ADC16DV160CILQ/NOPB - Texas Instruments High-Performance Analog

ADC16DV160

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SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

ADC16DV160 Dual Channel, 16-Bit, 160 MSPS Analog-to-Digital Converter with DDR LVDS

Outputs

Check for Samples: ADC16DV160

1FEATURES APPLICATIONS

• Low Power Consumption • Multi-carrier, Multi-standard Base Station

Receivers

• On-Chip Precision Reference and Sample-and-

Hold Circuit – MC-GSM/EDGE, CDMA2000, UMTS, LTE

and WiMAX

• On-Chip Automatic Calibration During Power-

Up • High IF Sampling Receivers

• Dual Data Rate LVDS Output Port • Diversity Channel Receivers

• Dual Supplies: 1.8V and 3.0V Operation • Test and Measurement Equipment

• Selectable Input Range: 2.4 and 2.0 VPP • Communications Instrumentation

• Sampling Edge Flipping with Clock Divider by • Portable Instrumentation

2 Option DESCRIPTION

• Internal Clock Divide by 1 or 2 The ADC16DV160 is a monolithic dual channel high

• On-Chip Low Jitter Duty-Cycle Stabilizer performance CMOS analog-to-digital converter

• Power-Down and Sleep Modes capable of converting analog input signals into 16-bit

• Output Fixed Pattern Generation digital words at rates up to 160 Mega Samples Per

Second (MSPS). This converter uses a differential,

• Output Clock Position Adjustment pipelined architecture with digital error correction and

• 3-Wire SPI an on-chip sample-and-hold circuit to minimize power

• Offset Binary or 2's Complement Data Format consumption and external component count while

providing excellent dynamic performance. Automatic

• 68-Pin VQFN Package (10x10x0.8, 0.5mm Pin- power-up calibration enables excellent dynamic

Pitch) performance and reduces part-to-part variation, and

the ADC16DV160 can be re-calibrated at any time

KEY SPECIFICATIONS through the 3-wire Serial Peripheral Interface (SPI).

• Resolution: 16 Bits An integrated low noise and stable voltage reference

and differential reference buffer amplifier eases board

• Conversion Rate: 160 MSPS level design. The on-chip duty cycle stabilizer with

• SNR (@FIN = 30 MHz): 78 dBFS (typ) low additive jitter allows a wide range of input clock

• SNR (@FIN = 197 MHz): 76 dBFS (typ) duty cycles without compromising dynamic

performance. A unique sample-and-hold stage yields

• SFDR (@FIN = 30 MHz): 95 dBFS (typ) a full-power bandwidth of 1.4 GHz. The interface

• SFDR (@FIN = 197 MHz): 89 dBFS (typ) between the ADC16DV160 and a receiver block can

• Full Power Bandwidth: 1.4 GHz (typ) be easily verified and optimized via fixed pattern

generation and output clock position features. The

• Power Consumption: digital data is provided via dual data rate LVDS

– Core per channel: 612 mW (typ) outputs – making possible the 68-pin, 10 mm x 10

– LVDS Driver: 117 mW (typ) mm VQFN package. The ADC16DV160 operates on

– Total: 1.3W (typ) dual power supplies of +1.8V and +3.0V with a

power-down feature to reduce power consumption to

• Operating Temperature Range (-40°C ~ 85°C) very low levels while allowing fast recovery to full

operation.

1Please be aware that an important notice concerning availability, standard warranty, and use in critical applications of

Texas Instruments semiconductor products and disclaimers thereto appears at the end of this data sheet.

Products conform to specifications per the terms of the Texas

Instruments standard warranty. Production processing does not

necessarily include testing of all parameters.

VIN-I

AGND

VA3.0

D7/6-I

D7/6+I

DRGND

VDR

D9/8-I

D9/8+I

VRPQ

VRNQ

VRNI

VRPI

VIN+I

VIN+Q

VIN-Q

VREF

AGND

VA3.0

AGND

VA3.0

AGND

VA1.8

AGND

VA3.0

AGND

VA1.8

VRMI

VRMQ

D1/0+Q

D1/0-Q

D3/2+Q

D3/2-Q

D5/4+Q

D5/4-Q

D7/6+Q

D9/8-Q

D11/10+Q

D11/10-Q

D13/12+Q

D13/12-Q

D15/14+Q

D1/0-I

D1/0+I

D3/2-I

D3/2+I

D5/4-I

D5/4+I

D11/10-I

D11/10+I

D13/12-I

D13/12+I

D15/14-I

OUTCLK-

OUTCLK+

D15/14-Q

D15/14+I

ADC16DV160

(Top View)

SCLK

SDIO

CLK+

CLK-

CSB

D7/6-Q

D9/8+Q

* Pin 0, Exposed pad on bottom of

package must be soldered to ground plane

to ensure rated performance.

INTERNAL

REFERENCE

VREF

SHA 16-BIT HIGH SPEED

PIPELINE ADC DDR LVDS

BUFFER

VIN-Q

VIN+Q

VRPQ

VRMQ

VRNQ

SHA 16-BIT HIGH SPEED

PIPELINE ADC DDR LVDS

BUFFER

VIN-I

VIN+I

VRPI

VRMI

VRNI

DIVIDER

1 OR 2

DUTY CYCLE

STABILIZER

OUTCLK

GENERATION

SPI

INTERFACE

CONTROL

REGISTERS

DO+I

DO-I

DO-Q

DO+Q

SDIO

CSB

SCLK

CLK+

CLK-

OUTCLK+

OUTCLK-

ADC16DV160

SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

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Figure 1. Functional Block Diagram

Figure 2. Pin-Out of ADC16DV160

See Package Number NKE0068A

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SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

PIN DESCRIPTIONS

Pin(s) Name Type Function and Connection

ANALOG I/O

66 VIN+I Differential analog input pins. The differential full-scale input signal level is

Input

20 VIN+Q 2.4 VPP by default, but can be set to 2.4/2.0 VPP via SPI. Each input pin

signal is centered on a common mode voltage, VCM.

67 VIN−IInput

19 VIN−QUpper reference voltage.

This pin should not be used to source or sink current. The decoupling

7, 8 VRPI Output capacitor to AGND (low ESL 0.1 µF) should be placed very close to the

10, 11 VRPQ pin to minimize stray inductance. VRP needs to be connected to VRN

through a low ESL 0.1 µF and a low ESR 10 µF capacitors in parallel.

Lower reference voltage.

This pin should not be used to source or sink current. The decoupling

5, 6 VRNI Output capacitor to AGND (low ESL 0.1 µF) should be placed very close to the

12, 13 VRNQ pin to minimize stray inductance. VRN needs to be connected to VRP

through a low ESL 0.1 µF and a low ESR 10 µF capacitors in parallel.

Common mode voltage

These pins should be bypassed to AGND with a low ESL (equivalent

2 VRMI series inductance) 0.1 µF capacitor placed as close to the pin as possible

Output

16 VRMQ to minimize stray inductance, and a 10 µF capacitor should be placed in

parallel. It is recommended to use VRM to provide the common mode

voltage for the differential analog inputs.

Internal reference voltage output / External reference voltage input. By

default, this pin is the output for the internal 1.2V voltage reference. This

pin should not be used to sink or source current and should be decoupled

to AGND with a 0.1 µF, low ESL capacitor. The decoupling capacitors

should be placed as close to the pins as possible to minimize inductance

and optimize ADC performance. The decoupling capacitor should not be

larger than 0.1 µF, otherwise dynamic performance after power-up

calibration can decrease due to the extended VREF settling time.

9 VREF Output/Input This pin can also be used as the input for a low noise external reference

voltage. The output impedance for the internal reference at this pin is

10kΩand this can be overdriven provided the impedance of the external

source is < 10kΩ. Careful decoupling is just as essential when an

external reference is used. The 0.1 µF low ESL decoupling capacitor

should be placed as close to this pin as possible.

The default Input differential voltage swing is equal to 2 * VREF, although

this can be changed through the SPI.

26 CLK+ Input Differential clock input pins. DC biasing is provided internally. For single-

ended clock mode, drive CLK+ through AC coupling while decoupling

25 CLK−Input CLK- pin to AGND.

DIGITAL I/O

Serial Clock. Serial data is shifted into and out of the device synchronous

23 SCLK Input with this clock signal.

Serial Data In/Out. Serial data is shifted into the device on this pin while

the CSB signal is asserted and data input mode is selected. Serial data is

24 SDIO Input/Output shifted out of the device on this pin while CSB is asserted and data

output mode is selected.

