ADUCRF101CCPZ128 [ADI]

IC RISC MICROCONTROLLER, Microcontroller;
ADUCRF101CCPZ128
型号: ADUCRF101CCPZ128
厂家: ADI    ADI
描述:

IC RISC MICROCONTROLLER, Microcontroller

微控制器 外围集成电路
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Precision Analog Microcontroller with RF  
Transceiver, ARM Cortex™-M3  
ADuCRF101  
Preliminary Technical Data  
FEATURES  
External Watch crystal for wakeup timer  
16 MHz internal Oscillator with 8-way Programmable  
Divider  
Analog I/O  
6-Channel 14-bit or 12-bit ADC  
Single ended and differential inputs  
Programmable data rate up to 842 kSPS  
On-Chip Voltage Reference and Temperature Sensor  
Power  
Memory  
128 k Bytes /64 k Bytes Flash/EE Memory, 16 k Bytes /8 k  
Bytes SRAM  
20000 cycle Flash/EE endurance  
10 year Flash/EE retention  
In-circuit download via Serial Wire and UART  
On-Chip Peripherals  
UART, I2C and SPI Serial I/O  
28-Pin GPIO Port  
2 General Purpose Timers  
Wake-up Timer  
Watchdog Timer  
Supply Range: 2.2 V to 3.6 V  
Power Consumption  
680 nA, in power down mode, non-retained state  
1.6 µA, in power down mode, processor memory and  
transceiver memory retained  
190 µA / MHz, Cortex in Active mode  
12.8 mA transceiver in receive mode, Cortex in power  
down mode  
8-Channel PWM  
9 mA to 32 mA transceiver in transmit mode, Cortex in  
power down mode  
RF Transceiver  
Frequency bands  
862 MHz to 928 MHz  
Packages and Temperature Range  
64 lead LFCSP (9mm x 9mm) package –40°C to 85°C  
Tools  
Low-Cost Development System  
Third-Party Compiler and emulator tool Support  
431 MHz to 464 MHz  
Multiple Configurations supported  
Receiver sensitivity (BER)  
-107.5 dBm at 38.4 kbps, 2FSK  
Single ended and differential PA  
Low External BOM  
Microcontroller  
ARM Cortex™-M3 32-bit processor  
Serial Wire download and debug  
APPLICATIONS  
Battery powered wireless sensor  
Medical telemetry systems  
Industrial and home automation  
Asset tracking  
Security systems (access systems)  
Health and fitness applications  
FUNCTIONAL BLOCK DIAGRAM  
COMMUNICATIONS  
6 I/P  
MUX  
12/14-BIT  
SAR ADC  
LOW POWER  
RF TRANSCEIVER  
WIRELESS  
TEMP  
SENSOR  
SERIAL  
WIRE  
GPIOS  
SPI  
I2C  
UART  
PWM  
WIRED  
BAND GAP  
REFERENCE  
LOW POWER PROCESSING  
PRECISION DATA  
ACQUISITION  
POR  
OSC  
CORTEX M3  
Processor  
64/128K BYTES  
FLASH/EE  
8/16K BYTES  
SRAM  
WATCHDOG  
TIMER  
2xGEN PURPOSE  
TIMERS  
INTERRUPT  
CONTROLLER  
WAKE-UP  
TIMER  
ADuCRF101  
ON-CHIP PERIPHERALS  
Figure 1. ADuCF101 Block Diagram  
Rev. PrG  
Information furnished by Analog Devices is believed to be accurate and reliable.  
However, no responsibility is assumed by Analog Devices for its use, nor for any  
infringements of patents or other rights of third parties that may result from its use.  
Specifications subject to change without notice. No license is granted by implication  
or otherwise under any patent or patent rights of Analog Devices. Trademarks and  
registered trademarks are the property of their respective companies.  
One Technology Way, P.O. Box 9106, Norwood, MA 02062-9106, U.S.A.  
Tel: 781.329.4700  
www.analog.com  
© 2012 Analog Devices, Inc. All rights reserved.  
Fax: 781.326.8703  
 
