HCGD16589EB [INTEL]

Mux/Demux, 1-Func, Bipolar, CBGA132, 13 X 13 MM, CERAMIC, BGA-132;
HCGD16589EB
型号: HCGD16589EB
厂家: INTEL    INTEL
描述:

Mux/Demux, 1-Func, Bipolar, CBGA132, 13 X 13 MM, CERAMIC, BGA-132

ATM 异步传输模式 电信 电信集成电路
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10 Gbit/s  
Transmitter MUX  
with Re-timing  
GD16585/GD16589  
(FEC)  
an Intel company  
Preliminary  
General Description  
Features  
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GD16585 and GD16589 are transmitter  
chips used in SDH STM-64 and SONET  
OC-192 optical communication systems.  
data stream is re-timed by the high-  
speed clock from the VCO.  
PLL based CMU with on-chip 10 GHz  
or 10.66 GHz VCO.  
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The parallel input interface features  
GIGA’s unique self-synchronizing dy-  
namic phase alignment scheme that al-  
lows both:  
16:1 Multiplexer with a last stage  
re-timing.  
The device is available in two versions:  
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GD16585 for 9.5328 Gbit/s.  
GD16589 for 10.66 Gbit/s with  
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OIF99.102.5 compliant timing .  
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Forward Error Correction (FEC).  
Except the different operating bit rate the  
two versions are functional identical.  
Source synchronous counter clocking  
for OIF99.102.5 interfaces.  
Forward clocking with phase nulling  
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LVDS compatible parallel data and  
clock inputs  
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and jitter clean-up of the clock.  
These schemes enable the serializer to  
absorb output delay variations from the  
upstream System ASIC without use of  
initialization or reset.  
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The transmitter integrates the main func-  
tions of the serializer which are:  
CML compatible serial data output.  
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Clock Multiply Unit (CMU)  
16:1 Multiplexer in a single monolithic  
IC.  
155 MHz or 622 MHz reference clock  
input (selectable).  
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The data and clock inputs to the MUX  
are LVDS and the output data is CML  
compatible.  
Divide by 16 clock output.  
The CMU consists of Phase Locked  
Loop (PLL) controlled from an external  
reference clock. The PLL characteristics  
are controlled by an external loop filter al-  
lowing the user to optimize the jitter  
perfomance of the device.  
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PLL out of lock detector.  
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The device operates from a dual -5.2 V  
and +3.3 V power supply. The power dis-  
sipation is 2.2 W, typical.  
Dual supply operation: -5.2 V and  
+3.3 V  
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Low power dissipation: 2.2 W (typ.).  
The 16:1 Multiplexer accepts 16 parallel  
input bits at 622.88 Mbit/s (or 666 Mbit/s)  
that are serialized into a 9.9538 Gbit/s (or  
10.66 Gbit/s) data stream. The serialized  
The device is manufactured in a Silicon  
Bipolar process and packaged in an 132  
balls 13 × 13 mm Ceramic/Plastic Ball  
Grid Array (CBGA).  
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Available in three package versions:  
EB: 132 ball (16 mill) Ceramic  
BGA 13 × 13 mm  
EF: 132 ball (20 mill) Ceramic  
BGA 13 × 13 mm  
FB: 132 ball (20 mill) Plastic  
BGA 13 × 13 mm  
DI0  
DIN0  
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VCUR  
FF  
16:1  
OUT  
OUTN  
Parallel  
Input Data  
Available in two versions:  
Multiplexer  
GD16585 for 10 Gbit/s  
GD16589 for 10.66 Gbit/s  
DI15  
DIN15  
VCO  
VCTL  
Timing  
Control  
SEL1  
SEL2  
Phase  
Applications  
Selector  
Phase  
CKOUT  
CKOUTN  
PCTL  
Frequency  
Detector  
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Telecommunication systems:  
(PHIGH)  
(PLOW)  
SDH STM-64  
CKI  
CKIN  
PFCX  
SONET OC-192  
Optical Transport Networking  
(OTN)  
NLDET  
FEC applications  
TCK  
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Fibre optic test equipment.  