Serial Chip Select. When this signal is asserted SCLK is used to clock

27 CSB Input input or output serial data on the SDIO pin. When this signal is de-

asserted, the SDIO pin is a high impedence and the input data is ignored.

LVDS Data Output. The 16-bit digital output of the data converter is

D1/0+/-Q to provided on these ports in a dual data rate manner. A 100Ωtermination

28 - 43 D15/14+/-Q Output resistor must be placed between each pair of differential signals at the far

61 - 46 D1/0+/-I to end of the transmission line. The odd bit data is output first and should be

D15/14+/-I captured first when de-interleaving the data.

Output Clock. This pin is used to clock the output data. It has the same

frequency as the sampling clock. One word of data is output in each cycle

of this signal. A 100Ωtermination resistor must be placed between the

44, 45 OUTCLK+/- Output differential clock signals at the far end of the transmission line. The falling

edge of this signal should be used to capture the odd bit data (D15, D13,

D11…D1). The rising edge of this signal should be used to capture the

even bit data (D14, D12, D10…D0).

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PIN DESCRIPTIONS (continued)

Pin(s) Name Type Function and Connection

POWER SUPPLIES

3.0V Analog Power Supply. These pins should be connected to a quiet

4, 14, 22, 64 VA3.0 Analog Power source and should be decoupled to AGND with 0.1 µF capacitors located

close to the power pins.

1.8V Analog Power Supply. These pins should be connected to a quiet

1, 17 VA1.8 Analog Power source and should be decoupled to AGND with 0.1 µF capacitors located

close to the power pins.

Analog Ground Return.

0, 3, 15, 18, 21, AGND Analog Ground Pin 0 is the exposed pad on the bottom of the package. The exposed pad

65, 68 must be connected to the ground plane to ensure rated performance.

Output Driver Power Supply. This pin should be connected to a quiet

62 VDR Analog Power voltage source and be decoupled to DRGND with a 0.1 µF capacitor

close to the power pins.

63 DRGND Ground Output Driver Ground Return.

These devices have limited built-in ESD protection. The leads should be shorted together or the device placed in conductive foam

during storage or handling to prevent electrostatic damage to the MOS gates.

Product Folder Links: ADC16DV160

AGND

VA3.0

I/O To Internal

Circuitry

ADC16DV160

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SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

Absolute Maximum Ratings(1)(2)(3)(4)(5)

Supply Voltage (VA3.0)−0.3V to 4.2V

Supply Voltage (VA1.8, VDR)−0.3V to 2.35V

Voltage at any Pin except OUTCLK, CLK, VIN, CSB, SCLK, SDIO, D15/14-D1/0 −0.3V to (VA3.0 +0.3V)

(Not to exceed 4.2V)

Voltage at CLK, VIN Pins -0.3V to (VA1.8 +0.3V)

(Not to exceed 2.35V)

Voltage at D15/14-D1/0, OUTCLK, CSB, SCLK, SDIO Pins 0.3V to (VDR + 0.3V)

(Not to exceed 2.35V)

Input Current at any Pin 5 mA

Storage Temperature Range -65°C to +150°C

Maximum Junction Temp (TJ) +150°C

Thermal Resistance (θJA) 19.1°C/W

Thermal Resistance (θJC) 1.0°C/W

ESD Rating Machine Model 200V

Human Body Model(6) 2000V

Charged Device Model 1250V

Soldering process must comply with Reflow Temperature Profile specifications. Refer to www.ti.com/packaging. See (7)

For soldering specifications: see product folder at www.ti.com and SNOSA549C

(1) Absolute Maximum Ratings indicate limits beyond which damage to the device may occur. Operating Ratings indicate conditions for

which the device is guaranteed to be functional, but do not guarantee specific performance limits. For guaranteed specifications and test

conditions, see the Electrical Characteristics. The guaranteed specifications apply only for the test conditions listed. Some performance

characteristics may degrade when the device is not operated under the listed test conditions. Operation of the device beyond the

maximum Operating Ratings is not recommended.

(2) All voltages are measured with respect to GND = AGND = DRGND = 0V, unless otherwise specified.

(3) If Military/Aerospace specified devices are required, please contact the Texas Instruments Sales Office/ Distributors for availability and

specifications.

(4) When the input voltage at any pin exceeds the power supplies (that is, VIN < AGND, or VIN > VA), the current at that pin should be

limited to ±5 mA. The ±50 mA maximum package input current rating limits the number of pins that can safely exceed the power

supplies with an input current of ±5mA to 10.

(5) The inputs are protected as shown below. Input voltage magnitudes above VA3.0 or below GND will not damage this device, provided

current is limited per Note 4. However, errors in the A/D conversion can occur if the input goes above 2.6V or below GND as described

in the Operating Ratings section.

(6) Human Body Model is 100 pF discharged through a 1.5 kΩresistor. Machine Model is 220 pF discharged through 0 Ω.

(7) Reflow temperature profiles are different for lead-free and non-lead-free packages.

Operating Ratings

Specified Temperature Range: -40°C to +85°C

3.0V Analog Supply Voltage Range: (VA3.0) +2.7V to +3.6V

1.8V Supply Voltage Range: VA1.8, VDR +1.7V to +1.9V

Clock Duty Cycle 30/70 %

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Electrical Characteristics

Unless otherwise specified, the following specifications apply: VA3.0 = 3.0V, VA1.8 = 1.8V, VDR = 1.8V, Differential sinusoidal

clock, fCLK = 160 MSPS at 2.8 VPP, AIN = -1dBFS, LVDS Rterm = 100Ω, CL= 5 pF. Typical values are for TA= 25°C.

Boldface limits apply for TA= TMIN to TMAX. All other limits apply for TA= +25°C, unless otherwise noted.

Symbol Parameter Conditions Typical(1) Limits Units

STATIC CONVERTER CHARACTERISTICS

Resolution with No Missing Codes 16 Bits

INL Integral Non Linearity ±2.5 LSB

DNL Differential Non Linearity +0.7,-0.2 LSB

PGE Positive Gain Error −1.0 %FS

NGE Negative Gain Error -1.0 %FS

VOFF Offset Error (VIN+=VIN−) 0.1 %FS

Under Range Output Code 0.5dB below negative full scale 0 0

Over Range Output Code 0.5dB above positive full scale 65535 65535

REFERENCE AND ANALOG INPUT CHARACTERISTICS

VRM is the common mode

VCM Common Mode Input Voltage VRM±0.05 V

reference voltage

Reference Ladder Midpoint Output

VRM 1.15 V

Voltage

VREF Internal Reference Voltage 1.20 V

Internal Reference, default input

Differential Analog Input Range 2.4 VPP

range is selected

(1) Typical figures are at TA= 25°C and represent most likely parametric norms at the time of product characterization. The typical

specifications are not guaranteed.

Dynamic Converter Electrical Characteristics

Unless otherwise specified, the following specifications apply: VA3.0 = 3.0V, VA1.8 = 1.8V, VDR = 1.8V, Differential sinusoidal

clock, fCLK = 160 MSPS at 2.8 VPP, AIN = -1dBFS, LVDS RTERM = 100Ω, CL= 5 pF. Typical values are for TA= 25°C. Boldface

limits apply for TA= TMIN to TMAX. All other limits apply for TA= +25°C, unless otherwise noted.

Symbol Parameter Conditions Typ Limits Units

Fin = 30 MHz at −1dBFS 78 dBFS

SNR Signal-to-Noise Ratio Fin = 197 MHz at −1dBFS 76 74.3 dBFS

Fin = 197 MHz at −7dBFS 77.3 dBFS

Fin = 30 MHz at −1dBFS 95 dBFS

SFDR Single-tone Spurious Free Dynamic Range(1) Fin = 197 MHz at −1dBFS 89 81 dBFS

Fin = 197 MHz at −7dBFS 99 dBFS

Fin = 197 MHz at −1dBFS −85 -80 dBFS

THD Total Harmonic Distortion Fin = 197 MHz at −7dBFS −96 dBFS

Fin = 197 MHz at −1dBFS −90 dBFS

H2 Second-order Harmonic(1) Fin = 197 MHz at −7dBFS −99 dBFS

Fin = 197 MHz at −1dBFS −93 dBFS

H3 Third-order Harmonic(1) Fin = 197 MHz at −7dBFS −105 dBFS

Fin = 197 MHz at −1dBFS 98 90 dBFS

Worst Harmonic or Spurious Tone excluding H2

SPUR and H3 Fin = 197 MHz at −7dBFS 102 dBFS

Full Power Bandwidth -3dB Point 1.4 GHz

0 MHz tested channel, fIN=32.5 MHz at - 110 dBFS

1dBFS other channel

Crosstalk 0 MHz tested channel, fIN=192 MHz at - 103 dBFS

1dBFS other channel

(1) This parameter is specified in units of dBFS – dB relative to the ADC's input full-scale voltage.