 
ADuCRF101  
Preliminary Technical Data  
TABLE OF CONTENTS  
Features .............................................................................................. 1  
ESD Caution...................................................................................9  
Pin Configuration and Function Descriptions........................... 10  
Outline Dimensions....................................................................... 13  
Ordering Guide .......................................................................... 13  
Functional block diagram................................................................ 1  
General Description ......................................................................... 3  
Specifications..................................................................................... 4  
Absolute Maximum Ratings............................................................ 9  
Rev. PrG | Page 2 of 13  
Preliminary Technical Data  
GENERAL DESCRIPTION  
ADuCRF101  
A 16 MHz on-chip oscillator generates the system clock. This  
clock can be internally divided for the processor to operate at  
lower frequency for power saving reasons. A low power internal  
32 kHz oscillator is available and can used to clock the timers.  
There are two general-purpose timers, a wake-up timer and a  
system watchdog timer.  
The ADuCRF101 is a fully integrated data acquisition solution  
designed for low power wireless applications. It features a 12-bit  
or 14-bit ADC, a low power Cortex™-M3 processor from ARM®,  
a 431 MHz to 464 MHz and 862 MHz to 928 MHz RF  
transceiver, and Flash/EE memory packaged in a 9 mm × 9 mm  
LFCSP.  
A range of communication peripherals can be configured as  
required in a specific application. These peripherals include  
UART, I2C, SPI, GPIO ports, PWM and RF transceiver.  
The acquisition section consists of a 12-bit / 14-bit ADC SAR  
ADC. The six inputs can be configured as single ended or  
differential modes. When configured in single ended mode,  
they can be used for ratiometric measurements on sensors,  
powered when required from the internal LDO. An internal  
battery monitor channel and an on-chip temperature sensor are  
also available.  
The RF transceiver communicates in the 431 MHz to 464 MHz  
and 862 MHz to 928 MHz frequency bands using multiple  
configurations.  
On-chip factory firmware supports in-circuit serial download  
via the UART while nonintrusive emulation and program  
download is also supported via the serial wire interface. These  
features are incorporated into a low cost development system  
supporting this precision analog microcontroller family.  
This wireless data acquisition system is designed to operate in  
battery-powered applications where low power is critical. The  
device can be configured in normal operating mode or different  
low power modes under direct program control. In flexi mode  
any peripheral can operate and wake-up the device. In  
hibernate mode the internal wake-up timer remains active. In  
shutdown mode only an external interrupt can wake-up the  
device.  
The parts operate from 2.2 V to 3.6 V and are specified over an  
industrial temperature range of −40°C to +85°C.  
Three versions of the ADuCRF101 are available:  
14-bit ADC, 128 k Byte Flash and 16 k Byte SRAM  
12-bit ADC, 128 k Byte Flash and 16 k Byte SRAM  
12-bit ADC, 64 k Byte Flash and 8 k Byte SRAM  
The ADuCRF101 integrates a low power Cortex-M3 processor  
from ARM. It is a 32-bit RISC machine, offering up to 1.25  
DMIPS peak performance. The Cortex-M3 processor also has a  
flexible 14-channel DMA controller supporting communication  
peripherals SPI, UART and I2C. 64 kB / 128 kB of nonvolatile  
Flash/EE memory and 8 kB / 16 kB of SRAM are also provided  
on-chip.  
Rev. PrG| Page 3 of 13  
 
ADuCRF101  
Preliminary Technical Data  
SPECIFICATIONS  
ELECTRICAL SPECIFICATIONS  
AVDD = IOVDD = VDDBAT1 = VDDBAT2 = 2.2 V to 3.6 V, VREF = 1.25 V internal reference, fCORE = 16 MHz, TA = −40°C to +85°C  
unless otherwise noted. Default ADC sampling frequency: eight acquisition clocks and ADC clock frequency of 4 MHz.  
Table 1. 12 Bit ADC channel specification  
Parameter  
Test Conditions / Comments  
Min  
Typ  
Max  
Unit  
DC ACCURACY  
Single ended input mode. Applies to all  
ADC input channels.  
Resolution  
Integral Nonlinearity  
12  
1
2
Bits  
LSB  
LSB  
LSB  
LSB  
VREF = 1.25 V from internal reference  
VREF = 1.8 V from LDO  
Guaranteed no missing code  
ADC input is a DC voltage  
Differential Nonlinearity  
DC Code Distribution  
1
2
CALIBRATED ENDPOINT ERRORS  
Measured using the factory-set default  
values ADCOF and ADCGN.  
Offset Error  
Offset Error Match  
Gain Error  
0.6  
0.25  
1.25  
0.25  
LSB  
LSB  
LSB  
LSB  
Gain Error Match  
DYNAMIC PERFORMANCE  
Signal-to-Noise Ratio (SNR)  
Total Harmonic Distortion  
Peak Harmonic or Spurious Noise  
(PHSN)  
fIN = 10 kHz sine wave.  
68  
TBD  
TBD  
dB  
Channel-to-Channel Crosstalk  
Measured on adjacent channels  
TBD  
Table 2. 14 Bit ADC channel specification  
Parameter  
Test Conditions/Comments  
Min  
Typ  
Max  
Unit  
ADC SPECIFICATIONS  
DC ACCURACY  
Single ended input mode. Applies to all  
ADC input channels.  
Resolution  
Integral Nonlinearity  
14  
4
8
Bits  
LSB  
LSB  
LSB  
LSB  
VREF = 1.25 V from internal reference  
VREF = 1.8 V from LDO  
Guaranteed no missing code  
ADC input is a DC voltage  
Differential Nonlinearity  
DC Code Distribution  
1
8
CALIBRATED ENDPOINT ERRORS  
Measured using the factory-set default  
values ADCOF and ADCGN.  
Offset Error  
Offset Error Match  
Gain Error  
2.5  
1
5
LSB  
LSB  
LSB  
LSB  
Gain Error Match  
1
DYNAMIC PERFORMANCE  
Signal-to-Noise Ratio (SNR)  
Total Harmonic Distortion  
Peak Harmonic or Spurious Noise  
(PHSN)  
fIN = 10 kHz sine wave.  
80  
TBD  
TBD  
dB  
Channel-to-Channel Crosstalk  
Measured on adjacent channels  
Rev. PrG | Page 4 of 13  
TBD  
 
