mbed-os/libraries/mbed/targets/hal/TARGET_NXP/TARGET_LPC43XX
sg- 70fad08a4c Update SPI API documentation for hardware driven SS. Modify all target spi_api.c implementations. spi_init ssel parameter was used incorrectly to determine master/slave mode rather than enable hardware driven SS (seems to be due to legacy copy paste). Remove duplicate copy paste code of initialization in spi_init that is done by constructor (SPI and SPISlave) 2015-04-10 00:38:27 -05:00
..
TARGET_LPC4330 [LPC4337] move files from LPC43XX to LPC4330 2014-09-03 02:20:48 +09:00
TARGET_LPC4337 [LPC4337] support Rev.B board on PinNames.h 2014-09-07 19:58:13 +09:00
PeripheralNames.h Updates to LPC4330_M4 drivers 2014-07-11 14:48:25 -04:00
PortNames.h Add the vendor name as a proper target label 2013-07-03 17:14:43 +01:00
README.txt Update LPC4330_M4 README 2014-07-11 15:13:54 -04:00
analogin_api.c Change "error.h" to "mbed_error.h" to avoid conflicts with 3rd party code 2014-08-15 16:19:18 +01:00
analogout_api.c [LPC4337] support AnalogOut 2014-09-11 13:48:08 +09:00
ethernet_api.c extended the year in the license 2015-01-30 13:34:03 +05:30
gpio_api.c LPC4330_M4 port_api, us_ticker update 2014-08-19 18:16:48 -04:00
gpio_irq_api.c Change "error.h" to "mbed_error.h" to avoid conflicts with 3rd party code 2014-08-15 16:19:18 +01:00
gpio_object.h Decorated all HALs with gpio_is_connected() function implementation 2014-12-19 13:37:16 +00:00
i2c_api.c Fix I2C0 pin init 2014-09-03 11:12:50 -04:00
objects.h Updates to LPC4330_M4 drivers 2014-07-11 14:48:25 -04:00
pinmap.c Change "error.h" to "mbed_error.h" to avoid conflicts with 3rd party code 2014-08-15 16:19:18 +01:00
port_api.c Fix I2C0 pin init 2014-09-03 11:12:50 -04:00
pwmout_api.c Change "error.h" to "mbed_error.h" to avoid conflicts with 3rd party code 2014-08-15 16:19:18 +01:00
rtc_api.c [LPC4337] Remove init variable for RTC 2014-12-25 09:41:33 +09:00
serial_api.c Changed serial pin_mode with brackets and for all targets 2014-10-06 12:15:24 +02:00
sleep.c Add the vendor name as a proper target label 2013-07-03 17:14:43 +01:00
spi_api.c Update SPI API documentation for hardware driven SS. Modify all target spi_api.c implementations. spi_init ssel parameter was used incorrectly to determine master/slave mode rather than enable hardware driven SS (seems to be due to legacy copy paste). Remove duplicate copy paste code of initialization in spi_init that is done by constructor (SPI and SPISlave) 2015-04-10 00:38:27 -05:00
us_ticker.c changes proposed from Martin's review 2014-08-29 17:02:40 +01:00

README.txt

mbed port to NXP LPC43xx
========================
Updated: 07/11/14

The NXP LPC43xx microcontrollers includes multiple Cortex-M cores in a single
microcontroller package. This port allows mbed developers to take advantage
of the LPC43xx in their application using APIs that they are familiar with.
Some of the key features of the LPC43xx include:

* Dual core ARM Cortex-M4/M0 both capable of up to 204 MHz
* Up to 264 KB SRAM, 1 MB internal flash
* Two High-speed USB 2.0 interfaces
* Ethernet MAC
* LCD interface
* Quad-SPI Flash Interface (SPIFI)
* State Configurable Timer (SCT)
* Serial GPIO (SGPIO)
* Up to 164 GPIO

The NXP LPC18xx is a single core Cortex-M3 implementation that is compatible
with the LPC43XX for cost-sensitive applications not requiring multiple cores.

mbed port to the LPC43XX - Micromint USA <support@micromint.com>

Compatibility
-------------
* This port has been tested with the following boards:
    Board                    MCU        RAM/Flash
    Micromint Bambino 200    LPC4330    264K SRAM/4 MB SPIFI flash
    Micromint Bambino 200E   LPC4330    264K SRAM/8 MB SPIFI flash
    Micromint Bambino 210    LPC4330    264K SRAM/4 MB SPIFI flash
    Micromint Bambino 210E   LPC4330    264K SRAM/8 MB SPIFI flash

* CMSIS-DAP debugging is implemented with the Micromint Bambino 210/210E.
  To debug other LPC4330 targets, use a JTAG. The NXP DFU tool can be used
  for flash programming.

* This port should support NXP LPC43XX and LPC18XX variants with a single
  codebase. The core declaration specifies the binaries to be built:
    mbed define      CMSIS define  MCU Target
    __CORTEX_M4      CORE_M4       LPC43xx Cortex-M4
    __CORTEX_M0      CORE_M0       LPC43xx Cortex-M0
    __CORTEX_M3      CORE_M3       LPC18xx Cortex-M3
  These MCUs all share the peripheral IP, common driver code is feasible.
  Yet each variant can have different memory segments, peripherals, etc.
  Plus, each board design can integrate different external peripherals
  or interfaces. A future release of the mbed SDK and its build tools will
  support specifying the target board when building binaries. At this time
  building binaries for different targets requires an external project or
  Makefile.

* No testing has been done with LPC18xx hardware.

Notes
-----
* On the LPC43xx the hardware pin name and the GPIO pin name are not the same,
  requiring different offsets for the SCU and GPIO registers. To simplify logic
  the pin identifier encodes the offsets. Macros are used for decoding.
  For example, P6_11 corresponds to GPIO3[7] and is encoded/decoded as follows:

    P6_11 = MBED_PIN(0x06, 11, 3, 7) = 0x032C0067

    MBED_SCU_REG(P6_11)  = 0x4008632C      MBED_GPIO_PORT(P6_11) = 3
    MBED_GPIO_REG(P6_11) = 0x400F4000      MBED_GPIO_PIN(P6_11)  = 7

* Pin names use multiple aliases to support Arduino naming conventions as well
  as others. For example, to use pin p21 on the Bambino 210 from mbed applications
  the following aliases are equivalent: p21, D0, UART0_TX, COM1_TX, P6_4.
  See the board pinout graphic and the PinNames.h for available aliases.

* The LPC43xx implements GPIO pin and group interrupts. Any pin in the 8 32-bit
  GPIO ports can interrupt (LPC4350 supports up to 164). On group interrupts a
  pin can only interrupt on the rising or falling edge, not both as required
  by the mbed InterruptIn class. Also, group interrupts can't be cleared
  individually. This implementation uses pin interrupts (8 on M4/M3, 1 on M0).
  A future implementation may provide group interrupt support.

* The LPC3xx PWM driver uses the State Configurable Timer (SCT). The default
  build (PWM_MODE=0) uses the unified 32-bit times. Applications that use PWM
  and require other SCT uses can use the dual 16-bit mode by changing PWM_MODE
  when building the library.