ISD4004-12MX [NUVOTON]

SINGLE-CHIP, MULTIPLE-MESSAGES VOICE RECORD/PLAYBACK DEVICES 8-, 10-, 12-, AND 16-MINUTE DURATION;
ISD4004-12MX
型号: ISD4004-12MX
厂家: NUVOTON    NUVOTON
描述:

SINGLE-CHIP, MULTIPLE-MESSAGES VOICE RECORD/PLAYBACK DEVICES 8-, 10-, 12-, AND 16-MINUTE DURATION

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ISD4004 SERIES  
ISD4004 SERIES  
SINGLE-CHIP, MULTIPLE-MESSAGES  
VOICE RECORD/PLAYBACK DEVICES  
8-, 10-, 12-, AND 16-MINUTE DURATION  
Publication Release Date: March 2017  
Revision 1.32  
- 1 -  
ISD4004 SERIES  
1. GENERAL DESCRIPTION ............................................................................................................... 3  
2. FEATURES....................................................................................................................................... 4  
3. BLOCK DIAGRAM ............................................................................................................................ 5  
4. PIN CONFIGURATION..................................................................................................................... 6  
5. PIN DESCRIPTION........................................................................................................................... 7  
6. FUNCTIONAL DESCRIPTION ....................................................................................................... 12  
6.1. Detailed Description ................................................................................................................ 12  
6.2. Serial Peripheral Interface (SPI) Description .......................................................................... 13  
6.2.1  
6.2.2  
6.2.3  
OPCODES....................................................................................................................... 14  
SPI Diagrams................................................................................................................... 15  
SPI Control and Output Registers.................................................................................... 16  
7. TIMING DIAGRAMS ....................................................................................................................... 18  
8. ABSOLUTE MAXIMUM RATINGS.................................................................................................. 20  
8.1. Operating Conditions............................................................................................................... 21  
9. ELECTRICAL CHARACTERISTICS............................................................................................... 22  
9.1. Parameters For Packaged Parts............................................................................................. 22  
9.2. Parameters For Die................................................................................................................. 25  
9.3. SPI AC Parameters................................................................................................................. 26  
10. TYPICAL APPLICATION CIRCUIT................................................................................................. 27  
11. PACKAGING AND DIE INFORMATION......................................................................................... 30  
11.1.  
11.2.  
11.3.  
28-Lead 300-Mil Plastic Small Outline IC (SOIC)................................................................ 30  
28-Lead 600-Mil Plastic Dual Inline Package (PDIP) .......................................................... 31  
Die Information .................................................................................................................... 32  
12. ORDERING INFORMATION .......................................................................................................... 34  
13. VERSION HISTORY....................................................................................................................... 35  
Publication Release Date: March 2017  
- 2 -  
Revision 1.32  
ISD4004 SERIES  
1. GENERAL DESCRIPTION  
The ISD4004 ChipCorder® series provides high-quality, 3-volt, single-chip record/playback solutions for  
8- to 16-minute messaging applications ideally for cellular phones and other portable products. The  
CMOS-based devices include an on-chip oscillator, anti-aliasing filter, smoothing filter, AutoMute®  
feature, audio amplifier, and high density multilevel Flash memory array. The ISD4004 series is  
designed to be used in a microprocessor- or microcontroller-based system. Address and control are  
accomplished through a Serial Peripheral Interface (SPI) or Microwire Serial Interface to minimize pin  
count.  
Recordings are stored into the on-chip Flash memory cells, providing zero-power message storage.  
This unique single-chip solution utilizes Nuvoton’s patented multilevel storage technology. Voice and  
audio signals are directly stored onto memory array in their natural form, providing high-quality voice  
reproduction.  
Publication Release Date: March 2017  
- 3 -  
Revision 1.32  
ISD4004 SERIES  
2. FEATURES  
Single-chip voice record/playback solution  
Single 3 volt supply  
Low-power consumption  
Operating current:  
-
-
ICC_Play = 15 mA (typical)  
ICC_Rec = 25 mA (typical)  
Standby current:  
ICC_Standby = 1 µA (typical)  
-
Duration: 8, 10, 12, and 16 minutes  
High-quality, natural voice/audio reproduction  
AutoMute feature provides background noise attenuation  
No algorithm development required  
Microcontroller SPI or Microwire™ Serial Interface  
Fully addressable to handle multiple messages  
Non-volatile message storage  
100K record cycles (typical)  
100-year message retention (typical)  
On-chip oscillator  
Power-down feature to reduce power consumption  
Available in die, PDIP, and SOIC  
Packaged type: Lead-Free  
Temperature:  
-
-
-
Commercial (die): 0°C to +50°C  
Commercial (packaged units): 0°C to +70°C  
Industrial (packaged units): -40°C to +85°C  
Publication Release Date: March 2017  
Revision 1.32  
- 4 -  
ISD4004 SERIES  
3. BLOCK DIAGRAM  
Internal Clock  
Timing  
XCLK  
Sampling Clock  
ANA IN-  
ANA IN+  
5-Pole Active  
Antialiasing Filter  
Analog Transceivers  
Amp  
3,840K Cell  
Nonvolatile  
Multilevel Storage  
Array  
5-Pole Active  
Smoothing Filter  
AutoMuteTM  
Feature  
Amp  
AUDOUT  
Power Conditioning  
Device Control  
VCCA VSSA VSSA VSSA VSSD VCCD  
SCLK SS MOSI MISO INT RAC  
AM CAP  
Publication Release Date: March 2017  
Revision 1.32  
- 5 -  
ISD4004 SERIES  
4. PIN CONFIGURATION  
1
2
3
4
28  
27  
26  
25  
SS  
MOSI  
MISO  
VSSD  
SCLK  
VCCD  
XCLK  
INT  
5
6
7
24  
23  
22  
NC  
NC  
NC  
RAC  
VSSA  
NC  
ISD4004  
8
9
21  
20  
19  
NC  
NC  
NC  
NC  
NC  
NC  
10  
11  
12  
18  
17  
VSSA  
VSSA  
VCCA  
ANA IN+  
13  
14  
16  
15  
AUD OUT  
AM CAP  
ANA IN-  
NC  
SOIC / PDIP  
VSSA  
NC  
NC  
VCCA  
1
28  
27  
26  
25  
24  
23  
22  
21  
20  
19  
18  
17  
16  
15  
RAC  
NC  
NC  
INT  
XCLK  
VCCD  
2
3
ANA IN+  
ANA IN-  
NC  
AM CAP  
NC  
AUD OUT  
NC  
VSSA  
4
5
6
7
ISD4004  
SCLK  
SS  
MOSI  
MISO  
VSSD  
8
9
10  
11  
12  
13  
14  
VSSA  
NC  
NC  
NC  
NC  
TSOP  
Publication Release Date: March 2017  
Revision 1.32  
- 6 -  
ISD4004 SERIES  
5. PIN DESCRIPTION  
PIN NAME  
FUNCTION  
SOIC /  
PDIP  
1
Slave Select: This input, when LOW, will select the  
ISD4004 device.  
SS  
MOSI  
2
3
Master Out Slave IN: This is the serial input to the  
ISD4004 device when it is configured as slave. The master  
microcontroller places data on the MOSI line one half-cycle  
before the rising edge of SCLK for clocking into the device.  
MISO  
Master In Slave Out: This is the serial output of the  
ISD4004 device. This output goes into a high-impedance  
state if the device is not selected.  
