restore lost packages from 0.2.3 + fix overwritten 0.2.4 files

- Restore 29 recipe symlinks (libdrm, qtbase, dbus, sddm, pipewire, etc.)
- Restore 33 patches (KDE, libdrm, mesa, pipewire, sddm, wireplumber)
- Restore 20+ local/scripts (audit, lint, test, build helpers)
- Restore src/cook/scheduler.rs, status.rs, gnu-config/
- Restore scripts/patch-inclusion-gate.sh, run_mini1.sh, validate-collision-log.sh
- Recover TLC source from HEAD (was overwritten by 0.2.3 checkout)
- Recover 11 local/docs plans from HEAD (were overwritten)
- Recover qt6-wayland-smoke symlink from HEAD
- Fix MOTD: remove garbled ASCII art, use clean text
- Update version: 0.2.0 -> 0.2.4 in os-release, motd, config
- Reduce filesystem_size: 1536 -> 512 MiB
- Add ABSOLUTE RULE to AGENTS.md: never delete/ignore packages
- Reduce pcid scheme log verbosity: info -> debug
This commit is contained in:
2026-06-19 12:39:14 +03:00
parent ffbe098ef8
commit dc68054305
6418 changed files with 7066233 additions and 8670 deletions
@@ -0,0 +1,16 @@
/* SPDX-License-Identifier: GPL-2.0-or-later */
/*
* Copyright (C) 2022, Advanced Micro Devices, Inc.
*/
#ifndef _DMAENGINE_AMD_XDMA_H
#define _DMAENGINE_AMD_XDMA_H
#include <linux/interrupt.h>
#include <linux/platform_device.h>
int xdma_enable_user_irq(struct platform_device *pdev, u32 irq_num);
void xdma_disable_user_irq(struct platform_device *pdev, u32 irq_num);
int xdma_get_user_irq(struct platform_device *pdev, u32 user_irq_index);
#endif /* _DMAENGINE_AMD_XDMA_H */
@@ -0,0 +1,54 @@
/* SPDX-License-Identifier: GPL-2.0 */
/*
* Driver for the Synopsys DesignWare DMA Controller
*
* Copyright (C) 2007 Atmel Corporation
* Copyright (C) 2010-2011 ST Microelectronics
* Copyright (C) 2014 Intel Corporation
*/
#ifndef _DMA_DW_H
#define _DMA_DW_H
#include <linux/clk.h>
#include <linux/device.h>
#include <linux/dmaengine.h>
#include <linux/platform_data/dma-dw.h>
struct dw_dma;
/**
* struct dw_dma_chip - representation of DesignWare DMA controller hardware
* @dev: struct device of the DMA controller
* @id: instance ID
* @irq: irq line
* @regs: memory mapped I/O space
* @clk: hclk clock
* @dw: struct dw_dma that is filed by dw_dma_probe()
* @pdata: pointer to platform data
*/
struct dw_dma_chip {
struct device *dev;
int id;
int irq;
void __iomem *regs;
struct clk *clk;
struct dw_dma *dw;
const struct dw_dma_platform_data *pdata;
};
/* Export to the platform drivers */
#if IS_ENABLED(CONFIG_DW_DMAC_CORE)
int dw_dma_probe(struct dw_dma_chip *chip);
int dw_dma_remove(struct dw_dma_chip *chip);
int idma32_dma_probe(struct dw_dma_chip *chip);
int idma32_dma_remove(struct dw_dma_chip *chip);
#else
static inline int dw_dma_probe(struct dw_dma_chip *chip) { return -ENODEV; }
static inline int dw_dma_remove(struct dw_dma_chip *chip) { return 0; }
static inline int idma32_dma_probe(struct dw_dma_chip *chip) { return -ENODEV; }
static inline int idma32_dma_remove(struct dw_dma_chip *chip) { return 0; }
#endif /* CONFIG_DW_DMAC_CORE */
#endif /* _DMA_DW_H */
@@ -0,0 +1,125 @@
/* SPDX-License-Identifier: GPL-2.0 */
/*
* Copyright (c) 2018-2019 Synopsys, Inc. and/or its affiliates.
* Synopsys DesignWare eDMA core driver
*
* Author: Gustavo Pimentel <gustavo.pimentel@synopsys.com>
*/
#ifndef _DW_EDMA_H
#define _DW_EDMA_H
#include <linux/device.h>
#include <linux/dmaengine.h>
#define EDMA_MAX_WR_CH 8
#define EDMA_MAX_RD_CH 8
struct dw_edma;
struct dw_edma_region {
u64 paddr;
union {
void *mem;
void __iomem *io;
} vaddr;
size_t sz;
};
/**
* struct dw_edma_plat_ops - platform-specific eDMA methods
* @irq_vector: Get IRQ number of the passed eDMA channel. Note the
* method accepts the channel id in the end-to-end
* numbering with the eDMA write channels being placed
* first in the row.