PCTLX  
SGNX  
SEL3  
REFCK/N VCC VDD VDDO VDDA VEE  
Data Sheet Rev.: 13  
Functional Details  
The main function of GD16585/GD16589  
is as transmitter in STM-64 /OC-192 and  
OTN optical communication systems.  
The timing relation is OIF99.102.5 com-  
plaint with SEL1,2 = 1,1 (0 V).  
The PCB layout of the loop filter and the  
connecting lines between PCTL and  
VCTL are critical for the jitter perfor-  
mance of the device. The external com-  
ponents and the artwork should be  
placed very close to the pins at  
GD16585.  
The select inputs (SEL1-3 and SGNX)  
are low-speed ECL compatible inputs,  
which can be connected directly to the  
negative supply rails (0 / -5.2 V).  
It integrates:  
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Voltage Controlled Oscillator (VCO)  
Phase and Frequency Detector (PFD)  
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16:1 Multiplexer  
Re-timing of output data.  
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If the PHIGH and PLOW outputs are not  
used they must be shorted to VDD (0 V),  
please refer to Figure 1.  
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Phase nulling circuit for interfacing in-  
put data and clock.  
Bit Order  
The parallel data input is multiplexed with  
DI0 as the first sent bit, DI1 as the sec-  
ond sent bit and with DI15 as the last  
sent bit in a 16 bit frame.  
VCO  
The Outputs  
Note:  
This bit naming covention is  
opposite to OIF99.102.5  
The VCO is an LC-type differential oscil-  
lator controlled by pin VCTL and with a  
tuning range of ±5 %. The VCO and the  
clock divider circuit generate the clock  
signals and load pulses needed for  
multiplexing and timing control.  
The output of the MUX stage is retimed  
by the 10 GHz (or 10.66 GHz) clock and  
the output driver is a Current Mode Logic  
(CML) output with internal 50 W termina-  
tion resistors.  
For OIF interfaces the data pins should  
be connected as shown in the following  
table.  
The serial output driver is internally termi-  
nated with 50 W resistors to 0 V. The out-  
put should be terminated externally with  
50 W at the receive end and should be  
used differential. Both OUT and OUTN  
are best terminated with the same load  
resistor e.g. 50 W, an asymmetric loading  
will decrease the performance of the out-  
put due to reflections.  
Input Pin:  
OIF:  
With the VCTL voltage at -3 V the VCO  
frequency is fixed at 9.953 GHz (for  
GD16585) and by changing the voltage  
from 0 to 5.2 V the frequency is con-  
trolled from 9 GHz to 10.2 GHz. The  
modulation bandwidth of VCTL is  
90 MHz.  
DI0/DIN0  
TXDATA15_P/N  
(MSB)  
DI1/DIN1  
TXDATA14_P/N  
TXDATA13_P/N  
TXDATA12_P/N  
TXDATA11_P/N  
TXDATA10_P/N  
TXDATA9_P/N  
TXDATA8_P/N  
TXDATA7_P/N  
TXDATA6_P/N  
TXDATA5_P/N  
TXDATA4_P/N  
TXDATA3_P/N  
TXDATA2_P/N  
TXDATA1_P/N  
DI2/DIN2  
DI3/DIN3  
DI4/DIN4  
Both outputs OUT/OUTN are not ESD  
protected and extra precautions should  
be taken when handling the outputs (the  
internal 50 W resistor provides some  
ESD hardness making the ouput low  
impedance).  
The Reference Clock  
DI5/DIN5  
DI6/DIN6  
The PFD is made with digital set/reset  
cells giving it a true phase and frequency  
characteristic. The reference clock  
(REFCK/REFCKN) to the PFD is 155 or  
622 MHz selectable by SEL3.  
DI7/DIN7  
DI8/DIN8  
A divide by 16 clock output from the  
CMU is available at CKOUT/N for jitter  
measurement and test purpose. These  
outputs are differential open collector  
with a 8 mA output current. They are ter-  
minated externally with resistors and can  
be terminated to the positive 3.3 V  
DI9/DIN9  
The reference clock input is a CML input  
with 50 W internal termination resistors.  