VSSA / VSSD  
11, 12,  
23 / 4  
Ground: The ISD4004 series utilizes separate analog and  
digital ground busses. The analog ground (VSSA) pins  
should be tied together as close as possible and connected  
through a low-impedance path to power supply ground. The  
digital ground (VSSD) pin should be connected through a  
separate low-impedance path to power supply ground.  
These ground paths should be large enough to ensure that  
the impedance between the VSSA pins and the VSSD pin is  
less than 3 Ω. The backside of the die is connected to VSS  
through the substrate. For chip-on-board design, the die  
attach area must be connected to VSS or left floating.  
NC  
5-10, 15, Not connected  
19-22  
AUD OUT [1]  
13  
Audio Output: This pin provides an audio output of the  
stored data and is recommended be AC coupled. It is  
capable of driving a 5 KΩ impedance REXT  
.
[1] The AUD OUT pin is always at 1.2 volts when the device is powered up. When in playback, the output buffer  
connected to this pin can drive a load as small as 5 KΩ. When in record, a built-in resistor connects AUD OUT to  
the internal 1.2-volt analog ground supply. This resistor is approximately 850 KΩ, but will vary somewhat  
according to the sample rate of the device. This relatively high impedance allows this pin to be connected to an  
audio bus without loading it down.  
Publication Release Date: March 2017  
- 7 -  
Revision 1.32  
ISD4004 SERIES  
PIN NAME  
FUNCTION  
SOIC /  
PDIP  
AM CAP  
14  
AutoMute™ Feature: The AutoMute feature only applies  
for playback operation and helps to minimize noise (with 6  
dB of attenuation) when there is no signal (i.e. during  
periods of silence). A 1 µF capacitor to ground is  
recommended to connect to the AM CAP pin.  
This capacitor becomes a part of an internal peak detector  
which senses the signal amplitude. This peak level is  
compared to an internally set threshold to determine the  
AutoMute trip point. For large signals, the AutoMute  
attenuation is set to 0 dB automatically but 6 dB of  
attenuation occurs for silence. The 1 µF capacitor also  
affects the rate at which the AutoMute feature changes with  
the signal amplitude (or the attack time).  
The AutoMute feature can be disabled by connecting the  
AM CAP pin directly to VCCA..  
ANA IN-  
16  
Inverting Analog Input: This pin transfers the signal into  
the device during recording via differential-input mode.  
In this differential-input mode, a 16 mVp-p maximum input  
signal should be capacitively coupled to ANA IN- for optimal  
signal quality, as shown in Figure 1: ANA IN Modes. This  
capacitor value should be equal to that used on ANA IN+  
pin. The input impedance at ANA IN- is normally 56 KΩ.  
In the single-ended mode, ANA IN- should be capacitively  
coupled to VSSA through a capacitor equal to that used on  
the ANA IN+ pin.  
ANA IN+  
17  
Non-Inverting Analog Input: This pin is the non-inverting  
analog input that transfers the signal to the device for  
recording. The analog input amplifier can be driven single  
ended or differentially.  
In the single-ended input mode, a 32 mVp-p (peak-to-peak)  
maximum signal should be capacitively connected to this  
pin for optimal signal quality. The external capacitor  
associated with ANA IN+ together with the 3 KΩ input  
impedance are selected to give cutoff at the low frequency  
end of the voice passband.  
In the differential-input mode, the maximum input signal at  
ANA IN+ should be 16 mVp-p capacitively coupled for  
optimal signal quality. The circuit connections for the two  
modes are shown in Figure 1.  
Publication Release Date: March 2017  
- 8 -  
Revision 1.32  
ISD4004 SERIES  
PIN NAME  
FUNCTION  
SOIC /  
PDIP  
VCCA / VCCD  
18 / 27  
Supply Voltage: To minimize noises, the analog and digital  
circuits in the ISD4004 devices use separate power busses.  
These +3V busses are brought out to separate pins and  
should be tied together as close to the supply as possible.  
In addition, these supplies should be decoupled as close to  
the package as possible.  
RAC  
24  
Row Address Clock: This is an open drain output that  
provides the signal of a ROW with a 200 ms period for 8  
KHz sampling frequency. (This represents a single row of  
memory.) This signal stays HIGH for 175 ms and stays  
LOW for 25 ms when it reaches the end of a row.  
The RAC pin stays HIGH for 109.37 µsec and stays LOW  
for 15.63 µsec in Message Cueing mode (see Message  
Cueing section for detailed description). Refer to the AC  
Parameters table for RAC timing information at other  
sample rates.  
When a record command is first initiated, the RAC pin  
remains HIGH for an extra TRACL period. This is due to the  
need of loading the internal sample and hold circuits in the  
device. This pin can be used for message management  
techniques.  
A pull-up resistor is required to connect this pin to other  
device.  
25  
Interrupt: This is an open drain output pin. This pin goes  
LOW and stays LOW when an Overflow (OVF) or End of  
Message (EOM) marker is detected. Each operation that  
ends with an EOM or OVF will generate an interrupt. The  
interrupt will be cleared the next time an SPI cycle is  
initiated. The interrupt status can also be read by an RINT  
instruction.  
INT  
A pull-up resistor is required to connect this pin to other  
device.  
Overflow Flag (OVF) The Overflow flag indicates that the  
end of memory has been reached during a record or  
playback operation.  
End of Message (EOM) The End of Message flag is set  
only during playback operation when an EOM is found.  
There are eight EOM flag position options per row.  
Publication Release Date: March 2017  
- 9 -  
Revision 1.32  
ISD4004 SERIES  
PIN NAME  
FUNCTION  
SOIC /  
PDIP  
XCLK  
26  
External Clock Input: The ISD4004 series is configured at  
the factory with an internal sampling clock frequency  
centered to 1 percent of specification. The frequency is  
then maintained to a variation of 2.25 percent over the  
entire commercial temperature and operating voltage  
ranges. The internal clock has a 6/+4 percent tolerance  
over the industrial temperature and voltage ranges. A  
regulated power supply is recommended for industrial  
temperature range parts. If greater precision is required, the  
device can be clocked through the XCLK pin as follows:  
Part Number  
ISD4004-08M  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
Sample Rate  
8.0 kHz  
Required Clock  
1024 kHz  
6.4 kHz  
819.2 kHz  
682.7 kHz  
512 kHz  
5.3 kHz  
4.0 kHz  
These recommended clock rates should not be varied  
because the anti-aliasing and smoothing filters are fixed.  
Otherwise, aliasing problems can occur if the sample rate  
differs from the one recommended. The duty cycle on the  
input clock is not critical, as the clock is immediately divided  
by two. If the XCLK is not used, this input must be  
connected to ground.  
SCLK  
28  
Serial Clock: This is the input clock to the ISD4004 device.  
It is generated by the master device (typically  
microcontoller) and is used to synchronize the data transfer  
in and out of the device through the MOSI and MISO lines,  
respectively. Data is latched into the ISD4004 on the rising  
edge of SCLK and shifted out of the device on the falling  
edge of SCLK.  