* @pci_address: Get PCIe bus address corresponding to the passed CPU
* address. Note there is no need in specifying this
* function if the address translation is performed by
* the DW PCIe RP/EP controller with the DW eDMA device in
* subject and DMA_BYPASS isn't set for all the outbound
* iATU windows. That will be done by the controller
* automatically.
*/
struct dw_edma_plat_ops {
int (*irq_vector)(struct device *dev, unsigned int nr);
u64 (*pci_address)(struct device *dev, phys_addr_t cpu_addr);
};
enum dw_edma_map_format {
EDMA_MF_EDMA_LEGACY = 0x0,
EDMA_MF_EDMA_UNROLL = 0x1,
EDMA_MF_HDMA_COMPAT = 0x5,
EDMA_MF_HDMA_NATIVE = 0x7,
};
/**
* enum dw_edma_chip_flags - Flags specific to an eDMA chip
* @DW_EDMA_CHIP_LOCAL: eDMA is used locally by an endpoint
*/
enum dw_edma_chip_flags {
DW_EDMA_CHIP_LOCAL = BIT(0),
};
/**
* struct dw_edma_chip - representation of DesignWare eDMA controller hardware
* @dev: struct device of the eDMA controller
* @nr_irqs: total number of DMA IRQs
* @ops: DMA channel to IRQ number mapping
* @flags: dw_edma_chip_flags
* @reg_base: DMA register base address
* @ll_wr_cnt: DMA write link list count
* @ll_rd_cnt: DMA read link list count
* @ll_region_wr: DMA descriptor link list memory for write channel
* @ll_region_rd: DMA descriptor link list memory for read channel
* @dt_region_wr: DMA data memory for write channel
* @dt_region_rd: DMA data memory for read channel
* @db_irq: Virtual IRQ dedicated to interrupt emulation
* @db_offset: Offset from DMA register base
* @mf: DMA register map format
* @dw: struct dw_edma that is filled by dw_edma_probe()
*/
struct dw_edma_chip {
struct device *dev;
int nr_irqs;
const struct dw_edma_plat_ops *ops;
u32 flags;
void __iomem *reg_base;
u16 ll_wr_cnt;
u16 ll_rd_cnt;
/* link list address */
struct dw_edma_region ll_region_wr[EDMA_MAX_WR_CH];
struct dw_edma_region ll_region_rd[EDMA_MAX_RD_CH];
/* data region */
struct dw_edma_region dt_region_wr[EDMA_MAX_WR_CH];
struct dw_edma_region dt_region_rd[EDMA_MAX_RD_CH];
/* interrupt emulation */
int db_irq;
resource_size_t db_offset;
enum dw_edma_map_format mf;
struct dw_edma *dw;
bool cfg_non_ll;
};
/* Export to the platform drivers */
#if IS_REACHABLE(CONFIG_DW_EDMA)
int dw_edma_probe(struct dw_edma_chip *chip);
int dw_edma_remove(struct dw_edma_chip *chip);
#else
static inline int dw_edma_probe(struct dw_edma_chip *chip)
{
return -ENODEV;
}
static inline int dw_edma_remove(struct dw_edma_chip *chip)
{
return 0;
}
#endif /* CONFIG_DW_EDMA */
#endif /* _DW_EDMA_H */
@@ -0,0 +1,63 @@
/* SPDX-License-Identifier: GPL-2.0-only */
/*
* Driver for the High Speed UART DMA
*
* Copyright (C) 2015 Intel Corporation
*/
#ifndef _DMA_HSU_H
#define _DMA_HSU_H
#include <linux/errno.h>
#include <linux/kconfig.h>
#include <linux/types.h>
#include <linux/platform_data/dma-hsu.h>
struct device;
struct hsu_dma;
/**
* struct hsu_dma_chip - representation of HSU DMA hardware
* @dev: struct device of the DMA controller
* @irq: irq line
* @regs: memory mapped I/O space
* @length: I/O space length
* @offset: offset of the I/O space where registers are located
* @hsu: struct hsu_dma that is filed by ->probe()
* @pdata: platform data for the DMA controller if provided
*/
struct hsu_dma_chip {
struct device *dev;
int irq;
void __iomem *regs;
unsigned int length;
unsigned int offset;
struct hsu_dma *hsu;
};
#if IS_ENABLED(CONFIG_HSU_DMA)
/* Export to the internal users */
int hsu_dma_get_status(struct hsu_dma_chip *chip, unsigned short nr,
u32 *status);
int hsu_dma_do_irq(struct hsu_dma_chip *chip, unsigned short nr, u32 status);
/* Export to the platform drivers */
int hsu_dma_probe(struct hsu_dma_chip *chip);
int hsu_dma_remove(struct hsu_dma_chip *chip);
#else
static inline int hsu_dma_get_status(struct hsu_dma_chip *chip,
unsigned short nr, u32 *status)
{
return 0;
}
static inline int hsu_dma_do_irq(struct hsu_dma_chip *chip, unsigned short nr,
u32 status)
{
return 0;
}
static inline int hsu_dma_probe(struct hsu_dma_chip *chip) { return -ENODEV; }
static inline int hsu_dma_remove(struct hsu_dma_chip *chip) { return 0; }
#endif /* CONFIG_HSU_DMA */
#endif /* _DMA_HSU_H */
@@ -0,0 +1,14 @@
/* SPDX-License-Identifier: GPL-2.0 */
/*
* Definitions for the Intel integrated DMA 64-bit
*
* Copyright (C) 2019 Intel Corporation
*/
#ifndef __LINUX_DMA_IDMA64_H__
#define __LINUX_DMA_IDMA64_H__
/* Platform driver name */
#define LPSS_IDMA64_DRIVER_NAME "idma64"
#endif /* __LINUX_DMA_IDMA64_H__ */
@@ -0,0 +1,103 @@
/* SPDX-License-Identifier: GPL-2.0-only */
/*
* Copyright 2004-2009 Freescale Semiconductor, Inc. All Rights Reserved.
