CY7C64013-PC Cypress Semiconductor Corp, CY7C64013-PC Datasheet - Page 7

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CY7C64013-PC

Manufacturer Part Number
CY7C64013-PC
Description
IC MCU 8K FULL SPEED USB 28DIP
Manufacturer
Cypress Semiconductor Corp
Series
M8™r
Datasheet

Specifications of CY7C64013-PC

Applications
USB Microcontroller
Core Processor
M8C
Program Memory Type
OTP (8 kB)
Controller Series
CY7C640xx
Ram Size
256 x 8
Interface
I²C, USB, HAPI
Number Of I /o
19
Voltage - Supply
4 V ~ 5.25 V
Operating Temperature
0°C ~ 70°C
Mounting Type
Through Hole
Package / Case
28-DIP (0.300", 7.62mm)
For Use With
428-1339 - KIT LOW SPEED PERSONALITY BOARD
Lead Free Status / RoHS Status
Contains lead / RoHS non-compliant
Other names
428-1326

Available stocks

Company
Part Number
Manufacturer
Quantity
Price
Part Number:
CY7C64013-PC
Manufacturer:
CY
Quantity:
101
Part Number:
CY7C64013-PC
Manufacturer:
CY
Quantity:
116
CY7C64013
CY7C64113
2.0
Functional Overview
The CY7C64013 and CY7C64113 are 8-bit One Time Programmable microcontrollers that are designed for full-speed USB
applications. The instruction set has been optimized specifically for USB operations, although the microcontrollers can be used
for a variety of non-USB embedded applications.
GPIO
The CY7C64013 features 19 GPIO pins to support USB and other applications. The I/O pins are grouped into three ports (P0[7:0],
P1[2:0], P2[6:2], P3[2:0]) where each port can be configured as inputs with internal pull-ups, open drain outputs, or traditional
CMOS outputs. There are 16 GPIO pins (Ports 0 and 1) which are rated at 7 mA typical sink current. Port 3 pins are rated at 12
mA typical sink current, a current sufficient to drive LEDs. Multiple GPIO pins can be connected together to drive a single output
for more drive current capacity. Additionally, each GPIO can be used to generate a GPIO interrupt to the microcontroller. All of
the GPIO interrupts share the same “GPIO” interrupt vector.
The CY7C64113 has 32 GPIO pins (P0[7:0], P1[7:0], P2[7:0], P3[7:0])
DAC
The 64113 has four programmable sink current I/O pins (DAC) pins (P4[7,2:0]). Every DAC pin includes an integrated 14-kΩ pull-
up resistor. When a ‘1’ is written to a DAC I/O pin, the output current sink is disabled and the output pin is driven HIGH by the
internal pull-up resistor. When a ‘0’ is written to a DAC I/O pin, the internal pull-up resistor is disabled and the output pin provides
the programmed amount of sink current. A DAC I/O pin can be used as an input with an internal pull-up by writing a ‘1’ to the pin.
The sink current for each DAC I/O pin can be individually programmed to one of 16 values using dedicated Isink registers. DAC
bits P4[1:0] can be used as high-current outputs with a programmable sink current range of 3.2 to 16 mA (typical). DAC bits
P4[7,2] have a programmable current sink range of 0.2 to 1.0 mA (typical). Multiple DAC pins can be connected together to drive
a single output that requires more sink current capacity. Each I/O pin can be used to generate a DAC interrupt to the microcon-
troller. Also, the interrupt polarity for each DAC I/O pin is individually programmable.
Clock
The microcontroller uses an external 6-MHz crystal and an internal oscillator to provide a reference to an internal PLL-based
clock generator. This technology allows the customer application to use an inexpensive 6-MHz fundamental crystal that reduces
the clock-related noise emissions (EMI). A PLL clock generator provides the 6-, 12-, and 48-MHz clock signals for distribution
within the microcontroller.
Memory
The CY7C64013 and CY7C64113 have 8 KB of PROM.
Power on Reset, Watchdog and Free running Time
These parts include power-on reset logic, a Watchdog timer, and a 12-bit free-running timer. The power-on reset (POR) logic
detects when power is applied to the device, resets the logic to a known state, and begins executing instructions at PROM address
0x0000. The Watchdog timer is used to ensure the microcontroller recovers after a period of inactivity. The firmware may become
inactive for a variety of reasons, including errors in the code or a hardware failure such as waiting for an interrupt that never occurs.
I2C and HAPI Interface
2
The microcontroller can communicate with external electronics through the GPIO pins. An I
C-compatible interface accommo-
dates a 100-kHz serial link with an external device. There is also a Hardware Assisted Parallel Interface (HAPI) which can be
used to transfer data to an external device.
Timer
The free-running 12-bit timer clocked at 1 MHz provides two interrupt sources, 128-µs and 1.024-ms. The timer can be used to
measure the duration of an event under firmware control by reading the timer at the start of the event and after the event is
complete. The difference between the two readings indicates the duration of the event in microseconds. The upper four bits of
the timer are latched into an internal register when the firmware reads the lower eight bits. A read from the upper four bits actually
reads data from the internal register, instead of the timer. This feature eliminates the need for firmware to try to compensate if the
upper four bits increment immediately after the lower eight bits are read.
Interrupts
The microcontroller supports 11 maskable interrupts in the vectored interrupt controller. Interrupt sources include the USB Bus
Reset interrupt, the 128-µs (bit 6) and 1.024-ms (bit 9) outputs from the free-running timer, five USB endpoints, the DAC port, the
2
GPIO ports, and the I
C-compatible master mode interface. The timer bits cause an interrupt (if enabled) when the bit toggles
from LOW ‘0’ to HIGH ‘1.’ The USB endpoints interrupt after the USB host has written data to the endpoint FIFO or after the USB
controller sends a packet to the USB host. The DAC ports have an additional level of masking that allows the user to select which
DAC inputs can cause a DAC interrupt. The GPIO ports also have a level of masking to select which GPIO inputs can cause a
GPIO interrupt. For additional flexibility, the input transition polarity that causes an interrupt is programmable for each pin of the
DAC port. Input transition polarity can be programmed for each GPIO port as part of the port configuration. The interrupt polarity
can be rising edge (‘0’ to ‘1’) or falling edge (‘1’ to ‘0’).
Document #: 38-08001 Rev. *A
Page 7 of 51

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