Change default pinmux of functional pads to GPIOs. It includes:
1. PIN96.A0.A2.A4 - If internal flash is supported
2. PIND2.00 - Default PSL inputs
3. PIN31.30.27.26.25.24.23.22 - Keyboard inputs
4. PIN21.20.17.16.15.14.13.12.11.10.07.06.05.04.82.83.03.B1 - Keyboard
outputs
5. Add description for soc_pinctrl_mux_configure() usage.
It also fixed the typo and inverse mistakes in npcx7-alts-map.dtsi.
Signed-off-by: Mulin Chao <MLChao@nuvoton.com>
This change allows to use SSD1306 based displays to be used on the
SPI bus as well.
Adding SPI shield.
Tested on SSD1306 and SSD1309 based displays using I2C.
Tested on SSD1309 based display using SPI.
Signed-off-by: Marco Peter <marco@peter-net.ch>
This CL adds more comments for each macro functions used for device tree
file for better explanations. It also changes all hex values in soc.c to
lower case.
Signed-off-by: Mulin Chao <MLChao@nuvoton.com>
This CL contains the drivers of NPCX Host Sub-Modules that serve as an
interface between the Host and Core domains. For most of them, the Host
can configure these modules via eSPI(Peripheral Channel)/LPC by
accessing 'Configuration and Control register Set' which IO base address
is 0x4E as default. And the interrupts in core domain help handling any
events from host side.
In this commit, we introduced six host sub-modules. It includes:
1. Keyboard and Mouse Controller (KBC) interface.
2. Power Management (PM) channels.
3. Shared Memory mechanism (SHM).
4. Core Access to Host Modules (C2H).
5. Mobile System Wake-Up functions (MSWC).
6. Serial Port (Legacy UART)
The tasks in application layer such as 8042, ACPI and host command can
cooperation with this driver by connecting api or callback functions.
Signed-off-by: Mulin Chao <MLChao@nuvoton.com>
In npcx7 series, all of them support the Intel Enhanced Serial
Peripheral Interface (eSPI) Revision 1.0. This specification provides a
path for migrating host sub-devices via LPC to a lower pin count, higher
bandwidth bus. In addition to Host communication via the peripheral
channel, it provides virtual wires support, out-of-band communication,
and device mastering option over the Chipset SPI flash.
Becisdes introducing eSPI device in npcx7, this CL also includes:
1. Add eSPI device tree declarations.
2. Add npcx7-espi-vws-map.dtsi to present the relationship between eSPI
Virtual-Wire signals, eSPI registers, and wake-up input sources.
3. Zephyr eSPI api implementation.
4, Add OOB (Out of Band tunneled SMBus) support.
5. Add configuration files for eSPI test suites.
Signed-off-by: Mulin Chao <MLChao@nuvoton.com>
stm32f1 series pin controller IP is not compatible with other stm32
series.
Set the dedicated st,stm32f1-pinctrl compatible for pinctrl node.
Signed-off-by: Erwan Gouriou <erwan.gouriou@linaro.org>
Provide yaml bindings for st,stm32f1-pinctrl copmpatible.
It differs from generic stm32 pinctrl bindings on the following points:
- Pinmux "function" parameter: Alternate, General output, Input, Analog
- Pinmux supports an additional "remap" parameter to encode potential
remapping configuration
- Bias configs only apply to input modes
- Drive and speed configs only apply to output modes
Signed-off-by: Erwan Gouriou <erwan.gouriou@linaro.org>
Rename compatible st,stm32-pinmux to st,stm32-pinctrl to better
reflect the nature of upcoming child nodes.
Signed-off-by: Erwan Gouriou <erwan.gouriou@linaro.org>
STM32L151xC SoC differs from other L1 SoCs in RAM (32KiB) and
flash (256KiB) size, and amount of interrupts (57, see STM32Cube).
Devicetree and Kconfig support.
Signed-off-by: Noelle Clement <noelleclement@hotmail.com>
Allow to reconfigure UART baudrate on ESP and on host MCU, so a
non-default baudrate can be used for communication. This option helps
for example to increase network bandwidth without touching ESP chip
firmware.
Signed-off-by: Marcin Niestroj <m.niestroj@grinn-global.com>
Move pixel format setting (RGB565/RGB888) to DeviceTree. Add support for
changing pixel format at runtime.
Signed-off-by: Gerard Marull-Paretas <gerard@teslabs.com>
Adds imx rt support.
Allows n-number of can interfaces based on device-tree.
Adds a "common" irq name.
Added CAN bus pins and dts for 1060 and 1064 EVK.
Signed-off-by: Rick Talbott <rtalbott@fastmail.com>
* Add ADC2 and ADC3 to the F103xE definition.
* Add a dtsi file for the F103xG based on the F103xE.
The F103xG has 1 MB of flash, 96 KB of RAM, and additional timers
TIM9/10/11/12/13/14.
Signed-off-by: Paul Fagerburg <pfagerburg@google.com>
Move the devicetree bindings for Analog-to-Digital Converters (ADCs)
from dts/bindings/iio/adc to dts/bindings/adc as Zephyr does not have
an IIO layer.
Signed-off-by: Henrik Brix Andersen <hebad@vestas.com>
update rt6xx series sram mapping to skip 0x180000,
reserved for DSP usage.
this fixes tests/subsys/debug/coredump for this board
Signed-off-by: Hake Huang <hake.huang@oss.nxp.com>
The sam4l pinctrl contains two entries with wrong values. Fix the
typo to create valid pinctrl map.
Fixes#28538.