Preliminary Technical Data  
ADuCRF101  
Table 3. ADuCRF101 Specification  
Parameter  
Test Conditions/Comments  
Min  
Typ  
Max  
Unit  
ADC SPECIFICATIONS  
ANALOG INPUT  
Input Voltage Ranges1  
Single ended input  
Differential input  
0
0
VREF  
VCM VREF/2  
V
V
Leakage Current  
100  
20  
5
nA  
pF  
µs  
Input Capacitance  
ADC Power-up Time  
ON-CHIP VOLTAGE REFERENCE  
Output Voltage  
During ADC Acquisition  
Excludes reference power up time  
1.25  
5
V
mV  
Accuracy  
Measured at TA = 25°C  
Reference Temperature Co  
Power Supply Rejection Ratio  
Output Impedance  
Internal VREF Power-On Time  
TEMPERATURE SENSOR1  
Voltage Output at 25°C  
Voltage TC  
Accuracy  
Thermal impedance  
CURRENT CONSUMPTION  
40  
60  
2
ppm/°C  
dB  
ms  
0.47µF external capacitor  
Indicates die temperature  
5
TBD  
TBD  
TBD  
TBD  
mV  
mV/°C  
°C  
MCU in low power mode  
RF transceiver in sleep mode, memory  
not retained  
Cortex in SHUTDOWN mode  
Wake up timer running from external  
32 kHz crystal, 8 kB of SRAM retained  
(8 kB non-retained)  
680  
nA  
Cortex in HIBERNATE mode  
RF transceiver in sleep mode,  
memory retained  
RF transceiver in sleep mode,  
memory not retained  
1.6  
µA  
µA  
1.38  
RF transceiver in receive mode  
RF transceiver in transmit mode  
Cortex in ACTIVE mode  
12.8  
9 to 32  
mA  
mA  
RF transceiver idle (PHY_ON or  
PHY_OFF)  
Static current  
Dynamic current  
STARTUP TIME1  
1.8  
190  
mA  
µA/MHz  
From applying power/asserting active  
external interrupt to user code  
execution  
From Power On and SHUTDOWN  
mode  
From FLEXI mode  
FCLK is the Cortex-M3 clock or divided  
version of the 16 MHz oscillator.  
From wake up event to user code  
execution  
Includes 310 µs for 26 MHz crystal start  
up (7 pF load capacitor at TA = 25 ⁰C)  
50  
ms  
FCLK  
µs  
3 to 5  
12.5  
562.8  
From HIBERNATE mode  
RF link waking up from sleep mode  
POWER SUPPLY REQUIREMENTS  
Power Supply Voltage Range1  
POWER SUPPLY MONITOR  
Trip Point voltage  
µs  
2.2  
3.6  
V
2
V
V
POWER-ON-RESET  
1.67  
Watchdog Timer1  
Timeout Period  
Programmable  
0
512  
S
Rev. PrG| Page 5 of 13  
 
