HSDL-3210-011G [AGILENT]

Interface Circuit, BICMOS, ULTRA SMALL, SMT-8;
HSDL-3210-011G
型号: HSDL-3210-011G
厂家: AGILENT TECHNOLOGIES, LTD.    AGILENT TECHNOLOGIES, LTD.
描述:

Interface Circuit, BICMOS, ULTRA SMALL, SMT-8

信息通信管理 接口集成电路
文件: 总12页 (文件大小:473K)
中文:  中文翻译
下载:  下载PDF数据表文档文件
1
IrDA Data 1.3 Low Power  
Compliant 1.15Mbps Infrared  
Transceiver  
PRELIMINARY  
Preliminary Product Data Sheet  
Revison: 1.0 (22 Feb. 02)  
HSDL-3210  
Features  
· Ult ra Small Surface Mount  
Package  
· Low Shutdown Current –  
10 nA t ypical  
· Complete Shutdown  
– TxD, RxD, PIN Diode  
· Three opt ional ext ernal  
component s  
· Temperature performance  
guarant eed, -25°C to 85°C  
· Int egrat ed EMI Shield  
· IEC60825-1 Class 1 Eye  
Safe  
· Edge Det ect ion Input  
Prevents the LED from  
long t urn on t ime  
· Minimal Height : 2.5 mm  
· Vcc from 2.7 to 3.6 volts  
· Int erface t o 1.8 volt s  
input /out put logic circuit s  
· Wit hst ands 100 mVp-p  
power supply ripple  
t ypically  
· LED supply volt age can  
range from 2.7 to 5.5 volts  
· Adjust able Opt ical Power  
for link distance from 5 to  
20 cm  
ONE  
CELL  
PHONES  
C
PAGERS  
PDA  
S
LLUMINATION  
CAMERAS  
30° I  
C
ELL PHONES  
PAGERS  
P
PC  
PDA  
RINTERS  
£
£
20 CM TO  
30 CM TO  
L
S
OW  
P
OWER  
D
EVICES  
S
TANDARD  
DEVICES  
S
C
AMERAS  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologies releases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local Agilent field sales engineer when  
considering these products for design-ins and production volumes.  
2
Applications  
Application Circuit  
· Mobile Telecom  
Cellular Phones  
Pagers  
Smart Phones  
· Dat a Communicat ion  
PDAs  
Portable Printers  
· Digit al Imaging  
Digit al Cameras  
Phot o-Imaging Print ers  
VLED  
TXD/  
8
Adjustable  
Optical  
Power  
C1  
1.0 mF  
7
6
5
SWDAT  
RXD/  
SRDAT  
SD  
Serial Transceiver  
Control  
4
SCLK  
Vcc  
3
I/O Vcc  
2
C2  
6.8  
m
F
C3  
0.47  
m
F
GND1  
Description  
Pinout, Rear View  
The HSDL-3210 is one of a new  
generation of low-cost Infrared  
(IR) transceiver modules from  
Agilent Technologies. It  
features one of the smallest  
footprint in the industry at 2.5  
H x 8.0 W x 3.0 D mm.  
Although the supply voltage  
can range from 2.7V to 5.5V,  
the LED is driven by an  
internal constant current source  
of 80mA.  
8
7
6
5
4
3
2
1
I/O Pins Configuration Table  
Pin Symbol Description Not es  
1
2
GND  
Ground  
Connect to system ground.  
Input/Output Connect to ASIC logic controller Vcc  
IOVcc  
Vcc  
voltage.  
Supply  
Voltage  
3
4
5
VCC  
SCLK  
SD  
Regulated, 2.7 to 3.6 Volts  
Use as clock input pin for programming  
mode. See Table 1 for details.  
This pin must be driven either high or low,  
The HSDL-3210 incorporates  
the capability for adjustable  
optical power. The optical  
power can be adjusted lower  
when the nominal desired link  
distance is very short . At 5cm  
link distance, only 6% of the  
full power is required.  