The reference clock should be used dif-  
ferential for obtaining lowest clock jitter.  
DI10/DIN10  
DI11/DIN11  
DI12/DIN12  
DI13/DIN13  
DI14/DIN14  
DI15/DIN15  
The PLL synchronizes the VCO to the  
external reference clock. Spectral noise  
from the reference clock, within the PLL  
bandwidth, will be multiplied and added  
to the serial output by the divider ratio  
between the VCO and reference clock  
i.e. N = 16 or in terms of phase noise as  
20Log(16) = 24 dB (or 36 dB at N = 64).  
A low noise reference clock with low  
clock jitter is required in order to fulfill the  
ITU-T jitter requirements.  
supply. The clock outputs should be ter-  
minated even though they are not used.  
PLL out of lock detect signal (NLDET) is  
provided as a status signal of the PLL. It  
compares the VCO clock with the refer-  
ence clock and is low whenever the VCO  
is locked to the reference clock. The  
NLDET is an open collector output and  
must be terminated by an external resis-  
tor.  
TXDATA0_P/N  
(LSB  
CKI  
TXCLK_P  
TXCLK_N  
CKIN  
Loop Filter for the CMU  
Inputs  
The Output Voltage Control  
An external passive loop filter is used,  
consisting of a resistor and a capacitor  
driven from the PCTL pin, which outputs  
the phase and frequency information  
from the PFD. The values of the external  
components determines the  
characterisitcs of the PLL e.g. bandwidth  
and transfer function. For recommended  
loop filter values see Figure 1.  
The parallel data (DIx/DINx) and clock  
(CKI/CKIN) inputs are LVDS compatible  
with internal differential 100 W resistors.  
The serial output voltage swing at  
OUT/OUTN is controlled by VCUR in the  
range from 0.1 V to 0.8 V. The voltage  
swing is increased by increasing the  
VCUR voltage and the output is off at  
voltages below VEE +2 V.  
The set-up and hold time between input  
clock and data is selectable in four set-  
tings by SEL1-2.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 2 of 17  
 
If no adjustement is needed the VCUR  
can be lefted open.  
Thermal Condition  
With AC coupled outputs the VCUR pin  
must not be directly connected to 0 V  
which may cause the output stage to  
saturate deteriorating the eye-diagram.  
The component dissipates 2.2 W with a  
5.2 V and +3.3 V voltage supply.  
The die is mounted in a cavity on a metal  
pad directly connected to the center balls  
(E4-9, F4-9, G4-9, and H4-9).  
Refer to Figure 1 for the recommended  
set-up of VCUR.  
It is important to have a good thermal  
connection from the center balls of the  
package to the ambient environment to  
ensure the best thermal conditions.  
Timing to the System ASIC  
The component supports source  
synchronouse clocking for OIF99.102.5  
interface (311 MHz clock mode is not  
supported) and forward clocking with  
phase nulling and jitter clean-up of the  
reference clock. With a OIF interface a  
phase adjusted source clock is feed back  
to the System ASIC and data and clock  
are feed forward to the high-speed MUX.  
Note:  
To obtain TCASE < 70°C,  
the PGBA (compared to the  
CBGA) requires additional  
cooling on the case,  
For details, please refer to  
Application Note PBGA -  
Thermal data.....  
The phase difference between the for-  
ward clock (CKI/CKIN) and the internal  
load pulse is detected by the Phase and  
Frequency Detector (PFCX) and the  
Phase Information (PCTLX) are use to  
control the phase and frequency of the  
external VCXO (622 MHz). The phase  
adjusted output clock of the VCXO can  
be used either as a source (counter)  
clock to the System ASIC (OIF99.102.5  
in 622 MHz clock mode) or as a jitter  
clean reference clock (REFCK/N) to the  
on-chip CMU.  