ADuCRF101  
Preliminary Technical Data  
Parameter  
Test Conditions/Comments  
Min  
Typ  
Max  
Unit  
Flash/EE MEMORY 1  
Endurance2  
Data Retention3  
20,000  
10  
Cycles  
Years  
TJ = 85°C  
Digital Inputs  
All digital inputs, excluding LFXTAL1  
and XOSC26P  
Input Current (leakage current)  
VINH = IOVDD or VINH = 2.2V, pull up  
disabled.  
10  
10  
nA  
pF  
V
INL = 0V, pull up disabled.  
Input Capacitance  
Logic Inputs  
All Logic inputs, including LFXTAL1,  
excluding XOSC26P  
VINL, Input Low Voltage  
VINH, Input High Voltage  
Logic Outputs  
VOH, Output High Voltage  
VOL, Output Low Voltage  
32.768 kHz CRYSTAL  
0.2 x IOVDD  
0.36  
V
V
0.7 x IOVDD  
IOVDD – 0.4  
Isource = 1 mA  
Isink = 1 mA  
V
V
32.768 kHz crystal, for use with timers  
and/or RF transceiver wake up  
controller.  
Input Current (leakage current)  
VINH = IOVDD or VINH = 2.2 V  
50  
nA  
V
INL = 0 V.  
LFXTAL1 Input Capacitance  
LFXTAL2 Output Capacitance  
26 MHz CRYSTAL  
2
2
pF  
pF  
XOSC26P Input Capacitance  
XOSC26N Output Capacitance  
INTERNAL HF OSCILLATOR  
Tolerance  
10  
10  
pF  
pF  
Processor clock by default  
16  
3
MHz  
%
INTERNAL LF OSCILLATOR  
Tolerance  
32.768  
20  
kHz  
%
MCU CLOCK DIVIDER1  
EXTERNAL CLOCK INPUT1  
Range  
8 programmable core clock dividers.  
External MCU clock range allowed  
1
128  
32.768  
16000  
kHz  
RF LINK SPECIFICATIONS  
FREQUENCY RANGE  
862  
431  
928  
464  
MHz  
MHz  
PHASE-LOCKED LOOP  
Channel Frequency Resolution  
Phase Noise (In-Band)  
396.7  
-88  
Hz  
dBc/Hz  
10 kHz offset, PA output power = 10  
dBm  
DATA RATE  
2FSK  
OOK  
1
2.4  
300  
19.2  
kbps  
kbps  
Manchester Encoding enabled  
(Manchester chip rate = 2 x datarate)  
Data rate resolution  
100  
bps  
DIFFERENTIAL PA  
Transmit Power4  
Transmit Power variation V’s  
Temperature  
Programmable.  
From -40 °C to +85 °C, RF Frequency =  
868 MHz  
-17 to 10  
1
dBm  
dB  
Transmit Power Flatness  
From 902 MHz to 928 MHz and 863  
MHz to 870 MHZ  
1
dB  
SINGLE ENDED PA  
Transmit Power4  
Programmable.  
-21 to 13  
dBm  
Rev. PrG | Page 6 of 13  
 