Serial Clock  
Shut Down  
Active High do NOT float the pin  
Output is a low pulse when a light pulse is  
received. SRDAT is the read data for the  
Serial Transceiver Control (STC). Do NOT  
float this pin.  
Logic High turns on the LED. If held high  
longer than ~ 20 ms, the LED is turned off.  
SWDAT is the write data for the Serial  
Transceiver Control (STC). Do NOT float this  
pin.  
Receiver  
Data Output.  
Active Low  
RXD/  
SRDAT  
6
7
Transmitter  
Data Input /  
Serial Write  
Data  
TXD/  
SWDAT  
The HSDL-3210 supports the  
Serial Interface for Transceiver  
Control Specification that  
provides a common interface  
between the transceiver and  
controller. It is also designed  
to interface to input/output  
logic circuits as low as 1.8V.  
LED Supply  
Voltage  
8
-
VLED  
May be unregulated, 2.7 to 5.5 volts.  
Connect to system ground via a low  
inductance trace. For best performance, do  
not connect to GND directly at the part.  
SHIELD  
EMI Shield  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologies releases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local Agilent field sales engineer when  
considering these products for design-ins and production volumes.  
3
The STC requires three  
signals : a serial clock  
(SCLK) that is used for  
timing, and two  
unidirectional lines  
multiplexed with the  
transmitter (write)  
TXD/SWDAT and receiver  
(read) RXD/SRDAT infrared  
signal lines.  
disable/enable the RXD line  
and 4-level optical power  
adjustment.  
Serial Interface for  
Transceiver Control  
The Serial Interface for  
Transceiver Control (STC)  
is used to control and  
program the features of the  
transceiver. These features  
include input/output (I/O)  
control, optical power  
A set of commands is  
provided to handle the  
programming control  
features. The general  
command format is shown  
in Figure 1. The HSDL-3210  
STC Write Data Commands  
are shown in Table 1.  
adjustment and shut down.  
The HSDL-3210 supports the  
write function to  
disable/enable the TXD line,  
Address [2-0]]  
Index [3-0]  
C
Data  
Figure 1 General Command Format  
Table 1. Serial Interface for Transceiver Control – Write Data Format  
Address [2-0]  
Index [3-0]  
C
Data  
IrDA Dat a –dat a rat es  
SIR (2.4 to 115.2 Kbps)  
MIR (0.576, 1.152 Mbps)  
I/O Control  
000  
000  
0001  
0001  
1
00000000  
1
00000001  
SD Normal Mode  
SD Sleep Mode  
000  
000  
000  
000  
000  
000  
0000  
0000  
0000  
0000  
0000  
0000  
1
1
1
1
1
1
XXXXXXX1  
XXXXXXX0  
XXXXXX0X  
XXXXXX1X  
XXXXX0XX  
XXXXX1XX  
RXD disable  
RXD enable  
TXD disable  
TXD enable  
Opt ical Power Adjust ment  
10% link distance  
25% link distance  
50% link distance  
100% link distance  
000  
000  
000  
000  
0010  
0010  
0010  
0010  
1
1
1
1
00XXXXXX  
01XXXXXX  
10XXXXXX  
11XXXXXX  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologies releases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local Agilent field sales engineer when  
considering these products for design-ins and production volumes.  