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SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

Logic and Power Supply Electrical Characteristics(1)

Unless otherwise specified, the following specifications apply: VA3.0 = 3.0V, VA1.8 = 1.8V, VDR = 1.8V, Differential sinusoidal

clock, fCLK = 160 MSPS at 2.8 VPP, AIN = -1dBFS, LVDS RTERM = 100Ω, CL= 5 pF. Typical values are for TA= 25°C. Boldface

limits apply for TA= TMIN to TMAX. All other limits apply for TA= +25°C, unless otherwise noted. Units

Symbol Parameter Conditions Typical Limits (Limits)

POWER SUPPLY CHARACTERISTICS

IA3.0 Analog 3.0V Supply Current Full Operation(2) 345 374 mA

IA1.8 Analog 1.8V Supply Current Full Operation(2) 105 116 mA

IDR Output Driver Supply Current Full Operation(2) 65 76 mA

Core Power Consumption VA3.0 + VA1.8 power per channel 612 mW

Driver Power Consumption VDR power; Fin = 5MHz Rterm = 100Ω117 mW

Total Power Consumption Full Operation(2) 1.34 1.47 W

Power down state, no external clock 4.4 mW

Power Consumption in Power Down State Sleep state, no external clock 60 mW

DIGITAL INPUT CHARACTERISTICS (SCLK, SDIO, CSB)

VIH Logical “1” Input Voltage VDR = 1.9V 1.2 V (min)

VIL Logical “0” Input Voltage VDR = 1.7V 0.4 V (max)

IIN1 Logical “1” Input Current 10 µA

IIN0 Logical “0” Input Current −10 µA

CIN Digital Input Capacitance 5 pF

DIGITAL OUTPUT CHARACTERISTICS (SDIO)

VOH Logical “1” Output Voltage IOUT = 0.5 mA, VDR = 1.8V 1.2 V (min)

VOL Logical “0” Output Voltage IOUT = 1.6 mA, VDR = 1.8V 0.4 V (max)

+ISC Output Short Circuit Source Current VOUT = 0V −10 mA

−ISC Output Short Circuit Source Current VOUT = VDR 10

(1) The input capacitance is the sum of the package/pin capacitance and the sample and hold circuit capacitance.

(2) This parameter is guaranteed only at 25°C. For power dissipation over temperature range, refer to Power vs. Temperature plot in

Typical Performance Characteristics, Dynamic Performance.

LVDS Electrical Characteristics

Unless otherwise specified, the following specifications apply: VA3.0 = 3.0V, VA1.8 = 1.8V, VDR = 1.8V, Differential sinusoidal

clock, fCLK = 160 MSPS at 2.8 VPP, AIN = -1dBFS, LVDS RTERM = 100Ω, CL= 5 pF. Typical values are for TA= 25°C. Boldface

limits apply for TA= TMIN to TMAX. All other limits apply for TA= +25°C, unless otherwise noted.

Symbol Parameter Conditions Min Typ Max Units

LVDS DC SPECIFICATIONS (Apply to pins D0 to D15, OUTCLK)

VOD Output Differential Voltage 100ΩDifferential Load 175 260 325 mV

VOS Output Offset Voltage 100ΩDifferential Load 1.1 1.2 1.3 V

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Timing Specifications

Unless otherwise specified, the following specifications apply: VA3.0 = 3.0V, VA1.8 = 1.8V, VDR = 1.8V, Differential sinusoidal

clock, fCLK = 160 MSPS at 2.8 VPP, AIN = -1dBFS, LVDS RTERM = 100 Ω, CL= 5 pF. Typical values are for TA= 25°C.

Boldface limits apply for TMIN ≤TA≤TMAX.All other limits apply for TA= 25°C, unless otherwise noted.

Parameter Conditions Typ Limits Units

Input Clock Frequency (FCLK)160 MHz

Input Clock Frequency (FCLK) 20 MHz (min)

Input Clock Amplitude Measured at each pin (CLK+, CLK-). 0.85 VPP (min)

1.4

Differential clock is 2.8 Vpp (typ) 1.7 VPP (max)

Data Output Setup Time (TSU)(1) Measured @ VOD/2; FCLK = 160 MHz. 1.57 1ns (min)

Data Output Hold Time (TH)(1) Measured @ VOD/2; FCLK = 160 MHz. 1.55 1ns (min)

LVDS Rise/Fall Time (tR, tF) CL= 5pF to GND, RL= 100Ω270 ps

Pipeline Latency Clock

11.5 Cycles

Aperture Jitter 80 fs rms

Power-Up Time From assertion of Power to specified level of 0.5+ 103*(222+217)/FCLK ms

performance.

Power-Down Recovery Time From de-assertion of power down mode to 0.1+ 103*(219+217)/FCLK ms

output data available.

Sleep Recovery Time From de-assertion of sleep mode to output 100 μS

data available.

(1) This parameter is a function of the CLK frequency - increasing directly as the frequency is lowered.

Unless otherwise specified, the following specifications apply: VA3.0 = 3.0V, VA1.8 = 1.8V, VDR = 1.8V, Differential sinusoidal

clock, fCLK = 160 MSPS at 2.8 VPP, AIN = -1dBFS, LVDS RTERM = 100Ω, CL= 5 pF. Typical values are for TA= 25°C. Boldface

limits apply for TMIN ≤TA≤TMAX.All other limits apply for TA= 25°C, unless otherwise noted.

Symbol Parameter Conditions Typ Max Units

MHz

fSCLK Serial Clock Frequency fSCLK = 1 / tP20 (max)

40 % (min)

tPH SCLK Pulse Width - High % of SCLK Period 60 % (max)

40 % (min)

tPL SCLK Pulse Width - Low % of SCLK Period 60 % (max)

tSSU SDIO Input Data Setup Time 5 ns (min)

tSH SDIO Input Data Hold Time 5 ns (min)

tODZ SDIO Output Data Driven-to-Tri-State Time 5 ns (max)

tOZD SDIO Output Data Tri-State-to-Driven Time 5 ns (max)

tOD SDIO Output Data Delay Time 15 ns (max)

tCSS CSB Setup Time 5 ns (min)

tCSH CSB Hold Time 5 ns (min)

Minimum time CSB must be

tIAG Inter-access Gap 30 ns (min)

deasserted between accesses

Product Folder Links: ADC16DV160

tCSH

1st clock

SCLK

8th clock 16th clock

CSB

tCSS tCSH tCSS

tODZ

SDIO

tOZD

tOD

D7 D0 D1

tIAG

ADC (SPI Slave) Drives SDIO

COMMAND FIELD

SPI Master Drives SDIO

tOD

tSU

Valid Data

tPL tPH

Valid Data

16th clock

SCLK

SDIO

Vin

CLK+

CLK-

OUTCLK+

OUTCLK-

Dx+/-

SampleN

SampleN+12

Latency

Tsu

odd bits* even

bits*

Word NWord N-1 Word N+1

even

bits* odd bits* even

bits*

* even bits: D0(LSB), D2, D4, D6, D8, D10, D12, D14

odd bits: D1, D3, D5, D7, D9, D11, D13, D15(MSB)

odd bits*

SampleN+11

ADC16DV160

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SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

Timing Diagrams

Figure 3. Digital Output Timing

Figure 4. SPI Write Timing

Figure 5. SPI Read Timing

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Specification Definitions

APERTURE DELAY is the time after the falling edge of the clock to when the input signal is acquired or held for

conversion.

APERTURE JITTER (APERTURE UNCERTAINTY) is the variation in aperture delay from sample to sample.

Aperture jitter manifests itself as noise in the output.

CLOCK DUTY CYCLE is the ratio of the time during one cycle that a repetitive digital waveform is high to the

total time of one period. The specification here refers to the ADC clock input signal.

COMMON MODE VOLTAGE (VCM)is the common DC voltage applied to both input terminals of the ADC.

CONVERSION LATENCY is the number of clock cycles between initiation of conversion and the time when data

is presented to the output driver stage. Data for any given sample is available at the output pins the Pipeline

Delay plus the Output Delay after the sample is taken. New data is available at every clock cycle, but the data

lags the conversion by the pipeline delay.

CROSSTALK is the coupling of energy from one channel into the other channel.