Publication Release Date: March 2017  
- 10 -  
Revision 1.32  
ISD4004 SERIES  
Internal to the device  
53K  
0.1  
0.1  
F
F
ANA IN+  
ANA IN-  
3K  
Signal  
32m Vp-p  
-
To Filter  
+
3K  
53K  
1.2V  
Single-Ended Input Mode  
Internal to the device  
53K  
0.1  
0.1  
F
F
ANA IN+  
ANA IN-  
3K  
Input Signal  
Input Signal  
16m Vp-p  
16m Vp-p  
-
To Filter  
+
°
180  
3K  
53K  
1.2V  
Differential Input Mode  
FIGURE 1: ISD4004 SERIES ANA IN MODES  
TRAC  
(200 ms)  
RAC  
25 ms  
TRACL  
FIGURE 2: RAC TIMING WAVEFORM DURING NORMAL OPERATION  
(example of 8KHz sampling rate)  
Publication Release Date: March 2017  
Revision 1.32  
- 11 -  
ISD4004 SERIES  
6. FUNCTIONAL DESCRIPTION  
6.1. DETAILED DESCRIPTION  
Audio Quality  
The Nuvoton’s ISD4004 ChipCorder® series is offered at 8.0, 6.4, 5.3 and 4.0 kHz sampling  
frequencies, allowing the user a choice of speech quality options. Increasing the sampling frequency  
will produce better sound quality, but affects duration. Please refer to Table 1: Product Summary for  
details.  
Analog speech samples are stored directly into on-chip non-volatile memory without the digitization and  
compression associated with other solutions. Direct analog storage provides higher quality  
reproduction of voice, music, tones, and sound effects than other solid-state solutions.  
Duration  
The ISD4004 Series is a single-chip solution with 8-, 10-, 12-, and 16-minute duration.  
TABLE 1: PRODUCT SUMMARY OF ISD4004 SERIES  
Part Number  
Duration  
(Minutes)  
Sample Rate  
(kHz)  
Typical Filter Pass  
Band (kHz) *  
ISD4004-08M  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
8
8.0  
6.4  
5.3  
4.0  
3.4  
2.7  
2.3  
1.7  
10  
12  
16  
* This is the 3dB point. This parameter is not checked during production testing and may vary due to process  
variations and other factors. Therefore, the customer should not rely upon this value for testing purposes.  
Flash Storage  
The ISD4004 series utilizes on-chip Flash memory, providing zero-power message storage. The  
message is retained for up to 100 years typically without power. In addition, the device can be re-  
recorded typically over 100,000 times.  
Memory Architecture  
The ISD4004 series contains a total of 3,840K Flash memory cells, which is organized as 2,400 rows  
of 1,600 cells each. The address bits (A0-A15) are used to access various rows for multiple messages  
of different durations.  
Publication Release Date: March 2017  
- 12 -  
Revision 1.32  
ISD4004 SERIES  
Microcontroller Interface  
A four-wire (SCLK, MOSI, MISO & SS ) SPI interface is provided for controlling and addressing  
functions. The ISD4004 is configured to operate as a peripheral slave device, with a microcontroller-  
based SPI bus interface. Read and write operations are controlled through this SPI interface. An  
interrupt signal (  
) and internal read only Status Register are provided for handshake purposes.  
INT  
Programming  
The ISD4004 series is also ideal for playback-only applications, where single- or multiple-messages  
playback is controlled through the SPI port. Once the desired message configuration is created,  
duplicates can easily be generated via a programmer.  
6.2. SERIAL PERIPHERAL INTERFACE (SPI) DESCRIPTION  
The ISD4004 series operates via SPI serial interface with the following protocol.  
First, the data transfer protocol assumes that the microcontroller’s SPI shift registers are clocked on  
the falling edge of the SCLK. However, for the ISD4004, the protocols are as follows:  
1. All serial data transfers begin with the falling edge of SS pin.  
2. SS is held LOW during all serial communications and held HIGH between instructions.  
3. Data is clocked in on the rising edge of the SCLK signal and clocked out on the falling edge of  
the SCLK signal, with LSB first.  
4. Playback and record operations are initiated when the device is enabled by asserting the SS  
pin LOW, shifting in an opcode and an address data to the ISD4004 device (refer to the  
Opcode Summary in the following page).  
5. The opcodes contain <16 address bits> and <8 control bits>.  
6. Each operation that ends with an EOM or Overflow will generate an interrupt. The Interrupt will  
be cleared the next time a SPI cycle is initiated.  
7. As Interrupt data is shifted out of the MISO pin, while address and control data are  
simultaneously shifted into the MOSI pin. Care should be taken such that the data shifted in is  
compatible with current system operation. Because it is possible to read an interrupt data and  
start a new operation within the same SPI cycle.  
8. An operation begins with the RUN bit set and ends with the RUN bit reset.  
9. All operations begin after the rising edge of SS  
.
Publication Release Date: March 2017  
Revision 1.32  
- 13 -  
ISD4004 SERIES  
6.2.1 OPCODES  
The available Opcodes are summarized as follows:  
TABLE 2: OPCODE SUMMARY  
Instructions  
OpCodes  
Descriptions  
Address (16 bits)  
Control bits (8 bits)  
XXX C0 C1 C2 C3 C4  
<A0 A15>  
POWERUP  
<XXX……XXX>  
XXX 0  
0
1
0
0
Power-Up: Device will be ready for an operation after  
TPUD  
.
SETPLAY  
PLAY  
<A0 A15>  
XXX 0  
XXX 0  
0
1
1
1
1
1
1
1
Initiates playback from address <A0-A15>.  
<XXX……XXX>  
Playback from the current address (until EOM or  
OVF).  
SETREC  
REC  
<A0 A15>  
XXX 0  
XXX 0  
0
1
1
1
0
0
1
1
Initiates a record operation from address <A0-A15>.  
<XXX……XXX>  
Records from current address until OVF is reached or  
Stop command is sent.  
SETMC  
MC [1]  
<A0 A15>  
XXX 1  
XXX 1  
0
1
1
1
1
1
1
1
Initiates Message Cueing (MC) from address <A0-  
A15>.  
<XXX……XXX>  
Performs a Message Cueing from current location.  
Proceeds to the end of message (EOM) or enters OVF  
condition if no more messages are present.  
STOP  
<XXX……XXX>  
<XXX……XXX>  
XXX 0  
XXX X  
1
1
1
0
X
X
0
0
Stops the current operation.  
STOPPWRDN  
Stops the current operation and enters into standby  
(power-down) mode.  
RINT [2]  
<XXX……XXX>  
XXX 0  
1
1
X
0
Read Interrupt status bits: Overflow and EOM.  
Notes:  
C0 = Message cueing  
C1 = Ignore address bit  
C2 = Master power control  
C3 = Record or playback operation  
C4 = Enable or disable an operation  
[1] Message Cueing can be selected only at the beginning of a playback operation.  
[2]  
As the Interrupt data is shifted out of the ISD4004, control and address data are being shifted in. Care should  
be taken such that the data shifted in is compatible with current system operation. It is possible to read  
interrupt data and start a new operation at the same time. See Figures 5 - 8 for references.  
Publication Release Date: March 2017  
- 14 -  
Revision 1.32  
ISD4004 SERIES  
6.2.2 SPI Diagrams  
LSB  
A0  
A15  
C
0
C
4
X
X X  
Input Shift Register  
MOSI  
(Loaded to Row Counter  
only if IAB = 0)  
A0-A15  
Select Logic  
Row Counter  
P0-P15  
LSB  
OVF EOM P0 ...  
MISO  
Output Shift Register  
P15  
FIGURE 3: SPI INTERFACE SIMPLIFIED BLOCK DIAGRAM  
The following diagram describes the SPI port and the control bits associated with it.  