4
Table 2 Serial Interface for Transceiver Control – Read Data Format  
Address [2-0]  
Index [3-0]  
C
Data  
IrDA Dat a –dat a rat es  
SIR (2.4 to 115.2 Kbps)  
MIR (0.576, 1.152 Mbps)  
I/O Control  
000  
000  
0001  
0001  
0
00000000  
0
00000001  
SD Normal Mode  
SD Sleep Mode  
RXD disable  
000  
000  
000  
000  
000  
000  
0000  
0000  
0000  
0000  
0000  
0000  
0
0
0
0
0
0
XXXXXXX0  
XXXXXXX1  
XXXXXX0X  
XXXXXX1X  
XXXXX0XX  
XXXXX1XX  
RXD enable  
TXD disable  
TXD enable  
Opt ical Power Adjust ment  
10% link distance  
25% link distance  
50% link distance  
100% link distance  
ID  
000  
000  
000  
000  
0010  
0010  
0010  
0010  
0
0
0
0
00XXXXXX  
01XXXXXX  
10XXXXXX  
11XXXXXX  
Manufacturer  
000  
000  
1111  
1111  
0
0
00000001  
01000001  
Product  
Recommended Application Circuit Components  
Component  
Recommended Value  
Not es  
C1  
C2  
C3  
1
1
1
1.0 mF, ± 20%, Tantalum  
6.8 mF, ± 20%, Tantalum  
0.47 mF, ± 20%, Tantalum  
Order Information  
Part Number  
Packaging Type  
Tape and Reel  
Tape and Reel  
Tape Strip  
Package  
Quant it y  
2500  
500  
10  
HSDL-3210-021  
HSDL-3210-001  
HSDL-3210-011  
Front View  
Front View  
Front View  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologiesreleases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local agilent field sales engineer when  
considering these products for design-ins and production volumes.  
5
Transceiver I/O Truth Table  
STC SD Mode  
SCLK  
SD  
Low  
High  
TXD  
LED  
Receiver  
Dont care  
IrDA Signal  
No Signal  
Dont care  
Dont care  
RXD  
Not Valid  
Low  
Notes  
2,3  
High  
On  
Normal Mode  
4,5  
Low  
Low  
Off  
High  
Sleep Mode  
Dont care  
Dont care  
Dont care  
Off  
Off  
High  
6
6
Dont care  
High  
Caution: The BiCMOS inherent to this design of this component increases the components  
susceptibility to damage from electrostatic discharge (ESD). It is advised that normal static  
precautions be taken in handling and assembly of this component to prevent damage and/or  
degradation which may be induced by ESD.  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologiesreleases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local agilent field sales engineer when  
considering these products for design-ins and production volumes.  
6
Absolute Maximum Ratings  
For implementations where case to ambient thermal resistance is £50°C/W.  
Paramet er  
Symbol Min.  
Max.  
Unit s  
Storage Temperature  
Operating Temperature  
LED Supply Voltage  
Supply Voltage  
Input/Output Voltage  
Input voltage: TXD,  
MIR_SEL  
Output Voltage: RXD  
Solder Reflow  
Temperature Profile  
TS  
TA  
VLED  
VCC  
-40  
-25  
0
0
0
100  
85  
6.5  
6.5  
Vcc  
°C  
°C  
V
V
V
IOVcc  
V
I
0
VCC+ 0.5  
VCC+ 0.5  
V
V
VO  
-0.5  
See Reflow Profile, page 11  
Recommended Operating Conditions  
Paramet er  
Operating Temperature  
Supply Voltage  
Input/Output Voltage  
LED Supply Voltage  
Symbol  
Min.  
Max.  
85  
Unit s  
Condit ions  
Not es  
°
TA  
-25  
C
VCC  
IOVcc  
VLED  
2.7  
1.8  
2.7  
3.6  
Vcc  
5.5  
V
V
V
Logic Input  
Voltage for  
TXD,SCLK  
,SD  
Logic  
High  
V
2/3 IOVCC  
0
IOVCC  
1/3 IOVCC  
500  
V
1.8V £IOVcc £ 3.6V  
1.8V £IOVcc £ 3.6V  
IH  
Logic Low  
V
IL  
V
For in-band signals £  
115.2kb/s  
0.009  
0.0225  
mW/cm2  
mW/cm2  
7
7
Logic  
High  
EIH  
EIL  
Receiver Input  
Irradiance  
500  
0.576 Mb/s £ in-band  
signals £ 1.15Mb/s  
Logic Low  
0.3  
mW/cm2 For in-band signals.  