Signed-off-by: Gerson Fernando Budke <nandojve@gmail.com>
HAS_DTS_I2C is now selected by I2C and
always used as I2C && HAS_DTS_I2C.
It could then be purely removed.
Signed-off-by: Erwan Gouriou <erwan.gouriou@linaro.org>
Change #28199 introduced systick configuration from device tree.
For now this should not be used on platforms that support alternate
tick source, as this is the case on l4 and wb series with LPTIM.
Until dts allows to configure lptim from dts, keep systick disabled
by default on these platforms.
Fixes#28280
Signed-off-by: Erwan Gouriou <erwan.gouriou@linaro.org>
Use setting from devicetree to drive the default setting for
CORTEX_M_SYSTICK. We update the dts files to default systick to be
enabled since the major of cortex-m platforms utilize it by default
(except on Nordic SoCs, TI CC13x2/CC26x2 and MEC1501 in which we
default to disabled).
Fixes#25299
Signed-off-by: Kumar Gala <kumar.gala@linaro.org>
The host command peripheral device API abstracts how an embedded
controller sends and receives data from a host on a bus. Each bus like
eSPI, SPI, or I2C would implement their own host command peripheral
device. Each hardware device would then handle the necessary hardware
access to send and receive data over that bus.
The chosen host command peripheral device will be used by the host
command handler framework to send and receive host data correctly.
Signed-off-by: Jett Rink <jettrink@google.com>
The SX126x supports using DIO2 to control an TX switch, but only if
the switch can be operated using a single control signal. Add support
for RF switches that are wired to a GPIO instead of the radio chip
itself. This makes it possible to use RF switches that require two
control signals (one for the RX port and one for the TX port) by
wiring them to two GPIOs on the MCU.
Signed-off-by: Andreas Sandberg <andreas@sandberg.pp.se>
Add sector-size property to at45.yaml binding.
Different at45 flash memories have different sector sizes.
Signed-off-by: Marin Jurjevic <marin.jurjevic@hotmail.com>
Add devicetree support to specify bias-pull-up, bias-pull-down, and
drive-open-drain for pin configuration.
Signed-off-by: Kumar Gala <kumar.gala@linaro.org>
Instantiate RTT UART instances from devicetree nodes instead of from
Kconfig symbols. While RTT is implemented using software, not hardware,
it is emulating a hardware device, and thus should be configured through
devicetree. This allows the simulated UART device to be selected via
devicetree aliases and chosen nodes.
The following devicetree snippet will instantiate RTT channels 0 and 2
as UART devices.
```
/ {
rtt0: rtt_terminal {
compatible = "segger,rtt-uart";
label = "rtt_terminal";
status = "okay";
};
rtt2: rtt_secondary {
compatible = "segger,rtt-uart";
label = "rtt_app_specific";
status = "okay";
};
};
```
Fixes the RTT portion of #10621.
Signed-off-by: Jordan Yates <jordan.yates@data61.csiro.au>
Add support for UARTs 3-6 to the stm32f030xc SoC. These additional UARTs
share a single interrupt line, so only one may be enabled at a time.
Signed-off-by: Brian Kubisiak <brian@kubisiak.com>
Add an emulation controller which routes I2C traffic to attached
emulators depending on the I2C address selected. This allows drivers
for I2C peripherals to be tested on systems that don't have that
peripheral attached, with the emulator handling the I2C traffic.
Signed-off-by: Simon Glass <sjg@chromium.org>
Signed-off-by: Peter Bigot <peter.bigot@nordicsemi.no>
This CL configures the UART wake-up event triggered from a falling edge
(START condition) on CR_SIN pin. It also includes:
1. Introduce wui_maps property in yaml file to present relationship
between Wake-Up Input (WUI) and UART device.
2. Implement wake-up mechanism by MIWU api functions.
Signed-off-by: Mulin Chao <MLChao@nuvoton.com>
Add gpio support for Nuvoton NPCX series. This CL includes:
1. Add GPIO device tree declarations.
2. Introduce wui_maps property in yaml file to present relationship
between Wake-Up
Input (WUI) and 8 IOs belong to the device.
3. Zephyr GPIO api implementation.
4. GPIO callback functions implementation with MIWU api functions.
5. Overlay file for gpio basic tests
Signed-off-by: Mulin Chao <MLChao@nuvoton.com>
The device Multi-Input Wake-Up Unit (MIWU) supports the embedded
controller (EC) to exit 'Sleep' or 'Deep Sleep' power state which allows
chip has better power consumption. Also, it provides signal conditioning
such as 'Level' and 'Edge' trigger type and grouping of external
interrupt sources of NVIC. The NPCX series has three identical MIWU
modules: MIWU0, MIWU1, MIWU2. Together, they support a total of over 140
internal and/or external wake-up sources.
In this CL, we use device tree files to present the relationship bewteen
MIWU and the other devices in different npcx series. For npcx7 series,
it include:
1. npcx7-miwus-int-map.dtsi: it presents relationship between MIWU group
and NVIC interrupt in npcx7. Please notice it isn't 1-to-1 mapping.
2. npcx7-miwus-wui-map.dtsi: it presents relationship between input of
MIWU and its source device such as gpio, timer, eSPI VWs and so on.
This CL also includes:
1. Add MIWU device tree declarations.
2. MIWU api function declarations and implementation to configure signal
conditions and callback function mechanism. They can be be classified
into two types. One is for GPIO which connects original gpio callback
implemetation and the other is for generic devices such as timer,
eSPI, and so on.
Signed-off-by: Mulin Chao <MLChao@nuvoton.com>