LSB  
MSB  
C0 C1 C2 C3 C4  
A0 A1 A2 A3 A4 A5 A6 A7 A8 A9 A10 A11 A12 A13 A14 A15  
x
x
x
MOSI  
Message Cueing (MC)  
Ignore Address Bit (IAB)  
Power Up (PU)  
Play/Record (P/R)  
RUN  
LSB  
MSB  
MISO  
OVF EOM P0 P1 P2 P3 P4 P5  
P14 P15  
0
0
0
0
P6 P7 P8 P9 P10 P11 P12 P13  
0
0
Notes: 1. For MOSI, LSB is the 1st bit shifted into the ISD4004.  
2. For MISO, LSB is the 1st bit shifted out from the ISD4004.  
FIGURE 4: SPI PORT  
Publication Release Date: March 2017  
Revision 1.32  
- 15 -  
ISD4004 SERIES  
6.2.3 SPI Control and Output Registers  
The SPI control register provides control of individual function such as play, record, message cueing,  
power-up, power-down, start, stop and ignore address pointer operations.  
TABLE 3: SPI CONTROL REGISTERS  
Control Bit  
Control Register  
Bit  
Device Function  
Message Cueing function  
C0  
MC  
=
1
0
Enable Message Cueing  
Disable Message Cueing  
Ignore Address bit  
=
C1  
C2  
IAB [1]  
=
=
1
0
Ignore input address register (A0-A15)  
Use the input address register (A0-A15)  
Power Up  
PU  
=
=
1
0
Power-Up  
Power-Down  
P/  
R
C3  
C4  
Playback or Record  
=
=
1
0
Play  
Record  
RUN  
Enable or Disable an operation  
=
=
1
0
Start  
Stop  
Address Bits A0-A15  
Input address register  
TABLE 4: SPI OUTPUT REGISTERS  
Output Bits Description  
OVF  
Overflow  
EOM  
End-of-Message  
P0-P15  
Output of the row pointer register  
[1]  
When IAB (Ignore Address Bit) is set to 0, a playback or record operation starts from address (A0-A15). For  
consecutive playback or record, IAB should be changed to a 1 before the end of that row (see RAC timing).  
Otherwise the ISD4004 will repeat the operation from the same row address. For memory management, the Row  
Address Clock (RAC) signal and IAB can be used to move around the memory segments.  
Publication Release Date: March 2017  
- 16 -  
Revision 1.32  
ISD4004 SERIES  
Message Cueing  
Message cueing (MC) allows the user to skip through messages, without knowing the actual physical  
location of the messages. It will stop when an EOM marker is reached. Then, the internal address  
counter will point to the next message. Also, it will enter into OVF condition when it reaches the end of  
memory. In this mode, the messages are skipped 1,600 times faster than the normal playback mode.  
Power-Up Sequence  
The ISD4004 will be ready for an operation after power-up command is sent and followed by the TPUD  
timing (25 ms for 8 KHz sampling rate). Refer to the AC timing table for other TPUD values with respect  
to different sampling rates.  
The following sequences are recommended for optimized Record and Playback operations.  
Record Mode  
1. Send POWERUP command.  
2. Wait TPUD (power-up delay).  
3. Send POWERUP command.  
4. Wait 2 x TPUD (power-up delay).  
5. a). Send SETREC command with address xx, or  
b). Send REC command (recording from current location).  
6. Send STOP command to stop recording.  
7. Wait TSTOP/PAUSE.  
For 3 & 4), please refer to Apps Brief 39A: recorded pop elimination in the ISD4000 series.  
For 5.a), the device will start recording at address xx and will generate an interrupt when an overflow  
(end of memory array) is reached, if no STOP command is sent before that. Then, it will automatic stop  
recording operation.  
Playback Mode  
1. Send POWERUP command  
2. Wait TPUD (power-up delay)  
3. a). Send SETPLAY command with address xx, or  
b). Send PLAY command (playback from current location).  
4. a). Send STOP command to halt the playback operation, or  
b). Wait for playback operation to stop automatically, when an EOM or OVF is reached.  
5. Wait TSTOP/PAUSE.  
For 3.a), the device will start playback at address xx and it will generate an interrupt when an EOM or  
OVF is reached. It will then stop playback operation.  
Publication Release Date: March 2017  
- 17 -  
Revision 1.32  
ISD4004 SERIES  
7. TIMING DIAGRAMS  
TSSH  
SS  
TSSmin  
TSCKhi  
TSSS  
SCLK  
MOSI  
TDIH  
TSCKlow  
TDIS  
TPD  
TPD  
TDF  
(TRISTATE)  
LSB  
MISO  
FIGURE 5: TIMING DIAGRAM  
SS  
SCLK  
LSB  
A8  
A9  
A10  
C0  
C1  
C2  
C3  
C4  
MOSI  
LSB  
OVF  
EOM  
P0  
P1  
P2  
P3  
P4  
P5  
MISO  
FIGURE 6: 8-BIT COMMAND FORMAT  
Publication Release Date: March 2017  
Revision 1.32  
- 18 -  
ISD4004 SERIES  
SS  
BYTE 1  
BYTE 2  
BYTE 3  
SCLK  
MOSI  
LSB  
A0 A1 A2 A3 A4 A5 A6 A7 A8 A9 A10 A11 A12 A13 A14 A15  
X
C1 C2 C3 C4  
X
X
C0  
LSB  
X
X
X
X
OVFEOM P0 P1 P2 P3 P4 P5 P6 P7 P8 P9 P10 P11 P12 P13 P14 P15  
X
X
MISO  
FIGURE 7: 16-BIT COMMAND FORMAT  
SS  
SCLK  
Stop  
Play/Record  
MOSI  
Data  
Data  
MISO  
TSTOP/PAUSE  
(Rec)  
ANA IN  
TSTOP/PAUSE  
(Play)  
ANA OUT  
FIGURE 8: PLAYBACK/RECORD AND STOP CYCLE  
Publication Release Date: March 2017  
Revision 1.32  
- 19 -  
ISD4004 SERIES  
8. ABSOLUTE MAXIMUM RATINGS  
TABLE 5: ABSOLUTE MAXIMUM RATINGS (PACKAGED PARTS)  
CONDITIONS  
Junction temperature  
VALUES  
150°C  
Storage temperature range  
-65°C to +150°C  
Voltage applied to any pin  
(VSS 0.3V) to (VCC +0.3V)  
(VSS 1.0V) to (VCC +1.0V)  
(VSS 1.0V) to 5.5V  
Voltage applied to any pin (Input current limited to 20mA)  
Voltage applied to MOSI, SCLK, and SS pins  
(Input current limited to 20mA)  
Lead temperature (soldering 10 seconds)  
VCC VSS  
300°C  
-0.3V to +7.0V  
TABLE 6: ABSOLUTE MAXIMUM RATINGS (DIE)  
CONDITIONS  
VALUES  
150°C  
Junction temperature  
Storage temperature range  
Voltage applied to any pad  
-65°C to +150°C  
(VSS 0.3V) to (VCC +0.3V)  
(VSS 1.0V) to (VCC +1.0V)  
(VSS 1.0V) to 5.5V  
Voltage applied to any pad (Input current limited to 20 mA)  
Voltage applied to MOSI, SCLK, and SS pins  
(Input current limited to 20mA)  
VCC VSS  
-0.3V to +7.0V  
Note: Stresses above those listed may cause permanent damage to the device. Exposure to the absolute  
maximum ratings may affect device reliability and performance. Functional operation is not implied at these  
conditions.  