10.66 Gbit/s Application  
A version of the transmitter with a bit rate  
of 10.66 Gbit/s for Optical Transport Net-  
working (OTN) and Forward Error Cor-  
rection (FEC) application is available.  
The part number is GD16589.  
The functionality and the pin-out are  
identically to the GD16585.  
The center frequency of the VCO  
(10.66 GHz) is the only difference to the  
GD16585.  
The phase information at PCTLX is fil-  
tered in an external low pass filter con-  
sisting of a capacitor and a resistor. For  
recommended component values, please  
refer to Figure 1.  
Package  
GD16585 and GD16589 are packaged in  
an 132 ball Ceramic/Plastic BGA  
(13×13 mm). For the package outline,  
please refer to Figure 14 and 15.  
In ceramic packages following pin pairs  
are individually shorted inside the pack-  
age and mainly used as power pins:  
C3/D3, C4/D4, C5/D5, C8/D8, C9/D9,  
C10/D10, J3/K3, J4/K4, J5/K5, J8/K8,  
J9/K9, and J10/K10, please refer to  
Package PinoutFigure 8 on page 8.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 3 of 17  
Application  
0V  
+3.3V  
VCC  
Framer  
VDD/VDDA  
(VDDO)  
16  
DI0..15  
DIN0..15  
16  
OUT  
OUTN  
10Gbit/s  
Output  
CKI  
CKIN  
0V  
VCO  
PCTLX  
1kW  
-5.2V  
10nF  
10kW  
VCUR  
REFCK  
4.7kW  
REFCKN  
500W  
-5.2V  
VCC  
50W  
CKOUT  
100nF  
330W  
NLDET  
CKOUTN  
+
-
Out of  
Lock  
VCC  
0V  
0V  
VDD  
SEL1  
SEL2  
PHIGH  
PLOW  
622MHz  
155MHz  
0V  
SEL3  
2.2kW 33nF  
-5.2V  
0V  
VCTL  
PCTL  
VDDA  
SGNX  
-5.2V  
VEE  
-5.2V  
Figure 1. Application Information, OIF interface to the Framer.  
For all VDD pins refer to Pin List  
Pin D1 Pin D2  
VDD  
Pin J8 Pin K8  
C
C
C
C
C
C
C
C
C
C
C
C
C
10mF  
VEE  
Pin C2  
A7  
K5  
Pin D11  
C
Pin M3  
VDDO  
VEE  
VDDA  
10mF  
VCC  
VDD  
C
C
C
C
10mF  
C is 10nF parallel with 100pF.  
VEE, VCC, VDDA pins refer to Pin List  
Figure 2. De-coupling of the Power Supply  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 4 of 17  
10 Gbit/s Output Interface  
GD16585/GD16589  
0V  
Driver  
50W  
50W  
OUT  
50W MSL  
OUTN  
VCUR  
-5.2V  
Figure 3. 10 Gbit/s outputs (OUT/OUTN), DC coupled.  
GD16585/GD16589  
0V  
Driver  
50W  
50W  
OUT  
100nF  
OUTN  
50W MSL  
VCUR  
-5.2V  
Figure 4. 10 Gbit/s outputs (OUT/OUTN), AC coupled.  
Note:  
With AC coupled outputs VCUR must not be connected directly to 0 V.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 5 of 17  
622 Mbit/s Output Interface  
(0V or 3.3V)  
GD16585  
50W  
50W MSL  
8mA  
-5.2V  
Figure 5. Open collector output.  
Open collector outputs should always be terminated at the receiver end, by preferably 50 W.  
622 Mbit/s Input Interface  
GD16584 or  
GD16585  
VCC (+3.3V)  
LVDS Output  
50W MSL  
100W  
VEE (-5.2V)  
Figure 6. LVDS compatible input.  