Preliminary Technical Data  
ADuCRF101  
Parameter  
Test Conditions/Comments  
Min  
Typ  
Max  
Unit  
Transmit Power variation V’s  
Temperature  
From -40°C to +85°C, RF Frequency =  
868 MHz  
0.5  
dB  
Transmit Power Flatness  
From 431 MHz to 464 MHz and 862  
MHz to 928 MHZ  
1
dB  
HARMONICS  
868 MHz, unfiltered conductive, PA  
output power = 10 dBm  
Differential PA  
Second Harmonic  
Third Harmonic  
All Other Harmonics  
OPTIMUM PA LOAD IMPEDANCE  
Single-Ended PA, in Transmit Mode  
fRF = 915 MHz  
TBD  
TBD  
TBD  
dBc  
dBc  
dBc  
31.2+j10.4  
23.5+j9.7  
35.4+j3.4  
fRF = 868 MHz  
fRF = 433 MHz  
Differential PA, in Transmit Mode  
Load impedance between RFIO_1P and  
RFIO_1N to ensure maximum output  
power  
fRF = 915 MHz  
fRF = 868 MHz  
fRF = 433 MHz  
38.7+j20.6  
42.2+j20.1  
55.6+j54.9  
MODULATION  
Deviation Frequency Resolution  
100  
Hz  
2FSK/GFSK INPUT SENSITIVITY, BIT  
ERROR RATE (BER)  
At BER = 10−3  
1.0 kbps  
38.4 kbps  
300 kbps  
Frequency deviation = 10 kHz, IF filter  
bandwidth = 100 kHz  
Frequency deviation = 19.2 kHz, IF filter  
bandwidth = 100 kHz  
Frequency deviation = 75 kHz, IF filter  
bandwidth = 300 kHz  
-116  
dBm  
dBm  
dBm  
-107.5  
-100.5  
2FSK/GFSK INPUT SENSITIVITY, PACKET  
ERROR RATE (PER)  
At PER = 1%, packet length =20 bytes,  
packet mode  
1.0 kbps  
38.4 kbps  
300 kbps  
Frequency deviation = 10 kHz, IF filter  
bandwidth = 100 kHz  
Frequency deviation = 19.2 kHz, IF filter  
bandwidth = 100 kHz  
Frequency deviation = 75 kHz, IF filter  
bandwidth = 300 kHz  
-115.5  
-106  
-98  
dBm  
dBm  
dBm  
ADJACENT CHANNEL REJECTION  
CW Interferer  
Wanted signal 3 dB above the input  
sensitivity level (BER = 10−3), CW  
interferer power level increased until  
BER = 10−3, image calibrated  
200 kHz Channel Spacing  
300 kHz Channel Spacing  
600 kHz Channel Spacing  
Modulated Interferer  
IF BW = 100 kHz, wanted signal: FDEV  
12.5 kHz, DR = 50 kbps  
IF BW = 100 kHz, wanted signal: FDEV  
25 kHz, DR = 100 kbps  
IF BW = 300 kHz, wanted signal: FDEV  
75 kHz, DR = 300 kbps  
=
=
=
38  
39  
41  
dB  
dB  
dB  
Wanted signal 3 dB above the input  
sensitivity level (BER = 10−3), modulated  
interferer with the same modulation as  
the wanted signal; interferer power  
level increased until BER = 10−3, image  
calibrated  
200 kHz Channel Spacing  
IF BW = 100 kHz, wanted signal: FDEV  
=
38  
dB  
Rev. PrG| Page 7 of 13  
ADuCRF101  
Preliminary Technical Data  
Parameter  
Test Conditions/Comments  
12.5 kHz, DR = 50 kbps  
IF BW = 100 kHz, wanted signal: FDEV  
25 kHz, DR = 100 kbps  
IF BW = 300 kHz, wanted signal: FDEV  
75 kHz, DR = 300 kbps  
Desired signal 10 dB above the input  
sensitivity level (BER = 10−3), data rate =  
38.4 kbps, frequency deviation = 20  
kHz.  
Min  
Typ  
36  
35  
-4  
Max  
Unit  
300 kHz Channel Spacing  
600 kHz Channel Spacing  
CO-CHANNEL REJECTION  
=
=
dB  
dB  
dB  
BLOCKING, ETSI EN 300 220  
Measurement procedure as per ETSI EN  
300 220-1 V2.3.1; desired signal 3 dB  
above the ETSI EN 300 220 reference  
sensitivity level of −99 dBm, IF  
bandwidth =100 kHz, data rate = 38.4  
kbps, unmodulated interferer.  
2 MHz  
10 MHz  
-28  
-20.5  
75  
dBm  
dBm  
dB  
WIDEBAND INTERFERENCE REJECTION  
Swept from 10 MHz to 100 MHz either  
side of the RF frequency  
IMAGE CHANNEL ATTENUATION  
Measured as image attenuation at the  
IF filter output, carrier wave interferer at  
400 kHz below the channel frequency,  
100 kHz IF filter bandwidth  
868 MHz  
RSSI  
Uncalibrated5/calibrated  
36/45  
dB  
Range at Input  
−97 to  
−26  
dBm  
Linearity  
2
3
dB  
dB  
Absolute Accuracy  
LNA INPUT IMPEDANCE  
Receive Mode  
fRF = 915 MHz  
fRF = 868 MHz  
fRF = 433 MHz  
68.9-j36.1  
71.6-j36.4  
99.2-j31.3  
Transmit Mode  
fRF = 915 MHz  
fRF = 868 MHz  
8.6+j21.1  
8.6+j20.4  
8.2+j11.4  
fRF = 433 MHz  
RX SPURIOUS EMISSIONS  
Maximum <1 GHz  
Maximum >1 GHz  
At antenna input, unfiltered conductive  
At antenna input, unfiltered conductive  
TBD  
TBD  
dBm  
dBm  
1 These numbers are not production tested, but are guaranteed by design and/or characterization data at production release.  
2 Endurance is qualified to 20,000 cycles as per JEDEC Std. 22 Method A117 and measured at −40°C, +25°C, and +85°C. Typical endurance at 25°C is 170,000 cycles.  
3 Retention lifetime equivalent at a junction temperature (TJ) of 85°C as per JEDEC Std. 22 Method A117. Retention lifetime derates with junction temperature.  
4 Measured as the maximum unmodulated power.  
5 Measured with IMAGE_REJECT_CAL_AMPLITUDE = 0x7 and IMAGE_REJECT_CAL_PHASE = 0x16.  
Rev. PrG | Page 8 of 13  
Preliminary Technical Data  
ADuCRF101  
ABSOLUTE MAXIMUM RATINGS  
TA = 25°C unless otherwise noted  
ESD CAUTION  
Table 4.  
Parameter  
Rating  
AVDD, IOVDD, VDDBAT1 and  
VDDBAT2 to GND  
−0.3 V to 3.96 V  
Digital Input Voltage to GND  
Digital Output Voltage to GND  
VREF to GROUND  
−0.3 V to 3.96 V  
−0.3 V to 3.96 V  
−0.3 V to 3.96 V  
−0.3 V to 2.1 V  
–40°C to +85°C  
–65°C to +150°C  
105°C  
Analog Inputs to GND  
Operating Temperature Range  
Storage Temperature Range  
Junction Temperature  
The exposed paddle of the LFCSP package should be connected  
to ground.  
Stresses above those listed under Absolute Maximum Ratings  
may cause permanent damage to the device. This is a stress  
rating only; functional operation of the device at these or any  
other conditions above those indicated in the operational  
section of this specification is not implied. Exposure to absolute  
maximum rating conditions for extended periods may affect  
device reliability.  
θJA Thermal Impedance  
64-Pin LFCSP _VQ  
ESD (Human Body Model)  
Peak Solder Reflow Temperature  
Pb-Free Assemblies (30 s)  
25°C/W  
1.5 kV  
260°C  
Rev. PrG| Page 9 of 13  
 