Receiver Data Rate  
Ambient Light  
0.0024  
1.152  
Mb/s  
See Test Methods on page 12 for details  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologiesreleases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local agilent field sales engineer when  
considering these products for design-ins and production volumes.  
7
Electrical & Optical Specifications  
Specifications hold over the recommended operating conditions unless otherwise noted. Unspecified test  
conditions may be anywhere in their operating range. All typical values are at 25°C and 3.0 V unless  
otherwise noted.  
Paramet er  
Receiver  
Symbol  
Min  
Typ  
Max  
Unit s  
Condit ions  
Not es  
Viewing Angle  
Peak Sensitivity  
Wavelength  
2f  
30  
°
½
l p  
880  
nm  
Logic High  
VOH  
VOL  
IOV -0.2  
IOV  
V
V
IOH=-200 mA, EI £ 0.3 mW/cm2  
IOL=200 mA  
RXD Output  
Voltage  
CC  
CC  
Logic Low  
0
1
0.4  
7.5  
8
8,9  
9
RXD Pulse Width (SIR)] tPW (SIR)  
ms CL =10 pF  
RXD Pulse Width (MIR) tPW(MIR)  
200  
750  
ns CL =10 pF  
RXD Rise and Fall  
Times  
tR, tF  
25  
100  
ns CL =10 pF  
t
Receiver Latency Time  
25  
30  
50  
ms  
ms  
10  
11  
L
t
Receiver Wake Up Time  
100  
RW  
Transmit t er  
°
°,  
Radiant Intensity  
IEH  
2q  
9
18  
72  
60  
mW/Sr  
TA=25 C, q £ 15 TXD ³ V  
½
IH  
Viewing Angle  
30  
°
½
Peak Wavelength  
Spectral Line Half Width  
l p  
Dl  
875  
35  
nm  
nm  
½
High  
Low  
V
2/3 IOVCC  
0
IOVcc  
V
V
TXD Logic  
Levels  
IH  
V
IL  
1/3 IOVcc  
TXD Input  
Current  
I
High  
10  
200  
nA V ³ V  
I IH  
H
I
Low  
-10  
-200  
nA 0 £ V £ V  
I IL  
L
On  
Off  
Shutdown  
IVLED  
IVLED  
IVLED  
120  
4
50  
180  
25  
200  
mA VVLED=VCC=3.6 V, V (TXD) ³ V  
I
IH  
LED  
Current  
mA VVLED=VCC=3.6 V, V (TXD) £ V  
I
IL  
nA V (SD) ³ V  
I IH  
Transceiver  
SD / SCLK  
Logic  
Levels  
High  
Low  
V
2/3 IOVCC  
0
IOV  
V
V
IH  
CC  
V
IL  
1/3 IOVCC  
I
High  
Low  
10  
10  
200  
200  
nA V ³ V  
I
IH  
SCLK Input  
Current  
H
I
nA 0 £ V £ V  
I
IL  
L
VCC=3.6 V, V ³ VCC - 0.5,  
TA=25 °C  
SD  
Shutdown  
Idle  
Active,  
receive  
Active ,  
transmit  
ICC1  
10  
200  
nA  
ICC2  
ICC3  
300  
0.8  
350  
3.0  
mA VCC=3.6 V, V (TXD) £ V ,EI=0  
I IL  
Supply  
Current  
mA VCC=3.6 V, V (TXD) £ V  
12,13  
14  
I
IL  
ICC4  
5.0  
mA VCC=3.6 V, V (TXD) ³ V  
I
IH  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologies releases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local Agilent field sales engineer when  
considering these products for design-ins and production volumes.  