Publication Release Date: March 2017  
- 20 -  
Revision 1.32  
ISD4004 SERIES  
8.1. OPERATING CONDITIONS  
TABLE 7: OPERATING CONDITIONS (PACKAGED PARTS)  
CONDITIONS  
VALUES  
0°C to +70°C  
-40°C to +85°C  
+2.7V to +3.3V  
0V  
Commercial operating temperature range (Case temperature)  
Industrial operating temperature (Case temperature)  
Supply voltage (VCC) [1]  
Ground voltage (VSS) [2]  
TABLE 8: OPERATING CONDITIONS (DIE)  
CONDITIONS  
Commercial operating temperature range  
Supply voltage (VCC) [1]  
VALUES  
0°C to +50°C  
+2.7V to +3.3V  
0V  
Ground voltage (VSS) [2]  
[1]  
V
V
= VCCA = VCCD  
= VSSA = VSSD  
CC  
[2]  
SS  
Publication Release Date: March 2017  
Revision 1.32  
- 21 -  
ISD4004 SERIES  
9. ELECTRICAL CHARACTERISTICS  
9.1. PARAMETERS FOR PACKAGED PARTS  
TABLE 9: DC PARAMETERS  
PARAMETERS  
Input Low Voltage  
SYMBOLS  
MIN[2]  
TYP[1]  
MAX[2]  
UNITS  
CONDITIONS  
VIL  
VCC x 0.2  
V
V
V
V
Input High Voltage  
Output Low Voltage  
VIH  
VCC x 0.8  
VOL  
VOL1  
0.4  
0.4  
IOL = 10 µA  
IOL = 1 mA  
RAC,  
INT  
Voltage  
Output Low  
Output High Voltage  
Operating Current  
- Playback  
VOH  
ICC  
VCC - 0.4  
V
IOH = -10 µA  
15  
25  
1
30  
40  
10  
1  
10  
mA  
mA  
µA  
µA  
µA  
KΩ  
KΩ  
KΩ  
dB  
REXT = [3]  
REXT = [3]  
- Record  
[3] [4]  
Standby Current  
ISB  
Input Leakage Current  
MISO Tri-State Current  
Output Load Impedance  
ANA IN+ Input Resistance  
ANA IN- Input Resistance  
IIL  
IHZ  
1
REXT  
RANA IN+  
RANA IN-  
AARP  
5
2.2  
40  
3.0  
56  
23  
3.8  
71  
32 mVpp 1 KHz  
sinewave input [5]  
ANA IN+ or ANA IN- to AUD  
OUT Gain  
Notes:  
[1]  
Typical values @ TA = 25°C and VCC = 3.0V.  
[2]  
[3]  
All Min/Max limits are guaranteed by Nuvoton via electronical testing or characterization. Not all  
specifications are 100 percent tested.  
VCCA and VCCD connected together.  
[4]  
[5]  
SS = VCCA = VCCD, XCLK = MOSI = VSSA = VSSA and all other pins floating.  
Measured with AutoMute feature disabled.  
Publication Release Date: March 2017  
- 22 -  
Revision 1.32  
ISD4004 SERIES  
TABLE 10: AC PARAMETERS (Packaged Parts)  
CHARACTERISTIC  
Sampling Frequency  
SYMBOLS  
FS  
MIN[2]  
TYP[1]  
MAX[2]  
UNITS  
CONDITIONS  
[5]  
[5]  
[5]  
[5]  
ISD4004-08M  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
8.0  
6.4  
5.3  
4.0  
KHz  
KHz  
KHz  
KHz  
Filter Pass Band  
FCF  
ISD4004-08M  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
3.4  
2.7  
2.3  
1.7  
KHz  
KHz  
KHz  
KHz  
3 dB Roll-Off Point[3][7]  
3 dB Roll-Off Point[3][7]  
3 dB Roll-Off Point[3][7]  
3 dB Roll-Off Point[3][7]  
Record Duration  
TREC  
TPLAY  
TPUD  
[6]  
[6]  
[6]  
[6]  
ISD4004-08M  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
8
min  
min  
min  
min  
10  
12  
16  
Playback Duration  
[6]  
[6]  
[6]  
[6]  
ISD4004-08M  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
8
min  
min  
min  
min  
10  
12  
16  
Power-Up Delay  
ISD4004-08M  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
25  
31.25  
37.5  
50  
msec  
msec  
msec  
msec  
Stop or Pause in Record or Play TSTOP or TPAUSE  
ISD4004-08M  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
50  
62.5  
75  
msec  
msec  
msec  
msec  
100  
RAC Clock Period  
ISD4004-08M  
TRAC  
[10]  
[10]  
[10]  
[10]  
200  
250  
300  
400  
msec  
msec  
msec  
msec  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
RAC Clock Low Time  
ISD4004-08M  
TRACL  
25  
31.25  
37.5  
50  
msec  
msec  
msec  
msec  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
RAC Clock Period in Message  
Cueing Mode  
TRACM  
ISD4004-08M  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
125  
156.3  
187.5  
250  
µsec  
µsec  
µsec  
µsec  
RAC Clock Low Time in  
Message Cueing Mode  
ISD4004-08M  
TRACML  
15.63  
19.53  
23.44  
31.25  
µsec  
µsec  
µsec  
µsec  
ISD4004-10M  
ISD4004-12M  
ISD4004-16M  
Total Harmonic Distortion  
ANA IN Input Voltage  
THD  
VIN  
1
2
%
32 mVpp 1 KHz  
sinewave input [11]  
32  
mV  
Peak-to-Peak [4] [8] [9]  
Publication Release Date: March 2017  
Revision 1.32  
- 23 -  
ISD4004 SERIES  
Notes:  
[1]  
Typical values @ TA = 25°C, VCC = 3.0V and timing measurement at 50% of Vcc level.  
[2]  
All Min/Max limits are guaranteed by Nuvoton via electrical testing or characterization. Not all  
specifications are 100 percent tested.  
[3]  
[4]  
Low-frequency cutoff depends upon the value of external capacitors (see Pin Descriptions)  
Single-ended input mode. In the differential input mode, VIN maximum for ANA IN+ and ANA IN- is 16  
mVp-p.  
[5]  
[6]  
[7]  
Sampling Frequency can vary as much as 2.25 percent over the commercial temperature and voltage  
ranges, and 6/+4 percent over the industrial temperature and voltage ranges. For greater stability, an  
external clock can be utilized (see Pin Descriptions)  
Playback and Record Duration can vary as much as 2.25 percent over the commercial temperature  
and voltage ranges, and 6/+4 percent over the industrial temperature and voltage ranges. For greater  
stability, an external clock can be utilized (see Pin Descriptions)  
Filter specification applies to the antialiasing filter and the smoothing filter. Therefore, from input to  
output, expect a 6 dB drop by nature of passing through both filters.  
[8]  
The typical output voltage will be approximately 450 mVp-p with VIN at 32 mVp-p.  
For optimal signal quality, this maximum limit is recommended.  
When a record command is sent, TRAC = TRAC + TRACL on the first row address.  
Measured with AutoMute feature disabled.  