DIFFERENTIAL NON-LINEARITY (DNL) is the measure of the maximum deviation from the ideal step size of 1

LSB.

FULL POWER BANDWIDTH is a measure of the frequency at which the reconstructed output fundamental

drops 3 dB below its low frequency value for a full scale input.

GAIN ERROR is the deviation from the ideal slope of the transfer function. It can be calculated as:

Gain Error = Positive Full Scale Error −Negative Full Scale Error (1)

It can also be expressed as Positive Gain Error and Negative Gain Error, which are calculated as:

PGE = Positive Full Scale Error - Offset Error NGE = Offset Error - Negative Full Scale Error (2)

INTEGRAL NON LINEARITY (INL) is a measure of the deviation of each individual code from a best fit straight

line. The deviation of any given code from this straight line is measured from the center of that code value.

INTERMODULATION DISTORTION (IMD) is the creation of additional spectral components as a result of two

sinusoidal frequencies being applied to the ADC input at the same time. It is defined as the ratio of the power in

the intermodulation products to the total power in the original frequencies. IMD is usually expressed in dBFS.

LSB (LEAST SIGNIFICANT BIT) is the bit that has the smallest value or weight of all bits. This value is VFS/2n,

where “VFS” is the full scale input voltage and “n” is the ADC resolution in bits.

MISSING CODES are those output codes that will never appear at the ADC outputs. The ADC16DV160 is

guaranteed not to have any missing codes.

MSB (MOST SIGNIFICANT BIT) is the bit that has the largest value or weight. Its value is one half of full scale.

NEGATIVE FULL SCALE ERROR is the difference between the actual first code transition and its ideal value of

½ LSB above negative full scale.

OFFSET ERROR is the difference between the two input voltages (VIN+ – VIN-) required to cause a transition from

code 32767LSB and 32768LSB with offset binary data format.

PIPELINE DELAY (LATENCY) See CONVERSION LATENCY.

POSITIVE FULL SCALE ERROR is the difference between the actual last code transition and its ideal value of

1½ LSB below positive full scale.

POWER SUPPLY REJECTION RATIO is a measure of how well the ADC rejects a change in the power supply

voltage. PSRR is the ratio of the Full-Scale output of the ADC with the supply at the minimum DC supply limit to

the Full-Scale output of the ADC with the supply at the maximum DC supply limit, expressed in dB.

SIGNAL TO NOISE RATIO (SNR) is the ratio, expressed in dB, of the power of input signal to the total power of

all other spectral components below one-half the sampling frequency, not including harmonics and DC.

SIGNAL TO NOISE AND DISTORTION (SINAD) Is the ratio, expressed in dB, of the power of the input signal to

the total power of all of the other spectral components below half the clock frequency, including harmonics but

excluding DC.

Product Folder Links: ADC16DV160

THD = 10

log20 2

f+... 2

ADC16DV160

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SPUR (SPUR) is the difference, expressed in dB, between the power of input signal and the peak spurious

signal power, where a spurious signal is any signal present in the output spectrum that is not present at the input

excluding the second and third harmonic distortion.

SPURIOUS FREE DYNAMIC RANGE (SFDR) is the difference, expressed in dB, between the power of input

signal and the peak spurious signal power, where a spurious signal is any signal present in the output spectrum

that is not present at the input.

TOTAL HARMONIC DISTORTION (THD) is the ratio, expressed in dB, of the total power of the first eight

harmonics to the input signal power. THD is calculated as:

(3)

where f12is the power of the fundamental frequency and f22through f92are the powers of the first eight

harmonics in the output spectrum.

SECOND HARMONIC DISTORTION (2ND HARM or H2) is the difference expressed in dB, from the power of its

2nd harmonic level to the power of the input signal.

THIRD HARMONIC DISTORTION (3RD HARM or H3) is the difference expressed in dB, from the power of the

3rd harmonic level to the power of the input signal.

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Typical Performance Characteristics, DNL, INL

Unless otherwise noted, these specifications apply: VA3.0= +3.0V, VA1.8, VDR = 1.8V, fCLK = 160 MSPS. Differential Clock

Mode, Offset Binary Format. LVDS Rterm = 100 Ω. CL= 5 pF. Typical values are at TA= +25°C. Fin = 32.4MHz with –1dBFS.

DNL INL

Figure 6. Figure 7.

DNL vs.VA3.0 INL vs .VA3.0

Figure 8. Figure 9.

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Typical Performance Characteristics, Dynamic Performance

Unless otherwise noted, these specifications apply: VA3.0= +3.0V, VA1.8, VDR = 1.8V, fCLK = 160 MSPS. Differential Clock

Mode, Offset Binary Format. LVDS Rterm = 100 Ω. CL= 5 pF. Typical values are at TA= +25°C. Fin = 197MHz with –1dBFS.

SNR, SINAD, SFDR vs. fIN DISTORTION vs. fIN

Figure 10. Figure 11.

SNR, SINAD, SFDR vs. VA3.0 DISTORTION vs. VA3.0

Figure 12. Figure 13.

SNR, SINAD, SFDR vs. VA1.8 DISTORTION vs. VA1.8

Figure 14. Figure 15.

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Typical Performance Characteristics, Dynamic Performance (continued)

Unless otherwise noted, these specifications apply: VA3.0= +3.0V, VA1.8, VDR = 1.8V, fCLK = 160 MSPS. Differential Clock

Mode, Offset Binary Format. LVDS Rterm = 100 Ω. CL= 5 pF. Typical values are at TA= +25°C. Fin = 197MHz with –1dBFS.

SNR, SFDR vs. Input Amplitude (dBFS) SNR, SFDR vs. Input Amplitude (dBc)

Figure 16. Figure 17.

Spectral Response @ 10.1 MHz Spectral Response @ 32.5 MHz

Figure 18. Figure 19.

Spectral Response at 70 MHz Spectral Response @ 150 MHz

Figure 20. Figure 21.

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Typical Performance Characteristics, Dynamic Performance (continued)

Unless otherwise noted, these specifications apply: VA3.0= +3.0V, VA1.8, VDR = 1.8V, fCLK = 160 MSPS. Differential Clock

Mode, Offset Binary Format. LVDS Rterm = 100 Ω. CL= 5 pF. Typical values are at TA= +25°C. Fin = 197MHz with –1dBFS.

Spectral Response @ 197 MHz Spectral Response @ 220 MHz

Figure 22. Figure 23.

Spectral Response @ 197 MHz, -7dBFS Two Tone Spectral Response @ 197 MHz, 203 MHz

Figure 24. Figure 25.

Power vs. Temperature

Figure 26.

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ADC16DV160

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FUNCTIONAL DESCRIPTION

Operating on dual +1.8V and +3.0V supplies, the ADC16DV160 digitizes a differential analog input signal to 16

bits, using a differential pipelined architecture with error correction circuitry and an on-chip sample-and-hold

circuit to ensure maximum performance. The user has the choice of using an internal 1.2V stable reference, or

using an external 1.2V reference. The internal 1.2V reference has a high output impedance of > 9 kΩand can be

easily over-driven by an external reference. A 3-wire SPI-compatible serial interface facilitates programming and

control of the ADC16DV160.

ADC Architecture

The ADC16DV160 architecture consists of a dual channel highly linear and wide bandwidth sample-and-hold

circuit, followed by a switched capacitor pipeline ADC. Each stage of the pipeline ADC consists of low resolution

flash sub-ADC and an inter-stage multiplying digital-to-analog converter (MDAC), which is a switched capacitor

amplifier with a fixed stage signal gain and DC level shifting circuits. The amount of DC level shifting is

dependent on sub-ADC digital output code. A 16-bit final digital output is the result of the digital error correction

logic, which receives the digital output of each stage including redundant bits to correct offset error of each sub-

ADC.

Product Folder Links: ADC16DV160

VIN+

VIN-

ADC16DV160

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APPLICATION INFORMATION

OPERATING CONDITIONS

We recommend that the following conditions be observed for operation of the ADC16DV160:

2.7V ≤VA3.0 ≤3.6V

1.7V ≤VA1.8 ≤1.9V

1.7V ≤VDR ≤1.9V

20 MSPS ≤FCLK ≤160 MSPS

VREF ≤1.2V

VCM = 1.15V (from VRM)

ANALOG INPUTS

The analog input circuit of the ADC16DV160 is a differential switched capacitor sample-and-hold circuit (see

Figure 27) that provides optimum dynamic performance wide input frequency range with minimum power

consumption. The clock signal alternates sample mode (QS) and hold mode (QH). An integrated low jitter duty

cycle stabilizer ensures constant optimal sample and hold time over a wide range of input clock duty cycle. The

duty cycle stabilizer is always turned on during normal operation.