 
 
ADuCRF101  
Preliminary Technical Data  
PIN CONFIGURATION AND FUNCTION DESCRIPTIONS  
PIN 1  
IDENTIFIER  
VDDRF1  
RBIAS  
1
2
3
48 P4.0  
47 RESET  
46 P0.6  
45 P0.7  
VDDRF2  
RFIO_1P  
RFIO_1N  
RF02  
4
5
6
7
8
44  
IOVDD  
43 P0.0  
42 P0.1  
41 P0.2  
40 P2.4  
39 P0.3  
38 P2.6  
37 P0.4  
36 P0.5  
VDDBAT2  
ADuCRF101  
TOP VIEW  
(Not to Scale)  
AVDD  
VREF  
9
ADC0 10  
ADC1 11  
ADC2 12  
ADC3 13  
ADC4 14  
ADC5 15  
35 P1.0  
34 P1.1  
LVDD1  
16  
P1.2  
33  
Figure 8. 64-Lead LFCSP_VQ Pin Configuration  
Table 5. Pin Function Descriptions  
Pin  
No.  
Mnemonic  
Description  
1
VDDRF1  
Voltage Regulator output for RF block. A 220 nF capacitor should be placed between this pin and ground for  
regulator stability and noise rejection.  
2
3
RBIAS  
VDDRF2  
External bias resistor. A 36 kΩ resistor with 2% tolerance should be used.  
Voltage Regulator output for RF block. A 220 nF capacitor should be placed between this pin and ground for  
regulator stability and noise rejection.  
4
5
6
RFIO_1P  
RFIO_1N  
RF02  
LNA Positive Input in Receive Mode. Differential PA Positive Output in Transmit Mode.  
LNA Negative Input in Receive Mode. Differential PA Negative Output in Transmit Mode.  
Single ended PA output.  
7
8
9
10  
11  
12  
13  
14  
15  
16  
VDDBAT2 6  
AVDD6  
VREF  
ADC0  
ADC1  
ADC2  
ADC3  
ADC4  
ADC5  
Battery Terminal, supply for the LDOs used in the RF section of the transceiver.  
Battery terminal, Supply for analog circuits such as ADC and ADC internal reference, POR, PSM and LDOs.  
Internal 1.25 V ADC reference. A 0.47 µF capacitor between this pin and ground is required.  
ADC input channel 0. Input of DIFF0 pair in differential mode.  
ADC input channel 1. Input of DIFF0 pair in differential mode.  
ADC input channel 2. Input of DIFF1 pair in differential mode.  
ADC input channel 3. Input of DIFF1 pair in differential mode.  
ADC input channel 4. Input of DIFF2 pair in differential mode.  
ADC input channel 5. Input of DIFF2 pair in differential mode.  
On chip LDO decoupling output. Connect a 0.47 µF capacitor to the 1.8V output to ensure core operating  
LVDD1  
voltage is stable. For correct operation a 1 µF capacitor needs to be connected between this pin and LVDD2 (pin  
18).  
17  
18  
VDDVCO  
LVDD2  
Voltage Regulator output for VCO. A 220 nF capacitor should be placed between this pin and ground for  
regulator stability and noise rejection.  
On chip LDO decoupling output. Connect a 0.47 µF capacitor to the 1.32V output to ensure core operating  
voltage is stable. For correct operation a 1 µF capacitor needs to be connected between this pin and LVDD1 (pin  
16).  
19  
SWDIO  
Serial Wire bi-directional data  
Rev. PrG | Page 10 of 13  
 