8
Notes:  
1. C1, which is optional, must be placed within 0.7 cm of the HSDL-3210 to obtain optimum noise immunity.  
2. If TXD is stuck in the high state, the LED will turn off after about 14 ms.  
3. RXD will echo the TXD signalwhile TXD is transmitting data.  
4. In-Band IrDA signals and data rates£ 1.152Mbps.  
5. RXD Logic Low is pulsed response.  
6. RXD Logic High during shutdown is a weak pull up (equivalent to an approximately 300kW resistor).  
7. An in-band optical signal is a pulse/sequence where the peak wavelength, l p, is defined as 850 nm £ l p £ 900  
nm, and the pulse characteristics are compliant with the IrDA Serial Infrared Physical Layer Link Specification.  
8. For in band signals £1.152 Mbps where 9 mW/cm2 £ EI £ 500 mW/cm .  
2
2
9. For 0.576Mbps £ in band signals £1.152Mbps where 22.5 mW/cm2 £ EI £ 500 mW/cm .  
10. Latency is defined as the time from the last TXD light output pulse until the receiver has recovered full sensitivity.  
11. Receiver wake up time is measured from the SD pin high to low transition or Vcc power on, to valid RXD output.  
2
12. Typical values are at EI = 10mW/cm .  
2
13. Maximum value is at EI = 500mW/cm .  
14. Current is due to internal stages of the LED current mirror. This current is in addition to the ILED current.  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologies releases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local Agilent field sales engineer when  
considering these products for design-ins and production volumes.  
9
RXD Output Waveform  
Receiver Wakeup Time Definition  
VOH  
tpw  
90%  
50%  
10%  
SD  
VOL  
RX  
Light  
tf  
tr  
RXD  
LED Optical Waveform  
tRW  
tpw  
LED ON  
90%  
Transmitter Wakeup Time Definition  
50%  
10%  
LED OFF  
SD  
tr  
tf  
TXD  
TXD “Stuck ON” Protection  
TX  
Light  
TXD  
tTW  
LED  
tpw (MAX)  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologies releases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local Agilent field sales engineer when  
considering these products for design-ins and production volumes.  
10  
Package Dimensions  
Mounting  
Center  
4.0  
1.025  
C
L
2.05  
Receiver  
Emitter  
2.2  
2.5  
1.175  
0.35  
0.65  
0.80  
1.05  
1.25  
2.55  
2.85  
4.0  
8.0  
3.0  
2.9  
1.85  
C
L
Unit: mm  
Tolerance: ± 0.2 mm  
Coplanarity = 0.1mm max.  
Pin 1  
0.6  
3.325  
6.65  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologies releases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local Agilent field sales engineer when  
considering these products for design-ins and production volumes.  
11  
Re-flow Profile  
MAX 245C  
R3  
230  
200  
R4  
183  
170  
150  
R2  
90 sec  
MAX  
Above 183 C  
125  
R5  
R1  
100  
50  
25  
0
100  
P2  
SOLDER PASTE DRY  
150  
200  
P3  
SOLDER  
250  
P4  
COOL DOWN  
300  
50  
P1  
HEAT  
UP  
t-TIME  
(SECONDS)  
REFLOW  
Process Zone  
Heat Up  
Solder Paste Dry P2, R2 125°C to 170°C  
Symbol  
P1, R1 25°C to 125°C  
DT  
Maximum DT/Dtime  
4°C/s  
0.5°C/s  
4°C/s  
-4°C/s  
-3°C/s  
P3, R3 170°C to 230°C (245°C max.)  
P3, R4 230°C to 170°C  
P4, R5 170°C to 25°C  
Solder Reflow  
Cool Down  
The reflow profile is a straight line representation of a nominal temperature profile for a convective  
reflow solder process. The temperature profile is divided into four process zones, each with different  
DT/Dtime temperature change rates. The DT/Dtime rates are detailed in the above table. The  
temperatures are measured at the component to printed-circuit board connections.  