During sample mode, analog signals (VIN+, VIN-) are sampled across two sampling capacitors (CS) while the

amplifier in the sample-and-hold circuit is idle. The dynamic performance of the ADC16DV160 is likely

determined during sampling mode. The sampled analog inputs (VIN+, VIN-) are held during hold mode by

connecting input side of the sampling capacitors to output of the amplifier in the sample-and-hold circuit while

driving pipeline ADC core.

The signal source, which drives the ADC16DV160, is recommended to have a source impedance less than 100Ω

over a wide frequency range for optimal dynamic performance.

A shunt capacitor can be placed across the inputs to provide high frequency dynamic charging current during

sample mode and also absorb any switching charge coming from the ADC16DV160. A shunt capacitor can be

placed across each input to GND for similar purpose. Smaller physical size and low ESR and ESL shunt

capacitors are recommended.

The value of shunt capacitance should be carefully chosen to optimize the dynamic performance at specific input

frequency range. Larger value shunt capacitors can be used for lower input frequencies, but the value has to be

reduced at high input frequencies.

Balancing impedance at positive and negative input pin over entire signal path must be ensured for optimal

dynamic performance.

Figure 27. Simplified Switched-Capacitor Sample-and-hold Circuit

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ADC16DV160

VIN+

VIN- VRM

0.1 PF

C1C2

ADC16DV160

VIN+

VIN- VRM

0.1 PF

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Input Common Mode

The analog inputs of the ADC16DV160 are not internally dc biased and the range of input common mode is very

narrow. Hence it is highly recommended to use the common mode voltage (VRM, typically 1.15V) as input

common mode for optimal dynamic performance regardless of DC and AC coupling applications. Input common

mode signal must be decoupled with low ESL 0.1 μF input bias resistors to minimize noise performance

degradation due to any coupling or switching noise between the ADC16DV160 and input driving circuit.

Driving Analog Inputs

For low frequency applications, either a flux or balun transformer can convert single-ended input signals into

differential and drive the ADC16DV160 without additive noise. An example is shown in Figure 28. The VRM pin is

used to bias the input common mode by connecting the center tap of the transformer’s secondary ports. A flux

transformer is used for this example, but AC coupling capacitors enable the use of a balun type transformer.

Figure 28. Transformer Drive Circuit for Low Input Frequency

Transformers act as band pass filters. The lower frequency limit is set by saturation at frequencies below a few

MHz and parasitic resistance and capacitance set the upper frequency limit. The transformer core will be

saturated with excessive signal power and it causes distortion as the equivalent load termination becomes

heavier at high input frequencies. This is a reason to reduce shunt capacitors for high IF sampling applications to

balance the amount of distortion caused by the transformer and charge kick-back noise from the device.

As input frequency goes higher with the input network in Figure 28, amplitude and phase unbalance increase

between positive and negative inputs (VIN+ and VIN-) due to the inherent impedance mismatch between the two

primary ports of the transformer since one is connected to the signal source and the other is connected to GND.

Distortion increases as a result.

The cascaded transmission line (balun) transformers in Figure 29 can be used for high frequency applications

like high IF sampling base station receive channels. The transmission line transformer has less stray capacitance

between primary and secondary ports and so the impedance mismatch at the secondary ports is effectively less

even with the given inherent impedance mismatch on the primary ports. Cascading two transmission line

transformers further reduces the effective stray capacitance from the secondary ports of the secondary

transformer to primary ports of first transformer, where the impedance is mismatched. A transmission line

transformer, for instance MABACT0040 from M/A-COM, with a center tap on the secondary port can further

reduce amplitude and phase mismatch.

Figure 29. Transformer Drive Circuit for High Input Frequency

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Equivalent Input Circuit and Its S11

The input circuit of the ADC16DV160 during sample mode is a differential switched capacitor as shown in

Figure 30. The bottom plate sampling switch is bootstrapped in order to reduce its turn on impedance and its

variation across input signal amplitude. Bottom plate sampling switches, and top plate sampling switch are all

turned off during hold mode. The sampled analog input signal is processed through the following pipeline ADC

core. The equivalent impedance changes drastically between sample and hold mode and a significant amount of

charge injection occurs during the transition between the two operating modes.

Distortion and SNR heavily rely on the signal integrity, impedance matching during sample mode and charge

injection due to the sampling switches.

Figure 30. Input Equivalent Circuit

The S11 of the input circuit of the ADC16DV160 is shown in Figure 31. Up to 500 MHz, it is predominantly

capacitive loading with small stray resistance and inductance as shown in Figure 31. An appropriate resistive

termination at a given input frequency band has to be added to improve signal integrity. Any shunt capacitor on

the analog input pin deteriorates signal integrity but it provides high frequency charge to absorb the charge

injected by the sampling switches. An optimal shunt capacitor is dependent on input signal frequency as well as

the impedance characteristic of the analog input signal path including components like transformers, termination

resistors, and AC coupling capacitors.

Product Folder Links: ADC16DV160

10 MHz

510

100 MHz

200 MHz

400 MHz

500 MHz

0.5

0.2

0.2 0.5 1

0.5

0.2

ADC16DV160

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Figure 31. ADC16DV160 Input S11

CLOCK INPUT CONSIDERATIONS

Clock Input Modes

The ADC16DV160 provides a low additive jitter differential clock receiver for optimal dynamic performance over a

wide input frequency range. The input common mode of the clock receiver is internally biased at VA1.8/2 through

a 10 kΩresistor as shown in Figure 32. Normally the external clock input should be AC-coupled. It is possible to

DC-couple the clock input, but the common mode (average voltage of CLK+ and CLK-) must not be higher than

VA1.8/2 to prevent substantial tail current reduction leading to lowered jitter performance. CLK+ and CLK- should

never be lower than AGND. A high speed back-to-back diode connected between CLK+ and CLK- can limit the

maximum swing, but this could cause signal integrity concerns when the diode turns on and reduces the load

impedance instantaneously.

The preferred differential transformer coupled clocking approach is shown in Figure 33. A 0.1 μF decoupling

capacitor on the center tap of the secondary of a flux type transformer stabilizes clock input common mode.

Differential clocking increases the maximum amplitude of the clock input at the pins 6dB vs. the singled-ended

circuit shown in Figure 34. The clock amplitude is recommended to be as large as possible while CLK+ and CLK-

both never exceed the supply rails of VA1.8 and AGND. With the equivalent input noise of the differential clock

receiver shown in Figure 32, a larger clock amplitude at CLK+ and CLK- pins increases its slope around the

zero-crossing point so that higher signal-to-noise results.

Product Folder Links: ADC16DV160

CLK+

CLK-

R C

CLOCK

INPUT

0.1 PF

ADC16DV160

R C

CLOCK

INPUT CLK+

CLK-

0.1 PF

ADC16DV160

10 kÖ

VA1.8

CLK-

CLK+

10 kÖ

ADC16DV160

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Figure 32. Equivalent Clock Receiver

The differential receiver of the ADC16DV160 has an extremely low-noise floor but its bandwidth is also extremely

wide. The wide band clock noise folds back into the first Nyquist zone at the ADC output. Increased slope of the

input clock lowers the equivalent noise contributed by the differential receiver.

A band-pass filter (BPF) with narrow pass band and low insertion loss can be added to the clock input signal

path when the wide band noise of the clock source is noticeably large compared to the input equivalent noise of

the differential clock receiver.

Load termination can be a combination of R and C instead of a pure R. This RC termination can improve the

noise performance of the clock signal path by filtering out high frequency noise through a low pass filter. The size

of R and C is dependent on the clock rate and slope of the clock input.

An LVPECL and/or LVDS driver can also drive the ADC16DV160. However the full dynamic performance of the

ADC16DV160 might not be achieved due to the high noise floor of the driving circuit itself especially in high IF

sampling applications.

Figure 33. Differential Clocking, Transformer Coupled

A singled-ended clock can drive the CLK+ pin through a 0.1 µF AC coupling capacitor while CLK- is decoupled to

AGND through a 0.1 μF capacitor as shown in Figure 34.

Figure 34. Singled-Ended 1.8V Clocking, Capacitive AC Coupled

Duty Cycle Stabilizer

The highest operating speed with optimal performance can only be achieved with a 50% clock duty cycle

because the switched-capacitor circuit of the ADC16DV160 is designed to have equal amount of settling time

between each stage. The maximum operating frequency could be reduced accordingly when the clock duty cycle

departs from 50%.