 
 
 
 
Pin  
No.  
Mnemonic  
Description  
20  
21  
22  
23  
24  
GND  
Ground pin, should be connected to the PADDLE.  
Battery terminal, General Purpose IO supply.  
Serial Wire debug clock  
Guard, screen for VCO, should be connected to VDDVCO.  
Voltage Regulator output for Synthesizer. A 220 nF capacitor should be placed between this pin and ground for  
regulator stability and noise rejection.  
IOVDD6  
SWCLK  
VCOGUARD  
VDDSYNTH  
25  
26  
27  
28  
29  
CWAKE  
External capacitor for wake up control. A 150 nF capacitor should be placed between this pin and ground.  
The 26MHz reference crystal should be connected between this pin and XOSC26N. (HFXTAL)  
The 26MHz reference crystal should be connected between this pin and XOSC26P. (HFXTAL)  
Internal Guard, Screen for Digital Cells, should be connected to VDD_DIG1.  
Voltage Regulator output for Digital. A 220 nF capacitor should be placed between this pin and ground for  
regulator stability and noise rejection.  
XOSC26P  
XOSC26N  
DGUARD  
VDD_DIG 1  
30  
31  
P1.5/IRQ6/I2CSD General Purpose Input and Output Port 1.5/External Interrupt 6/I2C Serial Data/PWM channel 7.  
A/PWM7  
P1.4/IRQ5/I2CSC  
L/PWM6  
General Purpose Input and Output Port 1.4/External Interrupt 5/I2C Serial Clock/PWM channel 6.  
32  
33  
34  
P1.3/PWM5  
P1.2/PWM4  
P1.1/PORB/ TXD  
/PWM3  
General Purpose Input and Output Port 1.3/PWM channel 5.  
General Purpose Input and Output Port 1.2/PWM channel 4.  
General Purpose Input and Output Port 1.1/POR output/ UART TXD/ PWM channel 3.  
35  
36  
37  
38  
39  
P1.0/RXD/IRQ4/  
MOSI /PWM2  
General Purpose Input and Output Port 1.0/UART RXD/ External Interrupt 4/ SPI1 Master Out Slave In Pin  
(MOSI)/PWM channel 2.  
General Purpose Input and Output Port 0.5/SPI1 Chip Select 2/External Clock Input  
CS2  
P0.5/  
/ECLKIN  
CS1  
General Purpose Input and Output Port 0.4/SPI1 Chip Select 1/External Clock Output.  
P0.4/  
/ECLKOUT  
P2.6  
General Purpose Input and Output Port 2.6. This pin should not be connected. This pin is connected internally to  
the RF transceiver. It can be used for BER measurements.  
General Purpose Input and Output Port 0.3/External Interrupt 1/SPI1 Chip Select 0/ADC convert start/PWM  
channel 1.  
CS0  
P0.3/IRQ1/  
/ADCCONVST/P  
WM1  
40  
41  
P2.4/IRQ8  
General Purpose Input and Output Port 2.4. This pin should not be connected. This pin is connected internally to  
the RF transceiver. It can be used for debug purposes to monitor RF transceiver interrupt/ External Interrupt 8  
General Purpose Input and Output Port 0.2/SPI1 Master Out Slave In Pin (MOSI)/PWM channel 0.  
P0.2/MOSI/  
PWM0  
42  
43  
44  
45  
P0.1/SCLK  
P0.0/MISO  
IOVDD  
General Purpose Input and Output Port 0.1/SPI1 Serial Clock  
General Purpose Input and Output Port 0.0/SPI1 Master In Slave Out Pin (MISO)  
General Purpose I/O supply. Connect to the battery terminal  
CS4  
General Purpose Input and Output Port 0.7/ External Interrupt 3 / SPI1 Chip Select 4/ UART hand shake.  
P0.7/IRQ3/  
/CTS  
46  
BM/P0.6/  
BM (Boot Mode). The ADuCRF101 enters serial download mode if P0.6 is low during an external Reset event. It  
executes user code after any reset event or if P0.6 is high during an external Reset event. / General Purpose  
Input and Output Port 0.6/External Interrupt 2/ SPI1 Chip Select 3 / UART hand shake/PWM channel 0.  
CS3  
IRQ2/  
/
RTS/PWM0  
47  
48  
49  
50  
51  
52  
53  
54  
55  
56  
RESET  
Active Low. A low signal on this pin for 24 system clocks will cause the part to reset.  
General Purpose Input and Output Port 4.0/PWM channel 0.  
General Purpose Input and Output Port 4.1/PWM channel 1.  
General Purpose Input and Output Port 4.2/PWM channel 2.  
General Purpose Input and Output Port 4.3/PWM channel 3.  
General Purpose Input and Output Port 4.4/PWM channel 4.  
General Purpose Input and Output Port 4.5/PWM channel 5.  
32.768 kHz watch crystal output for WU timers.  
P4.0/PWM0  
P4.1/PWM1  
P4.2/PWM2  
P4.3/PWM3  
P4.4/PWM4  
P4.5/PWM5  
LFXTAL1  
LFXTAL2  
VDD_DIG2  
32.768 kHz watch crystal input for WU timers.  
Voltage Regulator output for Digital section of the transceiver. A 220 nF capacitor should be placed between  
this pin and ground for regulator stability and noise rejection.  
57  
58  
59  
VDDBAT16  
P4.6/PWM6  
P4.7/PWM7  
Battery Terminal, supply for the digital section of the transceiver and GPIOs.  
General Purpose Input and Output Port 4.6/PWM channel 6.  
General Purpose Input and Output Port 4.7/PWM channel 7.  
Rev. PrG | Page 11 of 13  
 