In process zone P1, the PC board and HSDL-3210 castellation I/O pins are heated to a  
temperature of 125°C to activate the flux in the solder paste. The temperature ramp up rate, R1, is  
limited to 4°C per second to allow for even heating of both the PC board and HSDL-3210  
castellation I/O pins.  
Process zone P2 should be of sufficient time duration (> 60 seconds) to dry the solder paste. The  
temperature is raised to a level just below the liquidus point of the solder, usually 170°C (338°F).  
Process zone P3 is the solder reflow zone. In zone P3, the temperature is quickly raised above the  
liquidus point of solder to 230°C (446°F) for optimum results. The dwell time above the liquidus point  
of solder should be between 15 and 90 seconds. It usually takes about 15 seconds to assure proper  
coalescing of the solder balls into liquid solder and the formation of good solder connections. Beyond a  
dwell time of 90 seconds, the intermetallic growth within the solder connections becomes excessive,  
resulting in the formation of weak and unreliable connections. The temperature is then rapidly reduced  
to a point below the solidus temperature of the solder, usually 170°C (338°F), to allow the solder within  
the connections to freeze solid.  
Process zone P4 is the cool down after solder freeze. The cool down rate, R5, from the liquidus  
point of the solder to 25°C (77°F) should not exceed - 3°C per second maximum. This limitation is  
necessary to allow the PC board and HSDL-3210 castellation I/O pins to change dimensions evenly,  
putting minimal stresses on the HSDL-3210 transceiver.  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologies releases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local Agilent field sales engineer when  
considering these products for design-ins and production volumes.  
12  
3. Incandescent Lighting:  
1000 lux maximum. This  
is produced with general  
service, tungsten-  
signal is swept over the  
frequency range from 20  
kHz to 200 kHz.  
Test Methods  
Background light and  
Electromagnetic Field  
filament, gas-filled,  
Due to the variety of  
fluorescent lamps and  
the range of IR  
emissions, this condition  
is not expected to cover  
all circumstances. It will  
provide a common floor  
for IrDA operation  
inside frosted lamps in  
the 60 Watt to 100 Watt  
range to generate 1000  
lux over the horizontal  
surface on which the  
equipment under test  
rests. The light sources  
are above the test area.  
The source is expected  
to have a filament  
There are four ambient  
interference conditions in  
which the receiver is to  
operate correctly. The  
conditions are to be applied  
separately:  
1. Electromagnetic field:  
3V/m maximum (please  
refer to IEC 61000-4-3  
severity level 3 for  
details).  
temperature in the 2700  
to 3050 Kelvin range and  
a spectral peak in the  
850 to 1050 nm range.  
2. Sunlight:  
10 kilolux maximum at  
the optical port. This is  
simulated with an IR  
source having a peak  
wavelength within the  
range of 850 nm to 900  
nm and a spectral width  
of less than 50 nm  
biased to provide 490  
mW/cm2 (with no  
4. Fluorescent Lighting:  
1000 lux maximum. This  
is simulated with an IR  
source having a peak  
wavelength within the  
range of 850 nm to 900  
nm and a spectral width  
of less than 50 nm  
biased and modulated to  
provide an optical square  
wave signal (0 mW/cm2  
minimum and 0.3  
modulation) at the  
optical port. The light  
source faces the optical  
port.  
mW/cm2 peak amplitude  
with 10% to 90% rise and  
fall times less than or  
equal to 100 ns) over the  
horizontal surface on  
which the equipment  
under test rests. The  
light sources are above  
the test area. The  
This simulates sunlight  
within the IrDA spectral  
range. The effect of  
longer wavelength  
radiation is covered by  
the incandescent  
condition.  
frequency of the optical  
Preliminary Product Disclaimer  
These products are under development. Until Agilent Technologies releases these products for general sales, Agilent  
reserves the right at any time to alter prices, specifications, features, capabilities, functions, manufacturing release dates,  
and even general availability of the product. It is advisable to consult your local Agilent field sales engineer when  
considering these products for design-ins and production volumes.  

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