Product Folder Links: ADC16DV160

50fs

75fs

100fs

200fs

400fs

800fs

1 10 100 1000

INPUT FREQUENCY (MHz)

SNR (dBFS)

1.5ps

SNRFin = 10log10 VN2 + (2SFin x Tj)2/2

A2/2

ADC16DV160

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The ADC16DV160 contains a duty cycle stabilizer that adjusts the non-sampling (rising) clock edge to make the

duty cycle of the internal clock 50% for a 30-to-70% input clock duty cycle. The duty cycle stabilizer is always on

because the noise and distortion performance are not affected at all. It is not recommended to use the

ADC16DV160 at clock frequencies less than 20 MSPS where the feedback loop in the duty cycle stabilizer

becomes unstable.

Clock Jitter vs. Dynamic Performance

High speed and high resolution ADCs require a low-noise clock input to ensure full dynamic performance over

wide input frequency range. SNR (SNRFin) at a given input frequency (Fin) can be calculated by:

with a given total noise power (VN2) of an ADC, total rms jitter (Tj), and input amplitude (A) in dBFS.

The clock signal path must be treated as an analog signal whenever aperture jitter affects the dynamic

performance of the ADC16DV160. Power supplies for the clock drivers have to be separated from the ADC

output driver supplies to prevent modulating the clock signal with the ADC digital output signals. Higher noise

floor and/or increased distortion/spur may result from any coupling of noise from the ADC digital output signals to

the analog input and clock signals.

In IF sampling applications, the signal-to-noise ratio is particularly affected by clock jitter as shown in Figure 35.

Tj is the integrated noise power of the clock signal divided by the slope of clock signal around the tripping point.

The upper limit of the noise integration is independent of applications and set by the bandwidth of the clock

signal path. However, the lower limit of the noise integration highly relies on the application. In base station

receive channel applications, the lower limit is determined by the channel bandwidth and space from an adjacent

channel.

Figure 35. SNR with given Jitter vs. Input Frequency

CALIBRATION

The automatic calibration engine contained within the ADC16DV160 improves dynamic performance and reduces

its part-to-part variation. Digital output signals including output clock (OUTCLK+/-) are all logic low while

calibrating. The ADC16DV160 is automatically calibrated when the device is powered up. Optimal dynamic

performance might not be obtained if the power-up time is longer than the internal delay time (~32 mS @ 160

MSPS clock rate). In this case, the ADC16DV160 can be re-calibrated by asserting and then de-asserting power

down mode. Re-calibration is recommended whenever the operating clock rate changes.

Product Folder Links: ADC16DV160

1.15V

ADC16DV160

10 PF

9 kÖ

0.1 PF

10 PF

0.1 PF0.1 PF

VRM

VRN

VRP

0.1 PF

VREF

ADC16DV160

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VOLTAGE REFERENCE

A stable and low-noise voltage reference and its buffer amplifier are built into the ADC16DV160. The input full

scale is two times VREF, which is the same as VBG (the on-chip bandgap output with a 10 kΩoutput impedance)

as well as VRP - VRN as shown in Figure 36. The input range can be adjusted by changing VREF either internally

or externally. An external reference with low output impedance can easily over-drive the VREF pin. The default

VREF is 1.2V. The input common mode voltage (VRM) is a fixed voltage level of 1.15V. Maximum SNR can be

achieved at the maximum input range where VREF = 1.2V. Although the ADC16DV160's dynamic and static

performance is optimized at a VREF of 1.2V, reducing VREF can improve SFDR performance by sacrificing some

of the ADC16DV160's SNR performance.

Figure 36. Internal References and their Decoupling

Reference Decoupling

It is highly recommended to place the external decoupling capacitors connected to VRP, VRN, VRM and VREF pins

as close to the pins as possible. The external decoupling capacitors should have minimal ESL and ESR. During

normal operation, inappropriate external decoupling with large ESL and/or ESR capacitors increase the settling

time of the ADC core and result in lower SFDR and SNR performance. The VRM pin may be loaded up to 1mA

for setting input common mode. The remaining pins should not be loaded. Smaller capacitor values might result

in degraded noise performance. The decoupling capacitor on the VREF pin must not exceed 0.1 μF. Additional

decoupling on this pin will cause improper calibration during power-up. All the reference pins except VREF have a

very low output impedance. Driving these pins via a low-output impedance external circuit for a long time period

may damage the device.

When the VRM pin is used to set the input common mode level via transformer, a smaller series resistor should

be placed on the signal path to isolate any switching noise between the ADC core and input signal. The series

resistor introduces a voltage error between VRM and VCM due to charge injection while the sampling switches are

toggling. The series resistance should not be larger than 50Ω.

All grounds associated with each reference and analog input pin should be connected to a solid and quiet ground

on the PC board. Coupling noise from digital outputs and their supplies to the reference pins and their ground

can cause degraded SNR and SFDR performance.

LAYOUT AND GROUNDING

Proper grounding and proper routing of all signals are essential to ensure accurate conversion. Maintaining

separate analog and digital areas of the board, with the ADC16DV160 between these areas, is required to

achieve the specified performance.

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Even though LVDS outputs reduce ground bounce, the positive and negative signal path have to be well

matched, and their traces should be kept as short as possible. It is recommend to place an LVDS repeater

between the ADC16DV160 and digital data receiver block to prevent coupling noise from the receiving block

when the length of the traces are long or the noise level of the receiving block is high.

Capacitive coupling between the typically noisy digital circuitry and the sensitive analog circuitry can lead to poor

performance. The solution is to keep the analog circuitry separated from the digital circuitry, and to keep the

clock line as short as possible.

Since digital switching transients are composed largely of high frequency components, total ground plane copper

weight will have little effect upon the logic-generated noise. Because of the skin effect, the total surface area is

more important than its thickness.

Generally, analog and digital lines should not cross. However whenever it is inevitable, make sure that these

lines are crossing each other at 90° to minimize cross talk. Digital output and output clock signals must be

separated from analog input, references and clock signals unconditionally to ensure the maximum performance

from the ADC16DV160. Any coupling may result in degraded SNR and SFDR performance especially for high IF

applications.

Be especially careful with the layout of inductors and transformers. Mutual inductance can change the

characteristics of the circuit in which they are used. Inductors and transformers should not be placed side by

side, even with just a small part of their bodies beside each other. For instance, place transformers for the analog

input and the clock input at 90° to one another to avoid magnetic coupling. It is recommended to place the

transformers of the input signal path on the top side, and the transformer for the clock signal path on the bottom

side. Every critical analog signal path like analog inputs and clock inputs must be treated as a transmission line

and should have a solid ground return path with a small loop area.

The analog input should be isolated from noisy signal traces to avoid coupling of spurious signals into the input.

Any external component (e.g., a filter capacitor) connected between the converter’s input pins and ground or to

the reference pins and ground should be connected to a very clean point in the ground plane.

All analog circuitry (input amplifiers, filters, reference components, etc.) should be placed in the analog area of

the board. All digital circuitry and dynamic I/O lines should be placed in the digital area of the board. The

ADC16DV160 should be between these two areas. Furthermore, all components in the reference circuitry and

the input signal chain that are connected to ground should be connected together with short traces and enter the

ground plane at a single, quiet point. All ground connections should have a low inductance path to ground.

The ground return current path can be well managed when the supply current path is precisely controlled and the

ground layer is continuous and placed next to the supply layer. This is because of the proximity effect. A ground

return current path with a large loop area will cause electro-magnetic coupling and results in poor noise

performance. Note that even if there is a large plane for a current path, the high-frequency return current path is

not spread evenly over the large plane, but only takes the path with lowest impedance. Instead of a large plane,

using a thick trace for supplies makes it easy to control the return current path. It is recommended to place the

supply next to the GND layer with a thin dielectric for a smaller ground return loop. Proper location and size of

decoupling capacitors provides a short and clean return current path.

SUPPLIES AND THEIR SEQUENCE

There are three supplies for the ADC16DV160: one 3.0V supply VA3.0 and two 1.8V supplies VA1.8 and VDR. It is

recommended to separate VDR from VA1.8 supplies, any coupling from VDR to the rest of the supplies and analog

signals could cause lower SFDR and noise performance. When VA1.8 and VDR are both from the same supply

source, coupling noise can be mitigated by adding a ferrite-bead on the VDR supply path.

Different decoupling capacitors can be used to provide current over wide frequency range. The decoupling

capacitors should be located close to the point of entry and close to the supply pins with minimal trace length. A

single ground plane is recommended because separating ground under the ADC16DV160 could cause an

unexpected long return current path.