Reference Clock Input  
GD16585  
0V  
0V  
50W  
-5.2V  
500W  
REFCK  
100nF  
REFCKN  
500W  
-5.2V  
-5.2V  
Figure 7. Reference Clock Input (REFCK/REFCKN), Differential AC Coupled.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 6 of 17  
Pin List  
Mnemonic:  
Pin No.:  
Pin Type:  
Description:  
DI0,  
DI1,  
DI2,  
DI3,  
DI4,  
DI5,  
DI6,  
DI7,  
DI8,  
DI9,  
DIN0  
C7, D7  
A8, B8  
LVDS In  
Data input, differential 622 Mbit/s. Multiplexed to serial output  
starting with DI0, DI1...DI15.  
DIN1  
DIN2  
DIN3  
DIN4  
DIN5  
DIN6  
DIN7  
DIN8  
DIN9  
A9, B9  
Note:  
The bit naming convention is opposite to OIF99.102.5:  
DI0 is MSB. Please refer to item Bit Orderon page 2.  
B10, A11  
C11, C12  
D12, E12  
G11, H12  
J12, J11  
L9, M9  
L8, M8  
DI10, DIN10  
DI11, DIN11  
DI12, DIN12  
DI13, DIN13  
DI14, DIN14  
DI15, DIN15  
L6, K6  
M5, L5  
M4, L4  
L3, M2  
K3, L2  
L1, K2  
REFCK, REFCKN  
SEL1, SEL2  
B5, A6  
A3, B4  
CML In  
ECL In  
Reference clock input, differential 155 MHz or 622 MHz.  
Select the set-up and hold time beetwen the data and clock inputs  
in four settings. For setting, please refer to Figure 13 and table on  
page 14.  
When left open, the inputs are pulled to 1(VDD).  
SEL3  
A4  
ECL In  
Select the reference clock frequency.  
0
1
155 MHz  
622 MHz  
When left open, the input is pulled to 1(VDD).  
CKI, CKIN  
B6, B7  
H1, E1  
LVDS In  
CML Out  
Data clock input.  
OUT, OUTN  
Data output, differential 10 Gbit/s. No internal ESD output pro-  
tection.  
CKOUT, CKOUTN  
L12, L11  
Open Collector  
Clock output, differential 622 MHz. Always terminate by 50 W to  
VDD.  
PCTL  
C3  
A1  
Analogue Out  
Analogue Out  
Open Collector  
Analogue In  
Analogue In  
Open Collector  
ECL In  
Charge pump output for CMU PLL.  
PCTLX  
(PHIGH, PLOW)  
VCTL  
Charge pump output from PFCX to external VCXO.  
Not used. Always terminate to VDD.  
B3, C4  
B1  
VCO input voltage control.  
VCUR  
K1  
Output voltage control.  
NLDET  
SGNX  
C6  
No Lock DETect output. Always terminate with a resistor to VDD.  
Selects between positive and negative VCXO constant.  
K12  
0
1
Positive VCXO constant  
Negative VCXO constant  
When left open, the input is pulled to 1(VDD).  
Used for test purpose. Connect to VDD.  
Digital Ground 0 V.  
TCK  
VDD  
C1  
ECL In  
PWR  
A2, A5, D1-2, D6,  
E4-9, F1-2, F4-9,  
F11, G1-2, G4-9,  
H4-9, J1-2, J6, J8,  
K8  
VDDA  
VDDO  
A7, C5 (D5),  
J5 (K5)  
PWR  
PWR  
PLL Ground 0 V.  
C2  
VCO Ground 0 V. For test purpose connect to VEE.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 7 of 17  
Mnemonic:  
Pin No.:  
Pin Type:  
Description:  
VEE  
B2, C8, C10, D8,  
D10, J4, J9, K4, K9  
PWR  
-5.2 V Digital supply voltage.  
VCC  
NC  
D11, J7, J10 (K10),  
M3  
PWR  
+3.3 V supply voltage for LVDS I/O.  
A10, A12, B11-12,  
C9, D9, F12, G12,  
K7, K11, L7, L10,  
M1, M6, M7,  
Not Connected. Reserved for future use.  
M10-12  
NC  
D3-4, J3  
DO NOT CONNECT.  