[9]  
[10]  
[11]  
Publication Release Date: March 2017  
- 24 -  
Revision 1.32  
ISD4004 SERIES  
9.2. PARAMETERS FOR DIE  
TABLE 11: DC PARAMETERS  
PARAMETERS [6]  
Input Low Voltage  
SYMBOLS  
MIN[2]  
TYP[1]  
MAX[2]  
UNITS  
CONDITIONS  
VIL  
VCC x 0.2  
V
V
V
V
Input High Voltage  
Output Low Voltage  
VIH  
VCC x 0.8  
VOL  
VOL1  
0.4  
0.4  
IOL = 10 µA  
IOL = 1 mA  
IOH = -10 µA  
REXT = [3]  
RAC,  
INT  
Voltage  
Output Low  
Output High Voltage  
Operating Current  
-Playback  
VOH  
ICC  
VCC - 0.4  
V
15  
25  
1
30  
40  
10  
2
mA  
mA  
µA  
%
-Record  
REXT = [3]  
[3] [4]  
Standby Current  
Total Harmonic Distortion  
ISB  
THD  
1
32 mVpp 1 KHz  
sinewave input [5]  
32 mVpp 1 KHz  
sinewave input [5]  
ANA IN+ or ANA IN- to AUD  
OUT Gain  
AARP  
23  
dB  
Notes:  
[1]  
Typical values @ TA = 25°C and VCC = 3.0V. Sampling Frequency can vary as much as 2.25 percent  
over the commercial temperature and voltage ranges.  
[2]  
All Min/Max limits are guaranteed by Nuvoton via electrical testing or characterization. Not all  
specifications are 100 percent tested.  
[3]  
[4]  
VCCA and VCCD connected together.  
SS = VCCA = VCCD, XCLK = MOSI = VSSA = VSSA and all other pins floating.  
Measured with AutoMute feature disabled.  
[5]  
[6]  
The test coverage for die is limited to room temperature testing. The test conditions may differ from that  
of packaged parts.  
Publication Release Date: March 2017  
- 25 -  
Revision 1.32  
ISD4004 SERIES  
9.3. SPI AC PARAMETERS  
PARAMETER  
TABLE 12: AC PARAMETERS[1]  
SYMBOL  
MIN  
TYP  
MAX  
UNITS  
CONDITIONS  
TSSS  
500  
nsec  
SS Setup Time  
TSSH  
500  
nsec  
SS Hold Time  
Data in Setup Time  
Data in Hold Time  
Output Delay  
TDIS  
TDIH  
TPD  
200  
200  
nsec  
nsec  
nsec  
nsec  
µsec  
500  
500  
Output Delay to HighZ [2]  
TDF  
TSSmin  
1
SS HIGH  
SCLK High Time  
SCLK Low Time  
CLK Frequency  
TSCKhi  
TSCKlow  
F0  
400  
400  
nsec  
nsec  
KHz  
1,000  
Notes:  
[1]  
Typical values @ TA = 25C, VCC = 3.0V and timing measurement at 50% of Vcc level.  
[2]  
Tri-state test condition.  
VCC  
6.32K  
MISO  
10.91K  
50pF (Includes scope and fixture capacitance)  
Publication Release Date: March 2017  
Revision 1.32  
- 26 -  
ISD4004 SERIES  
10.TYPICAL APPLICATION CIRCUIT  
These application examples are for illustration purposes only. Nuvoton makes no representation or  
warranty that such application will be suitable for production.  
Make sure all bypass capacitors are as close as possible to the package.  
C9  
C8  
15-30 pF  
15-25 pF  
VCC  
U2  
U1  
39  
38  
29  
30  
31  
32  
33  
34  
3
2
27  
4
OCS1  
OCS2  
PD0/RDI  
MISO  
MOSI  
SCLK  
SS  
VCCD  
R7  
C2 0.1  
F
F
10 K  
PD1/TD0  
PD2/MISO  
PD3/MOSI  
PD4/SCK  
PD5/SS  
VSSD  
28  
1
C1  
22  
1
2
RESET  
IRQ  
F
18  
23  
12  
VCCA  
VSSA  
VSSA  
VSSA  
C3 0.1  
C4  
37  
35  
28  
27  
26  
25  
24  
23  
22  
21  
TCAP  
PC0  
PC1  
PC2  
PC3  
PC4  
PC5  
C11  
11  
13  
1
F
0.1  
F
J1  
16  
3
2
4
5
1
ANA IN- AUD OUT  
ISD4004  
LINE OUT  
C10  
TCMP  
R2  
1M  
F 17  
0.1  
ANA IN+  
VCC  
R1  
10K  
68HC705C8PPC6  
24  
25  
PC7  
RAC  
14  
AM CAP  
R4  
R3 100  
100K POT  
12  
13  
14  
15  
16  
17  
18  
19  
PB0  
PB1  
PB2  
PB3  
PB4  
PB5  
PB6  
PB7  
INT  
1
R6  
3
C5  
47 K  
1
F
2
U3  
11  
10  
9
26  
PA0  
PA1  
PA2  
PA3  
PA4  
PA5  
PA6  
PA7  
PD7  
XCLK  
13  
11  
-IN  
GAIN-OUT  
V01  
J4  
3
2
4
5
1
10  
14  
+IN  
EXT  
8
SPEAKER  
15  
12  
V02  
VDD  
PDIP / SOIC  
VCC  
5
BYPASS  
7
6
6
7
HP-IN1  
HP-IN2  
C6  
C7  
1
F
1
4
GND  
GND  
GND  
GND  
GND  
.1  
F
5
4
3
2
HPSENSE  
R5  
8
47 K  
SHUTDOWN  
9
16  
LM4860M  
FIGURE 9: APPLICATION EXAMPLE USING SPI  
Publication Release Date: March 2017  
Revision 1.32  
- 27 -  
ISD4004 SERIES  
VCC  
U2  
U1  
3
22  
27  
4
MISO  
VCCD  
D3  
23  
GND  
C2 0.1  
F
2
28  
1
21  
20  
19  
MOSI  
SCLK  
SS  
D2  
D1  
D0  
VSSD  
C1  
22  
F
28  
27  
26  
G3  
G2  
G1  
18  
23  
12  
11  
VCCA  
VSSA  
24  
RESET  
C3 0.1  
F
VSSA  
VSSA  
INT 25  
3
C4  
SI  
SK  
G7  
SO  
C9  
1
F
0.1  
F
J1  
16  
13  
2
4
1
3
2
4
5
1
ANA IN-  
AUD OUT  
VCC  
COP 820C  
LINE OUT  
ISD4004  
6
VCC  
R2  
1M  
C8  
0.1  
F 17  
24  
18  
17  
16  
L7  
L6  
L5  
L4  
ANA IN+  
RAC  
R1  
10K  
R7  
R4  
R3 100  
3.3 K  
14  
100K POT  
AM CAP  
1
3
5
7
8
15  
CLI  
10  
C5  
2
U3  
14  
13  
L3  
L2  
L1  
L0  
25  
26  
1
F
INT  
13  
11  
-IN  
GAIN-OUT  
V01  
11  
J4  
3
2
4
5
1
10  
14  
+IN  
C10  
82 pF  
EXT  
SPEAKER  
9
12  
11  
12  
13  
VCC  
XCLK  
VCC  
15  
12  
V02  
VDD  
5
10  
BYPASS  
6
7
HP-IN1  
HP-IN2  
C6  
R6  
4.7 K  
C7  
1
F
R5  
4.7 K  
1
4
GND  
GND  
GND  
GND  
GND  
F
.1  
3
2
HPSENSE  
PDIP / SOIC  
8
9
16  
SHUTDOWN  
LM4860M  
FIGURE 10: APPLICATION EXAMPLE USING MICROWIRE  
Publication Release Date: March 2017  
Revision 1.32  
- 28 -  
ISD4004 SERIES  
VCC  
U2  
U1  
3
2
27  
4
MISO  
VCCD  
15  
16  
RC4  
RC5  
RC3  
RC4  
8
VSS  
C2 0.1  
F
MOSI  
SCLK  
SS  
VSSD  
28  
1
C1  
22  
19  
VSS  
F
14  
7
18  
23  
12  
11  
VCCA  
VSSA  
1
MCLR  
C3 0.1  
F
21  
RB0  
VSSA  
VSSA  
C9  
C4  
0.1  
F
1
F
J1  
16  
13  
3
2
4
5
1
ANA IN-  
AUD OUT  
VCC  
PIC16C62A  
LINE OUT  
ISD4004  
C8  
R2  
1M  
0.1  
F
20  
VDD  
17  
ANA IN+  
RAC  
R1  
10K  
R7  
R4  
24  
R3 100  
3.3 K  
14  
100K POT  
AM CAP  
1
3
C5  
2
U3  
11  
RC0  
25  
26  
1
F
INT  
13  
11  
-IN  
GAIN-OUT  
V01  
J4  
3
2
4
5
1
10  
14  
+IN  
9
OSC1  
EXT  
VCC  
SPEAKER  
XCLK  
VCC  
15  
12  
V02  
VDD  
5
BYPASS  
C10  
6
7
HP-IN1  
HP-IN2  
C6  
R6  
4.7 K  
C7  
1
F
R5  
4.7 K  
1
4
GND  
GND  
GND  
GND  
GND  
F
.1  
3
2
HPSENSE  
PDIP / SOIC  
8
9
16  
SHUTDOWN  
LM4860M  
FIGURE 11: APPLICATION EXAMPLE USING SPI PORT ON MICROCONTROLLER  
Publication Release Date: March 2017  
Revision 1.32  
- 29 -  
ISD4004 SERIES  
11.PACKAGING AND DIE INFORMATION  
11.1.  