The VA3.0 supply must turn on before VA1.8 and/or VDR reaches a diode turn-on voltage level. If this supply

sequence is reversed, an excessive amount of current will flow through the VA3.0 supply. The ramp rate of the

VA3.0 supply must be kept less than 60 V/mS (i.e., 60 μS for 3.0V supply) in order to prevent excessive surge

current through ESD protection devices.

Product Folder Links: ADC16DV160

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16

COMMAND FIELD DATA FIELD

C7 C6 C5 C4 C3 C2 C1 C0 D7 D6 D5 D4 D3 D2 D1 D0

1 0 A5 A4 A3 A2 A1 A0 Read DATA (read out of part)

Reserved (1 bit)

Read/Write Address (6 bits)

SCLK

CSB

SDIO

SPI Master Drives SDIO ADC (SPI Slave) Drives SDIO

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16

COMMAND FIELD DATA FIELD

C7 C6 C5 C4 C3 C2 C1 C0 D7 D6 D5 D4 D3 D2 D1 D0

0 0 A5 A4 A3 A2 A1 A0 Write DATA (written into part)

Reserved (1 bit)

Read/Write Address (6 bits)

SCLK

CSB

SDIO

SPI Master drives SDIO

ADC16DV160

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SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

SERIAL CONTROL INTERFACE

The ADC16DV160 has a serial control interface that allows access to the control registers. The serial interface is

a generic 3-wire synchronous interface that is compatible with SPI-type interfaces that are used on many

microcontrollers and DSP controllers. Each serial interface access cycle is exactly 16 bits long. A register-read or

Figure 38 show the access protocol used by this interface. Each signal’s function is described below. The SPI

must be in a static condition during the normal operation of the ADC16DV160, otherwise the performance of the

ADC16DV160 may degrade due to the coupling noise generated by the SPI control signals. When a SPI bus is

used for multiple devices on the board, it is recommended to reduce the potential for noise coupling by placing

logic buffers between the SPI bus and the ADC16DV160.

Figure 37. Serial Interface Protocol (Write Operation)

Figure 38. Serial Interface Protocol (Read Operation)

Signal Descriptions

SCLK: Used to register the input date (SDI) on the rising edge; and to source the output data (SDO) on the

falling edge. User may disable clock and hold it in the low-state, as long as clock pulse width min. spec is

not violated when clock is enabled or disabled.

CSB: Chip Select Bar. Each assertion starts a new register access – i.e., the SDATA field protocol is required.

CSB should be de-asserted after the 16th clock. If the CSB is de-asserted before the 16th clock, no

address or data write will occur. The rising edge captures the address just shifted-in and, in the case of a

write operation, writes the addressed register.

SDIO: Serial Data. Must observe setup/hold requirements with respect to the SCLK. Each cycle is 16-bit long.

• R/W: A value of ‘1’ indicates a read operation, while a value of ‘0’ indicates a write operation

• Reserved: Reserved for future use. Must be set to 0.

• ADDR: Up to 64 registers can be addressed.

• DATA: In a write operation the value in this field will be written to the register addressed in this cycle when

CSB is de-asserted. In a read operation this field is ignored.

FIXED PATTERN MODE

The ADC16DV160 provides user defined fixed patterns at digital output pins to check timing and connectivity with

the receiving device on the board. The fixed pattern map is shown in Figure 39; there are 6 hard-wired fixed

patterns (PATTERN (000) to PATTERN (101)) and 2 user-defined patterns (PATTERN (110) and PATTERN

(111)). PATTERN (110) and PATTERN (111) can be written via SPI and all ‘0’s are the default values for both.

See Register Map address 0CH through 0FH for the details.

Product Folder Links: ADC16DV160

ADCOUT

OUTCLK

FF 00 FF 00

SEQ0

SEQ1

SEQ2

SEQ3

SEQ4

SEQ5

SEQ6

SEQ7

0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0

1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1

1 0 1 0 1 0 1 0 1 0 1 0 1 0 1 0

1 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0

1 1 1 1 1 1 1 1 0 0 0 0 0 0 0 0

0 0 0 0 0 0 0 0 1 1 1 1 1 1 1 1

X X X X X X X X X X X X X X X X

Y Y Y Y Y Y Y Y Y Y Y Y Y Y Y Y

000

100

010

110

001

101

011

111

PATTERN 16-bit DATA

ADC16DV160

SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

www.ti.com

Figure 39. Fixed Pattern Map

For flexibility, the user can determine a fixed pattern with a depth of 8 patterns as shown in Figure 40. The user

can fill these 8 sequences (SEQ0 – SEQ7) with an arbitrary pattern (PATTERN (000) – PATTERN (111)). See

SEQ7 sequences is 010, which generates alternating 0xFF and 0x00 at the ADC output as shown in Figure 41.

Note that since the ADC outputs odd bits on the falling edge of the OUTCLK and even bits on the rising edge,

the resulting 16-bit output codes are 0xAAAA.

Figure 40. State Machine Generating Fixed Pattern Sequence

Figure 41. Fixed Pattern at ADC Output with Default SPI Register Values

SAMPLING EDGE

The internal clock divider features allows more flexible design from the perspective of the system clocking

scheme. The ADC16DV160 supports divide by 1 or 2 clocking. This feature may cause a potential issue when

synchronizing the sample edge of multiple ADCs when the internal clock is divided by 2 from the input clock

(CLKIN). The ADC16DV160 samples the analog input signal at the falling edge of the input clock, which will be

the falling edge of the internally divided by 2 clock when divide by 2 is configured as shown as dashed lines in

Figure 42 below. If there is some timing skew of the SPI control signals and/or input clock between multiple

ADCs with this clocking configuration, the sampling edge of some ADC, which is ADC SLAVE I for this example,

could be out of phase compared to the ADC MASTER as shown in Figure 42. The sampling edge of the non-

synchronized ADC can be synchronized if the internal clock can be inverted through some control bit. This

sampling edge flipping function is provided by the ADC16DV160 via SPI. See the SPI Register Map below for the

details.

Product Folder Links: ADC16DV160

CLKIN

ADC MASTER

ADC SLAVE I

ADC SLAVE II

ADC16DV160

www.ti.com

SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

Figure 42. Sampling Edge of Multiple ADCs with

Internal Division On

NOTE

Accessing unspecified addresses may cause functional failure or damage. All reserved

bits must be written with the listed default values.

Operation Mode Addr: 00h R/W

7 6 5 4 3 2 1 0

DF Operation Mode Reserved Full Scale Default

Bit 7 Data Format 1 Two's Complement

0 Offset Binary (Default)

Bits (6:5) Operation Mode

0 0 Normal Operation (Default)

0 1 Sleep Mode. Device is powered down, but it can wake up quickly.

1 0 Power down mode. Device is powered down at lowest power dissipation.

1 1 Fixed pattern mode. Device outputs fixed patterns to check connectivity with interfacing

components.

Bit 4 Reserved. Must be set to 0.

Bit 3 Reserved. Must be set to 0.

Bit 2 Reserved. Must be set to 1.

Bit 1 Full scale. Full scale can be adjusted from 2.0 to 2.4VPP.

0 2.0VPP

1 2.4VPP (default)

Bit 0 Restore Default Register Values. Default values of SPI registers can be restored at the rising edge of this bit.

1 Restore default register values

0 As is (default)

Synchronization Mode Addr: 01h R/W

7 6 5 4 3 2 1 0

Sample Clock Divider Reserved Output Clock Phase Reserved Reserved

Phase

Bit 7 Sampling Clock Phase. This is for synchronizing sampling edge for multiple devices while the ADC16DV160 is configured at

clock divide by 2.

0 Keep sampling edge as is (default).

1 Invert internal clock to adjust sampling edge.

Bit 6 Clock divider. Internal operating clock frequency can be programmed either to be divided by 1 or 2.

0 Divide by 1 (default).

Product Folder Links: ADC16DV160

ADC16DV160

SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

www.ti.com

Synchronization Mode Addr: 01h R/W

1 Divide by 2

Bit 5 Reserved. Must be set to 0.

Bits (4:2) Output Clock Phase Adjustment. User can adjust output clock phase from 31° to 143°. Each 1 LSB increment results in

about 16° of output clock phase increase.

0 0 0 31°

0 0 1 47°

0 1 0 63°

0 1 1 79°

1 0 0 95° (default)

1 0 1 111°

1 1 0 127°

1 1 1 143°

Bit 1 Reserved. Must be set to 0.

Bit 0 Reserved. Must be set to 0.