ADuCRF101  
Preliminary Technical Data  
Pin  
No.  
Mnemonic  
Description  
60  
ADCVREF  
Transceiver’s ADC Reference Output. A 220 nF capacitor should be placed between this pin and ground for  
adequate noise rejection.  
61  
62  
63  
64  
65  
P3.2/PWMSYNC  
P3.3/PWMTRIP  
P3.4  
P3.5  
PADDLE  
General Purpose Input and Output Port 3.2/PWM synchronisation.  
General Purpose Input and Output Port 3.3/PWM safety cut off.  
General Purpose Input and Output Port 3.4.  
General Purpose Input and Output Port 3.5.  
The exposed package paddle should be soldered to a metal pad on the PCB, and connected to ground.  
6 VDDBAT1, VDDBAT2, AVDD and IOVDD should all be connected together.  
Rev. PrG | Page 12 of 13  
OUTLINE DIMENSIONS  
9.10  
9.00 SQ  
8.90  
0.30  
0.25  
0.18  
0.60 MAX  
0.60  
MAX  
PIN 1  
INDICATOR  
1
49  
48  
64  
PIN 1  
INDICATOR  
8.85  
8.75 SQ  
8.65  
0.50  
BSC  
EXPOSED  
PAD  
5.25  
5.10 SQ  
4.95  
0.50  
0.40  
0.30  
33  
32  
16  
17  
0.25 MIN  
BOTTOM VIEW  
7.50 REF  
TOP VIEW  
0.80 MAX  
0.65 TYP  
12° MAX  
1.00  
0.85  
0.80  
0.05 MAX  
0.02 NOM  
SEATING  
PLANE  
0.20 REF  
COMPLIANT TO JEDEC STANDARDS MO-220-VMMD-4  
Figure 2. 64-Lead Frame Chip Scale Package [LFCSP_VQ]  
9 mm x 9 mm Body, Very Thin Quad  
(CP-64-5)  
Dimensions shown in millimeters  
ORDERING GUIDE  
Model  
Temperature Range Description  
Package Option  
64-lead LFCSP  
64-lead LFCSP  
64-lead LFCSP  
N/A  
ADUCRF101BCPZ64  
ADUCRF101BCPZ128  
ADUCRF101CCPZ128  
EV-ADuCRF101MK3Z  
EV-ADuCRF101MK1Z  
EV- ADuCRF101QSP1Z  
EV-ADuCRF101QSP3Z  
-40⁰C to 85⁰C  
-40⁰C to 85⁰C  
-40⁰C to 85⁰C  
-40⁰C to 85⁰C  
-40⁰C to 85⁰C  
-40⁰C to 85⁰C  
-40⁰C to 85⁰C  
12-bit ADC, 164k Byte Flash and 8k Byte SRAM  
12-bit ADC, 128k Byte Flash and 16k Byte SRAM  
14-bit ADC, 128k Byte Flash and 16k Byte SRAM  
Evaluation board for 433 MHz operation  
Evaluation board for 915 MHz operation  
Quick start Plus for 915 MHz operation  
Quick start Plus for 433 MHz operation  
N/A  
N/A  
N/A  
I2C refers to a communications protocol originally developed by Philips Semiconductors (now NXP Semiconductors).  
©2012 Analog Devices, Inc. All rights reserved. Trademarks and  
registered trademarks are the property of their respective owners.  
PR09464-0-11/12(PrG).  
Rev. PrG | Page 13 of 13  
 
 
 

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