28-LEAD 300-MIL PLASTIC SMALL OUTLINE IC (SOIC)  
28  
26 25  
23 22 21 20 19 18 17  
15  
16  
27  
24  
1
2
3
4
5
6 7  
9 10 11 12 13 14  
8
A
G
C
B
D
F
E
H
INCHES  
Nom  
MILLIMETERS  
Min  
Max  
0.711  
0.104  
0.299  
0.0115  
0.019  
Min  
Nom  
17.93  
2.56  
7.52  
0.22  
0.41  
1.27  
10.31  
0.81  
Max  
18.06  
2.64  
7.59  
0.29  
0.48  
A
B
C
D
E
F
0.701  
0.097  
0.292  
0.005  
0.014  
0.706  
0.101  
0.296  
0.009  
0.016  
0.050  
0.406  
0.032  
17.81  
2.46  
7.42  
0.127  
0.35  
G
H
0.400  
0.024  
0.410  
0.040  
10.16  
0.61  
10.41  
1.02  
Note: Lead coplanarity to be within 0.004 inches.  
Publication Release Date: March 2017  
Revision 1.32  
- 30 -  
ISD4004 SERIES  
11.2.  
28-LEAD 600-MIL PLASTIC DUAL INLINE PACKAGE (PDIP)  
INCHES  
Nom  
MILLIMETERS  
Nom  
Min  
Max  
Min  
Max  
A
1.445  
1.450  
0.150  
0.070  
1.455  
36.70  
36.83  
3.81  
1.78  
36.96  
B1  
B2  
C1  
C2  
D
0.065  
0.600  
0.530  
0.075  
0.625  
0.550  
0.19  
1.65  
15.24  
13.46  
1.91  
15.88  
13.97  
4.83  
0.540  
13.72  
D1  
E
0.015  
0.125  
0.015  
0.055  
0.38  
3.18  
0.38  
1.40  
0.135  
0.022  
0.065  
3.43  
0.56  
1.62  
F
0.018  
0.060  
0.100  
0.010  
0.075  
0.46  
1.52  
2.54  
0.25  
1.91  
G
H
J
0.008  
0.070  
0°  
0.012  
0.080  
15°  
0.20  
1.78  
0°  
0.30  
2.03  
15°  
S
q
Publication Release Date: March 2017  
Revision 1.32  
- 31 -  
ISD4004 SERIES  
11.3.  
DIE INFORMATION  
ISD4004 Series  
o
Die Dimensions (with scribe line) [1]  
VCCD  
MOSI  
MISO  
SCLK  
VSSD  
INT  
RAC  
VCCD  
XCLK  
SS  
X: 166.6 1 mils  
VSSD  
VSSA  
Y: 385.0 1 mils  
o
o
Die Thickness [2]  
11.5 0.5 mils  
Pad Opening  
Single pad: 90 x 90 microns  
Double pad: 180 x 90 microns  
ISD4004  
[3]  
[3]  
VSSA  
[3]  
VCCA  
AUD OUT  
AM CAP  
ANA IN-  
ANA IN+  
[3]  
VSSA  
VCCA  
VSSA  
Notes:  
[1]  
The backside of die is internally connected to VSS. It MUST NOT be connected to any other potential or  
damage may occur.  
[2]  
[3]  
Die thickness is subject to change, please contact Nuvoton as this thickness may change in the future.  
Double bond is recommended if treated as one pad.  
Publication Release Date: March 2017  
- 32 -  
Revision 1.32  
ISD4004 SERIES  
ISD4004 SERIES PAD COORDINATIONS  
(with respect to die center)  
Pad  
Pad Description  
Analog Ground  
X Axis (µm)  
1885.2  
Y Axis (µm)  
4623.7  
VSSA  
RAC  
Row Address Clock  
Interrupt  
1483.8  
4623.7  
794.8  
4623.7  
INT  
XCLK  
VCCD  
External Clock Input  
Digital Power Supply  
Digital Power Supply  
Slave Clock  
564.8  
387.9  
169.5  
-14.7  
4623.7  
4623.7  
4623.7  
4623.7  
4623.7  
VCCD  
SCLK  
Slave Select  
-198.1  
SS  
MOSI  
MISO  
VSSD  
VSSD  
Master Out Slave In  
Master In Slave Out  
Digital Ground  
-1063.7  
-1325.6  
-1665.3  
-1836.9  
-1943.1  
-1853.1  
-1599.9  
281.9  
4623.7  
4623.7  
4623.7  
4623.7  
-4622.4  
-4622.4  
-4622.4  
-4622.4  
-4622.4  
-4622.4  
-4622.4  
-4622.4  
-4622.4  
Digital Ground  
[1]  
VSSA  
VSSA  
VSSA  
Analog Ground  
[1]  
Analog Ground  
Analog Ground  
AUD OUT  
AM CAP  
ANA IN-  
ANA IN+  
Audio Output  
AutoMute  
577.3  
Inverting Analog Input  
Noninverting Analog Input  
Analog Power Supply  
Analog Power Supply  
1449.3  
1603.5  
1853.7  
1943.7  
[1]  
VCCA  
[1]  
VCCA  
Note:  
[1]  
Double bond recommended if treated as one pad.  