Package Pinout  
1
2
3
4
5
6
7
8
9
10  
11  
12  
A
B
C
D
E
F
A
B
C
D
E
F
G
H
J
G
H
J
K
L
K
L
M
M
1
2
3
4
5
6
7
8
9
10  
11  
12  
(empty) = VDD  
= Internally shorted in the package  
Figure 8. Packages EB and EF Pinout. Top view seen through the package.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 8 of 17  
1
2
3
4
5
6
7
8
9
10  
11  
12  
A
B
C
D
E
F
A
B
C
D
E
F
G
H
J
G
H
J
K
L
K
L
M
M
1
2
3
4
5
6
7
8
9
10  
11  
12  
(empty) = VDD  
= Internally shorted in the package  
Figure 9. Package FB Pinout. Top view seen through the package.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 9 of 17  
Maximum Ratings  
These are the limits beyond which the component may be damaged.  
All voltages in table are referred to VDD/VDDA.  
All currents are defined positive out of the pin.  
VDD is 0 V or GND  
Symbol:  
VEE  
Characteristic:  
Conditions:  
MIN.:  
TYP.:  
MAX.:  
UNIT:  
V
Negative Supply  
-6  
VCC  
Positive Supply  
+4  
VCC+0.5  
24  
V
VI LVDS  
II LVDS, CML  
VI CML  
VO CML  
V ESD  
LVDS Input Voltage  
LVDS and CML Output Current  
CML Input Voltage  
CML Output Voltage  
Static Discharge Voltage  
0
V
Note 1  
-24  
mA  
V
VEE +3  
VEE +3  
0.5  
0.5  
V
HBM, Note 3  
CDM, Note 4  
Note 2  
500  
V
50  
V
TJ  
Junction Temperature  
Storage Temperature  
-55  
-65  
+125  
+125  
oC  
oC  
TS  
Note 1: Nominal supply voltages.  
Note 2: The maximum temperature equals a maximum case temperature of 105 °C (top side) with the device mounted on the  
GD90584/585 Evaluation Board.  
Note 3: Human Body Model: MIL 883D 3015.7 standard.  
Note 4: Charge Device Model.: JESD2-C101 standard.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 10 of 17  
DC Characteristics  
TCASE* = 0 °C to 70 °C. VEE = -5.2 V. VCC = +3.3 V. VDD is 0 V or GND.  
All voltages in table are referred to VDD.  
All currents are defined positive out of pin.  
Symbol:  
VEE  
Characteristic:  
Conditions:  
MIN.:  
-5.46  
TYP.:  
-5.2  
+3.3  
400  
MAX.:  
-4.94  
3.465  
500  
UNIT:  
V
Negative Supply Voltage  
VCC  
Positive Supply for LVDS I/O  
Negative Supply Current  
+3.135  
V
IEE  
mA  
mA  
mV  
mV  
V
ICC  
Positive Supply Current  
-21  
-17  
VIH LVDS  
VIL LVDS  
VIVR LVDS  
RIN LVDS  
VOH OC  
VOL OC  
IOH OC  
IOL OC  
VOH OUT  
VOL OUT  
LVDS Input Voltage High, (differential)  
LVDS Input Voltage Low, (differential)  
LVDS Input Voltage Range  
LVDS Input Resistor Termination  
Open Collector Output Voltage High  
Open Collector Output Voltage Low  
Open Output Current High  
Open Output Current Low  
100  
-100  
2.4  
0.8  
80  
DC  
100  
0
120  
W
Note 1  
-0.05  
-0.5  
-0.1  
-9  
+0.05  
-0.3  
+0.1  
-7  
V
Note 1  
-0.4  
0
V
Note 1  
mA  
mA  
V
Note 1  
-8  
OUT/OUTN Voltage High  
Note 1, 10 MHz  
Note 1, 10 MHz  
-0.1  
-0.05  
-0.7  
+0.05  
-0.5  
OUT/OUTN Voltage Low  
-0.8  
Note 3  
V
IOH OUT  
IOL OUT  
OUT/OUTN Current High  
OUT/OUTN Current Low  
Note 1  
Note 1  
Note 2  
Note 2  
0
mA  
mA  
V
-14  
VIH SEL1-3,SGNX SEL1-3, SGNX Input Voltage High  
VIL SEL1-3, SGNX SEL1-3, SGNX Input Voltage Low  
0
VEE + 2  
VEE + 0.8  
VEE  
V
Note 1: Output externally terminated by 50 W to 0 V.  
