where VNEG represents output voltage of negative
charge pump, and VREF means reference voltage,
1.25V. The recommended R6 is 33kΩ.
TYPICAL APPLICATION CIRCUIT). Values of
resistors can be calculated by equation (10).
13
AIC1533
3. Flying Capacitor Selection
maintain stability. The recommended values for
A flying capacitor plays an important role in charge
pump strength. Increase of flying capacitor value
results in a rise of output capability with smaller
ripple voltage. Normal voltage of flying capacitor
must comply with the following conditions, as
both input and output capacitors are 10µF. Because
of the material, X5R or X7R, ceramic capacitor has
low ESR and excellent electrical characteristics in
over temperature. That makes ceramic capacitor
suitable for output and input capacitors of AIC1533.
equation (13).
4.2 Charge Pump
VCFLY (POS) = VCFLY (NEG) >1.5 x [VCC x (N)] .....(13)
A ceramic capacitor of a value, which is 10 times of
Where VCFLY(POS) is the normal voltage of positive
flying capacitor, is suitable for the output capacitor
charge
VCFLY(NEG)
of charge pump. In order to maintain a stable output
represents the normal voltage of negative charge
voltage, make sure to place the capacitor as close
pump flying capacitor, and N means the number of
to IC as possible.
pump
flying
capacitor,
charge pump stages
Besides, ceramic capacitors composed by different
5. Rectifier Diode Selection
materials, such as X7R, X5R, Z5U and Y5V, have
A Schottky diode with a current rating equal to or
different tolerance in temperature, and result in
greater than two times of average charge pump
different capacitance loss. A capacitor, which is
input current, and a voltage rating at least 1.5 times
made of X7R or X5R, is recommended for AIC1533
of VCC, is recommended.
applications.
Table 1 indicates the recommended components for
AIC1533 applications.
4. Input-Output Capacitor Selection
4.1 LDO
AIC1533 needs input and output capacitors to
Table.1 Bill of Materials List
Designator
Part Type
CIN
10µF/16V
CFLY1
Vender
Phone
Ceramic capacitor, EMK325BJ106MN-B
Taiyo Yuden
02-27972155-314
0.1µF/50V
Ceramic capacitor, UMK212BJ104KG
Taiyo Yuden
02-27972155-314
CFLY2
0.1µF/50V
Ceramic capacitor, UMK212BJ104KG
Taiyo Yuden
02-27972155-314
CFLY3
0.1µF/16V
Ceramic capacitor, EMK107BJ104KA
Taiyo Yuden
02-27972155-314
CO1
1µF/50V
Ceramic capacitor, UMK212F105ZG
Taiyo Yuden
02-27972155-314
CO2
1µF/16V
Ceramic capacitor, EMK212F105KG
Taiyo Yuden
02-27972155-314
CO3
10µF/16V
Ceramic capacitor, EMK325BJ106MN-B
Taiyo Yuden
02-27972155-314
D1~D3
BAT54SW
Surface mount Schottky barrier diode
U1
AIC1533
Description
Triple Adjustable Output DC/DC Converter
with a LDO
WTE
07-8225408
AIC
03-5772500
14
AIC1533
Layout Consideration
Due to the switching frequency of AIC1533, careful
of trace for best performance. Make sure each
PCB layout is necessary. Place components as
device connect to its immediate ground plane. Fig
close to one another as possible and maintain each
19, 20 and 21 represent recommended layouts.
connection of minimum length and maximum width
Fig. 19 Top Layer
Fig. 20 Bottom Layer
Fig. 21 Top-over Layer
15
AIC1533
PHYSICAL DIMENSIONS (unit: mm)
SOP-14
D
A
A
e
MIN.
MAX.
1.35
1.75
0.10
0.25
0.33
0.51
C
0.19
0.25
D
8.55
8.75
E
3.80
4.00
e
h X 45°
A
A1
B
SEE VIEW B
A1
B
1.27 BSC
H
5.80
6.20
h
0.25
0.50
L
0.40
1.27
0°
8°
WITH PLATING
C
θ
0.25
BASE METAL
SECTION A-A
GAUGE PLANE
SEATING PLANE
θ
L
VIEW B
SOP-14
MILLIMETERS
A
H
E
S
Y
M
B
O
L
TSSOP-16
D
S
Y
M
B
O
L
TSSOP-16
MILLIMETERS
MAX.
MIN.
e/2
e
A
E
E1
A
1.20
A1
0.05
0.15
A2
0.80
1.05
b
0.19
0.30
c
0.09
0.20
D
4.90
E
A
SEE VIEW B
E1
4.30
A
A2
e
L
A1
θ
5.10
6.40 BSC
4.50
0.65 BSC
0.45
0.75
0°
8°
b
c
WITH PLATING
0.25
BASE METAL
SECTION A-A
GAUGE PLANE
SEATING PLANE
VIEW B
θ
L
16
AIC1533
Note:
Information provided by AIC is believed to be accurate and reliable. However, we cannot assume responsibility for use of any
circuitry other than circuitry entirely embodied in an AIC product; nor for any infringement of patents or other rights of third
parties that may result from its use. We reserve the right to change the circuitry and specifications without notice.
Life Support Policy: AIC does not authorize any AIC product for use in life support devices and/or systems. Life support devices
or systems are devices or systems which, (I) are intended for surgical implant into the body or (ii) support or sustain life, and
whose failure to perform, when properly used in accordance with instructions for use provided in the labeling, can be reasonably
expected to result in a significant injury to the user.
17