Publication Release Date: March 2017  
Revision 1.32  
- 33 -  
ISD4004 SERIES  
12.ORDERING INFORMATION  
ISD4004-  
Product Family :  
Special Temperature Field :  
ISD4000 Family  
Blank = Commercial Package (0°C to + 70°C)  
or Commercial Die (0°C to + 50°C)  
Product Series :  
I
=
Industrial (-40°C to + 85°C)  
04  
=
Fourth Series (8-16 min)  
Duration :  
Lead-Free Type:  
= Lead-Free  
Y
08M  
10M  
12M  
16M  
=
=
=
=
8 minutes  
10 minutes  
12 minutes  
16 minutes  
Packaged Units / Die :  
X
P
S
=
=
=
Die  
28-Lead 600-mil Plastic Dual Inline Package (PDIP)  
28-Lead 300-mil Plastic Small Outline Package (SOIC)  
When ordering the devices, please refer to the following valid ordering numbers and contact the local  
Nuvoton Sales Representatives for availability.  
Type Durati  
on  
8 Minutes  
Part #  
10 Minutes  
Part #  
12 Minutes  
Part # Order #  
16 Minutes  
Part #  
Packa  
ge  
Order #  
Order #  
Order #  
ISD4004-08MX  
ISD4004-08MPY  
ISD4004-08MSY  
I4408X  
ISD4004-10MX  
I4410X  
ISD4004-12MX I4412X  
ISD4004-16MX  
I4416X  
Die  
I4408PY ISD4004-10MPY I4410PY ISD4004-12MP I4412PY  
I4408SY ISD4004-10MSY I4410SY ISD4004-12MS I4412SY  
ISD4004-16MPY I4416PY  
ISD4004-16MSY I4416SY  
PDIP  
SOIC  
ISD4004-08MSYI I4408SY ISD4004-10MSYI I4410SYI ISD4004-  
12MSI  
I4412SYI ISD4004-  
16MSYI  
I4416SY  
I
I
For the latest product information, access Nuvoton worldwide website at http://www.Nuvoton-usa.com  
Publication Release Date: March 2017  
- 34 -  
Revision 1.32  
ISD4004 SERIES  
13.VERSION HISTORY  
VERSION  
DATE  
DESCRIPTION  
0
June 2000  
Feb. 2004  
Initial version  
1.0  
Reformat the document.  
Add note for typical filter pass band.  
Add memory architecture description.  
Revise RAC timing parameter for MC.  
Revise AutoMute: playback only.  
Revise SPI, opcodes sections, record & playback steps.  
Rename TRACLO to TRACL  
.
Revise AARP parameter.  
Revise DC & AC parameters tables for die.  
Revise die: (x,y) coordinates.  
1.1  
Apr. 2005  
Add lead-free parts.  
Revise the Ordering information.  
Revise disclaim section.  
1.2  
1.3  
Oct. 2005  
Jul. 2007  
Revise Packaging information.  
Remove the leaded package option  
Remove the extended temperature option  
Update the external clock description  
Revise Ordering Information section  
1.31  
1.32  
Oct 31, 2008 Change to Nuvoton logo  
Revise MISO description  
March, 2017 Removed TSOP Package not recommended for new design  
Publication Release Date: March 2017  
Revision 1.32  
- 35 -  
ISD4004 SERIES  
Nuvoton products are not designed, intended, authorized or warranted for use as components in systems or equipment  
intended for surgical implantation, atomic energy control instruments, airplane or spaceship instruments, transportation  
instruments, traffic signal instruments, combustion control instruments, or for other applications intended to support or  
sustain life. Furthermore, Nuvoton products are not intended for applications wherein failure of Nuvoton products could  
result or lead to a situation wherein personal injury, death or severe property or environmental damage could occur.  
Nuvoton customers using or selling these products for use in such applications do so at their own risk and agree to fully  
indemnify Nuvoton for any damages resulting from such improper use or sales.  
The contents of this document are provided only as a guide for the applications of Nuvoton products. Nuvoton makes no  
representation or warranties with respect to the accuracy or completeness of the contents of this publication and  
reserves the right to discontinue or make changes to specifications and product descriptions at any time without notice.  
No license, whether express or implied, to any intellectual property or other right of Nuvoton or others is granted by this  
publication. Except as set forth in Nuvoton's Standard Terms and Conditions of Sale, Nuvoton assumes no liability  
whatsoever and disclaims any express or implied warranty of merchantability, fitness for a particular purpose or  
infringement of any Intellectual property.  
The contents of this document are provided “AS IS”, and Nuvoton assumes no liability whatsoever and disclaims any  
express or implied warranty of merchantability, fitness for a particular purpose or infringement of any Intellectual  
property. In no event, shall Nuvoton be liable for any damages whatsoever (including, without limitation, damages for loss  
of profits, business interruption, loss of information) arising out of the use of or inability to use the contents of this  
documents, even if Nuvoton has been advised of the possibility of such damages.  
Application examples and alternative uses of any integrated circuit contained in this publication are for illustration only  
and Nuvoton makes no representation or warranty that such applications shall be suitable for the use specified.  
The 100-year retention and 100K record cycle projections are based upon accelerated reliability tests, as published in the  
Nuvoton Reliability Report, and are neither warranted nor guaranteed by Nuvoton. This product incorporates  
SuperFlash®.  
Information contained in this ISD® ChipCorder® datasheet supersedes all data for the ISD ChipCorder products published  
by ISD® prior to August, 1998.  
This datasheet and any future addendum to this datasheet is(are) the complete and controlling ISD® ChipCorder® product  
specifications. In the event any inconsistencies exist between the information in this and other product documentation,  
or in the event that other product documentation contains information in addition to the information in this, the information  
contained herein supersedes and governs such other information in its entirety. This datasheet is subject to change  
without notice.  
Copyright© 2005, Nuvoton Technology Corporation. All rights reserved. ChipCorder® and ISD® are trademarks of  
Nuvoton Technology Corporation. SuperFlash® is the trademark of Silicon Storage Technology, Inc. All other trademarks  
are properties of their respective owners.  
Headquarters  
Nuvoton Technology Corporation America  
Nuvoton Technology (Shanghai) Ltd.  
No. 4, Creation Rd. III  
Science-Based Industrial Park,  
Hsinchu, Taiwan  
2727 North First Street, San Jose,  
CA 95134, U.S.A.  
TEL: 1-408-9436666  
27F, 299 Yan An W. Rd. Shanghai,  
200336 China  
TEL: 86-21-62365999  
FAX: 86-21-62356998  
TEL: 886-3-5770066  
FAX: 1-408-5441797  
FAX: 886-3-5665577  
http://www.Nuvoton-usa.com/  
http://www.Nuvoton.com.tw/  
Taipei Office  
Nuvoton Technology Corporation Japan  
Nuvoton Technology (H.K.) Ltd.  
9F, No. 480, Pueiguang Rd.  
Neihu District  
Taipei, 114 Taiwan  
TEL: 886-2-81777168  
FAX: 886-2-87153579  
7F Daini-ueno BLDG. 3-7-18  
Shinyokohama Kohokuku,  
Yokohama, 222-0033  
TEL: 81-45-4781881  
Unit 9-15, 22F, Millennium City,  
No. 378 Kwun Tong Rd.,  
Kowloon, Hong Kong  
TEL: 852-27513100  
FAX: 852-27552064  
FAX: 81-45-4781800  
Please note that all data and specifications are subject to change without notice.  
All the trademarks of products and companies mentioned in this datasheet belong to their respective owners.  
Publication Release Date: March 2017  
Revision 1.32  
- 36 -  

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