Fixed Pattern Mode: Addr: 08h R/W

SEQ0 and SEQ1

7 6 5 4 3 2 1 0

SEQ1<2> SEQ1<1> SEQ1<0> SEQ0<2> SEQ0<1> SEQ0<0> Reserved Reserved

Bits (7:5) 3 bit pattern code for SEQ1. 010 is the default.

Bits (4:2) 3 bit pattern code for SEQ0. 010 is the default.

Bit 1 Reserved, Must be set to 0.

Bit 0 Reserved, Must be set to 0.

Fixed Pattern Mode: Addr: 09h R/W

SEQ2 and SEQ3

7 6 5 4 3 2 1 0

SEQ3<2> SEQ3<1> SEQ3<0> SEQ2<2> SEQ2<1> SEQ2<0> Reserved Reserved

Bits (7:5) 3 bit pattern code for SEQ3. 010 is the default.

Bits (4:2) 3 bit pattern code for SEQ2. 010 is the default.

Bit 1 Reserved, Must be set to 0.

Bit 0 Reserved, Must be set to 0.

Fixed Pattern Mode: Addr: 0Ah R/W

SEQ4 and SEQ5

7 6 5 4 3 2 1 0

SEQ5<2> SEQ5<1> SEQ5<0> SEQ4<2> SEQ4<1> SEQ4<0> Reserved Reserved

Bits (7:5) 3 bit pattern code for SEQ5. 010 is the default.

Bits (4:2) 3 bit pattern code for SEQ4. 010 is the default.

Bit 1 Reserved, Must be set to 0.

Bit 0 Reserved, Must be set to 0.

Fixed Pattern Mode: Addr: 0Bh R/W

SEQ6 and SEQ7

7 6 5 4 3 2 1 0

SEQ7<2> SEQ7<1> SEQ7<0> SEQ6<2> SEQ6<1> SEQ6<0> Reserved Reserved

Bits (7:5) 3 bit pattern code for SEQ7. 010 is the default.

Bits (4:2) 3 bit pattern code for SEQ6. 010 is the default.

Bit 1 Reserved, Must be set to 0.

Bit 0 Reserved, Must be set to 0.

Product Folder Links: ADC16DV160

ADC16DV160

www.ti.com

SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

Fixed Pattern Mode: Addr: 0Ch R/W

LSB PATTERN <110>

7 6 5 4 3 2 1 0

D<7> D<6> D<5> D<4> D<3> D<2> D<1> D<0>

Bits (7:0) 8 LSBs of a fixed pattern for Sequence >110>

All '0' for default.

Fixed Pattern Mode: Addr: 0Dh R/W

MSB PATTERN <110>

7 6 5 4 3 2 1 0

D<7> D<6> D<5> D<4> D<3> D<2> D<1> D<0>

Bits (7:0) 8 MSBs of a fixed pattern for Sequence >110>

All '0' for default.

Fixed Pattern Mode: Addr: 0Eh R/W

LSB PATTERN <111>

7 6 5 4 3 2 1 0

D<7> D<6> D<5> D<4> D<3> D<2> D<1> D<0>

Bits (7:0) 8 LSBs of a fixed pattern for Sequence >111>

All '0' for default.

Fixed Pattern Mode: Addr: 0Fh R/W

MSB PATTERN <1110>

7 6 5 4 3 2 1 0

D<7> D<6> D<5> D<4> D<3> D<2> D<1> D<0>

Bits (7:0) 8 MSBs of a fixed pattern for Sequence >111>

All '0' for default.

Product Folder Links: ADC16DV160

ADC16DV160

SNAS488H –AUGUST 2009–REVISED FEBRUARY 2013

www.ti.com

REVISION HISTORY

Changes from Revision G (February 2013) to Revision H Page

• Changed layout of National Data Sheet to TI format .......................................................................................................... 29

Product Folder Links: ADC16DV160

PACKAGE OPTION ADDENDUM

www.ti.com 11-Apr-2013

Addendum-Page 1

PACKAGING INFORMATION

Orderable Device Status

(1)

Package Type Package

Drawing Pins Package

Qty Eco Plan

(2)

Lead/Ball Finish MSL Peak Temp

(3)

Op Temp (°C) Top-Side Markings

(4)

Samples

ADC16DV160CILQ/NOPB ACTIVE VQFN NKE 68 168 Green (RoHS

& no Sb/Br) SN Level-4-260C-72 HR ADC16DV160

ADC16DV160CILQE/NOPB ACTIVE VQFN NKE 68 250 Green (RoHS

& no Sb/Br) SN Level-4-260C-72 HR -40 to 85 ADC16DV160

ADC16DV160CILQX/NOPB ACTIVE VQFN NKE 68 2000 Green (RoHS

& no Sb/Br) SN Level-4-260C-72 HR ADC16DV160

(1) The marketing status values are defined as follows:

ACTIVE: Product device recommended for new designs.

LIFEBUY: TI has announced that the device will be discontinued, and a lifetime-buy period is in effect.

NRND: Not recommended for new designs. Device is in production to support existing customers, but TI does not recommend using this part in a new design.

PREVIEW: Device has been announced but is not in production. Samples may or may not be available.

OBSOLETE: TI has discontinued the production of the device.

(2) Eco Plan - The planned eco-friendly classification: Pb-Free (RoHS), Pb-Free (RoHS Exempt), or Green (RoHS & no Sb/Br) - please check http://www.ti.com/productcontent for the latest availability

information and additional product content details.

TBD: The Pb-Free/Green conversion plan has not been defined.

Pb-Free (RoHS): TI's terms "Lead-Free" or "Pb-Free" mean semiconductor products that are compatible with the current RoHS requirements for all 6 substances, including the requirement that

lead not exceed 0.1% by weight in homogeneous materials. Where designed to be soldered at high temperatures, TI Pb-Free products are suitable for use in specified lead-free processes.

Pb-Free (RoHS Exempt): This component has a RoHS exemption for either 1) lead-based flip-chip solder bumps used between the die and package, or 2) lead-based die adhesive used between

the die and leadframe. The component is otherwise considered Pb-Free (RoHS compatible) as defined above.

Green (RoHS & no Sb/Br): TI defines "Green" to mean Pb-Free (RoHS compatible), and free of Bromine (Br) and Antimony (Sb) based flame retardants (Br or Sb do not exceed 0.1% by weight

in homogeneous material)

(3) MSL, Peak Temp. -- The Moisture Sensitivity Level rating according to the JEDEC industry standard classifications, and peak solder temperature.

(4) Multiple Top-Side Markings will be inside parentheses. Only one Top-Side Marking contained in parentheses and separated by a "~" will appear on a device. If a line is indented then it is a

continuation of the previous line and the two combined represent the entire Top-Side Marking for that device.

Important Information and Disclaimer:The information provided on this page represents TI's knowledge and belief as of the date that it is provided. TI bases its knowledge and belief on information

provided by third parties, and makes no representation or warranty as to the accuracy of such information. Efforts are underway to better integrate information from third parties. TI has taken and

continues to take reasonable steps to provide representative and accurate information but may not have conducted destructive testing or chemical analysis on incoming materials and chemicals.

TI and TI suppliers consider certain information to be proprietary, and thus CAS numbers and other limited information may not be available for release.

In no event shall TI's liability arising out of such information exceed the total purchase price of the TI part(s) at issue in this document sold by TI to Customer on an annual basis.

TAPE AND REEL INFORMATION

*All dimensions are nominal

Device Package

Type Package

Drawing Pins SPQ Reel

Diameter

(mm)

Reel

Width

W1 (mm)

(mm) B0

(mm) K0

(mm) P1

(mm) W

(mm) Pin1

Quadrant

ADC16DV160CILQE/NOP

BVQFN NKE 68 250 178.0 24.4 10.3 10.3 1.1 16.0 24.0 Q1

ADC16DV160CILQX/NOP

BVQFN NKE 68 2000 330.0 24.4 10.3 10.3 1.1 16.0 24.0 Q1

PACKAGE MATERIALS INFORMATION

www.ti.com 26-Mar-2013

Pack Materials-Page 1

*All dimensions are nominal

Device Package Type Package Drawing Pins SPQ Length (mm) Width (mm) Height (mm)

ADC16DV160CILQE/NOP

BVQFN NKE 68 250 213.0 191.0 55.0

ADC16DV160CILQX/NOP

BVQFN NKE 68 2000 367.0 367.0 45.0

PACKAGE MATERIALS INFORMATION

www.ti.com 26-Mar-2013

Pack Materials-Page 2

MECHANICAL DATA

NKE0068A

www.ti.com

LQA68A (Rev B)

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