Note 2: SEL1-3 and SGNX can be connected directly to VDD or VEE.  
Note 3: VOL OUT MIN. may require VCUR adjustment, VCUR > -1 V.  
*:  
TCASE measured at the center of the top.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 11 of 17  
AC Characteristics, General  
TCASE *= 0 °C to 70 °C, VEE = -5.2 V. VCC = +3.3 V.  
Symbol:  
Characteristic:  
Conditions:  
MIN.:  
TYP.:  
MAX.:  
UNIT:  
JTRF  
Jitter transfer  
f < 8 MHz  
Note 1  
0.0  
0.1  
dB  
JGEN  
VOUT  
Jitter generation  
12 kHz < f < 80 MHz  
Note 1  
0.1  
UIPP  
10 Gbit/s output voltage  
Note 3, VCUR open  
-0.5 V < VCUR < 0 V  
550  
800  
650  
-10  
mVPP  
mVPP  
G OUT  
OUT/OUTN output reflection coefficient Note 2  
Reference clock jitter REFCK/REFCKN,  
f < 10 MHz  
dB  
F REFCK  
+5  
psPP  
D CYCLE, CKOUT/N CKOUT/CKOUTN duty cycle  
Differential  
45  
40  
55  
60  
%
%
D CYCLE, REFCK  
F MAX, REFCK  
REFCK duty cycle  
Maximum REFCK/N frequency  
GD16585  
GD16589  
635  
680  
MHz  
MHz  
Note 1: With the recommended loop filter.  
Note 2: From DC to 6 GHz, measured on the GD90584/585 Evaluation Board.  
Note 3: The output voltage is adjustable by pin VCUR.  
*:  
TCASE measured at the center of the top.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 12 of 17  
AC Characterisitcs, Source Synchronous Clocking - OIF99.102.5  
TCASE* = 0 °C to 70 °C, VEE = -5.2 V.  
Framer  
GD16585  
OIF99.102.5  
TXDATA  
32  
DI0..15  
DIN0..15  
TXCLK  
2
CKI  
CKIN  
VCXO  
2
TXCLK_SRC  
PCTLX  
-5.2 V  
155/622 MHz  
2
REFCK  
REFCKN  
SEL1  
SEL2  
Figure 10. OIF interface.  
CKI  
DI0-15  
t
H
t
S
Figure 11. Timing relation between input data and clock.  
Symbol:  
Characteristic:  
DI0-15 setup  
DI0-15 hold  
Conditions:  
MIN.:  
TYP.:  
MAX.:  
125  
UNIT:  
ps  
tS  
tH  
SEL1 = SEL2 = 1”  
SEL1 = SEL2 = 1”  
175  
ps  
Note:  
*:  
The setup and hold time is defined from the rising edge of CKI. The setup time is positive before the edge and the hold  
time is positive after the edge.  
TCASE measured at the center of the top.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 13 of 17  
AC Characteristics, Forward Clocking to System ASIC  
TCASE *= 0 °C to 70 °C, VEE = -5.2 V.  
System ASIC  
GD16585  
TXDATA  
TXCLK  
32  
DI0..15  
DIN0..15  
2
CKI  
CKIN  
REFCK  
REFCKN  
VCXO  
PCTLX  
-5.2 V  
Figure 12. Forward clocking with phase nulling circuit.  
CKI  
CKOUT  
t
D
DI0-15  
t
t
H
t
0,1  
t
1,0  
t
t
0,0  
t
t
S
1,1  
H
S
S
H
S
H
Figure 13. Timing relation between input data and clock.  
Symbol:  
tS,11  
tH,11  
tS,00  
tH,00  
tS,10  
tH,10  
tS,01  
tH,01  
tD  
Characteristic:  
Conditions:  
MIN.:  
TYP.:  
MAX.:  
125  
UNIT:  
ps  
DI0-15 setup time  
DI0-15 hold time  
(SEL1,SEL2) = (1,1)  
(SEL1,SEL2) = (1,1)  
(SEL1,SEL2) = (0,0)  
(SEL1,SEL2) = (0,0)  
(SEL1,SEL2) = (1,0)  
(SEL1,SEL2) = (1,0)  
(SEL1,SEL2) = (0,1)  
(SEL1,SEL2) = (0,1)  
175  
ps  
DI0-15 setup time  
DI0-15 hold time  
560  
ps  
-260  
930  
ps  
DI0-15 setup time  
DI0-15 hold time  
ps  
-630  
1350  
-1050  
TBD  
ps  
DI0-15 setup time  
DI0-15 hold time  
ps  
ps  
Delay between CKI and CKOUT  
ps  
Note:  
*:  
The setup and hold time is defined from the rising edge of CKI. The setup time is positive before the edge and the hold  
time is positive after the edge.  
SEL3 = 0”  
TCASE measured at the center of the top.  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 14 of 17  
Package Outline  
EF - Package  
Figure 14. Package 132 ball Ceramic BGA (EB and EF package).  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 15 of 17  
Figure 15. Package 132 ball Plastic BGA (FB package).  
Data Sheet Rev.: 13  
GD16585/GD16589  
Page 16 of 17  
Device Marking  
GD16585-<XX>  
GD16589-<XX>  
<Wafer #>-<Lot #>  
<Intel FPO #>  
<Die ID>  
<Wafer #>-<Lot #>  
<Intel FPO #>  
<Die ID>  
Figure 16. Device marking. Top view.  
Ordering Information  
To order, please specify as shown below:  
Product Name:  
GD16585-EB  
GD16585-EF  
GD16585-FB  
GD16589-EB  
GD16589-EF  
GD16589-FB  
Version:  
Package Type:  
Intel Order Number: Case Temperature  
Range:  
10 Gbit/s  
132 ball (16 mil) Ceramic BGA HCGD16585EB  
MM# 835479  
0...70 °C  
0...70 °C  
0...70 °C  
0...70 °C  
0...70 °C  
0...70 °C  
10 Gbit/s  
132 ball (20 mil) Ceramic BGA HCGD16585EF  
MM# 837348  
10 Gbit/s  
132 ball (20 mil) Plastic BGA  
RCGD16585FC  
MM# TBD  
10.66 Gbit/s  
10.66 Gbit/s  
10.66 Gbit/s  
132 ball (16 mil) Ceramic BGA HCGD16589EB  
MM# 835481  
132 ball (20 mil) Ceramic BGA HCGD16589EF  
MM# 837350  
132 ball (20 mil) Plastic BGA  
RCGD16589FC  
MM# TBD  
GD16585/GD16589, Data Sheet Rev.: 13 - Date: 14 November 2001  
an Intel company  
Mileparken 22, DK-2740 Skovlunde  
Denmark  
Phone : +45 7010 1062  
Distributor:  
The information herein is assumed to be  
reliable. GIGA assumes no responsibility  
for the use of this information, and all such  
information shall be at the users own risk.  
Prices and specifications are subject to  
change without notice. No patent rights or  
licenses to any of the circuits described  
herein are implied or granted to any third  
party. GIGA does not authorise or warrant  
any GIGA Product for use in life support  
devices and/or systems.  
Fax : +45 7010 1063  
E-mail : sales@giga.dk  
Web site : http://www.intel.com/ixa  
Copyright © 2001 GIGA ApS  
An Intel company  
All rights reserved  
Please check our Internet web site  
for latest version of this data sheet.  

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