*/
#ifndef __LINUX_DMA_IMX_H
#define __LINUX_DMA_IMX_H
#include <linux/scatterlist.h>
#include <linux/device.h>
#include <linux/dmaengine.h>
/*
* This enumerates peripheral types. Used for SDMA.
*/
enum sdma_peripheral_type {
IMX_DMATYPE_SSI, /* MCU domain SSI */
IMX_DMATYPE_SSI_SP, /* Shared SSI */
IMX_DMATYPE_MMC, /* MMC */
IMX_DMATYPE_SDHC, /* SDHC */
IMX_DMATYPE_UART, /* MCU domain UART */
IMX_DMATYPE_UART_SP, /* Shared UART */
IMX_DMATYPE_FIRI, /* FIRI */
IMX_DMATYPE_CSPI, /* MCU domain CSPI */
IMX_DMATYPE_CSPI_SP, /* Shared CSPI */
IMX_DMATYPE_SIM, /* SIM */
IMX_DMATYPE_ATA, /* ATA */
IMX_DMATYPE_CCM, /* CCM */
IMX_DMATYPE_EXT, /* External peripheral */
IMX_DMATYPE_MSHC, /* Memory Stick Host Controller */
IMX_DMATYPE_MSHC_SP, /* Shared Memory Stick Host Controller */
IMX_DMATYPE_DSP, /* DSP */
IMX_DMATYPE_MEMORY, /* Memory */
IMX_DMATYPE_FIFO_MEMORY,/* FIFO type Memory */
IMX_DMATYPE_SPDIF, /* SPDIF */
IMX_DMATYPE_IPU_MEMORY, /* IPU Memory */
IMX_DMATYPE_ASRC, /* ASRC */
IMX_DMATYPE_ESAI, /* ESAI */
IMX_DMATYPE_SSI_DUAL, /* SSI Dual FIFO */
IMX_DMATYPE_ASRC_SP, /* Shared ASRC */
IMX_DMATYPE_SAI, /* SAI */
IMX_DMATYPE_MULTI_SAI, /* MULTI FIFOs For Audio */
IMX_DMATYPE_HDMI, /* HDMI Audio */
IMX_DMATYPE_I2C, /* I2C */
};
enum imx_dma_prio {
DMA_PRIO_HIGH = 0,
DMA_PRIO_MEDIUM = 1,
DMA_PRIO_LOW = 2
};
struct imx_dma_data {
int dma_request; /* DMA request line */
int dma_request2; /* secondary DMA request line */
enum sdma_peripheral_type peripheral_type;
int priority;
};
static inline int imx_dma_is_ipu(struct dma_chan *chan)
{
return !strcmp(dev_name(chan->device->dev), "ipu-core");
}
static inline int imx_dma_is_general_purpose(struct dma_chan *chan)
{
return !strcmp(chan->device->dev->driver->name, "imx-sdma") ||
!strcmp(chan->device->dev->driver->name, "imx-dma");
}
/**
* struct sdma_peripheral_config - SDMA config for audio
* @n_fifos_src: Number of FIFOs for recording
* @n_fifos_dst: Number of FIFOs for playback
* @stride_fifos_src: FIFO address stride for recording, 0 means all FIFOs are
* continuous, 1 means 1 word stride between FIFOs. All stride
* between FIFOs should be same.
* @stride_fifos_dst: FIFO address stride for playback
* @words_per_fifo: numbers of words per FIFO fetch/fill, 1 means
* one channel per FIFO, 2 means 2 channels per FIFO..
* If 'n_fifos_src = 4' and 'words_per_fifo = 2', it
* means the first two words(channels) fetch from FIFO0
* and then jump to FIFO1 for next two words, and so on
* after the last FIFO3 fetched, roll back to FIFO0.
* @sw_done: Use software done. Needed for PDM (micfil)
*
* Some i.MX Audio devices (SAI, micfil) have multiple successive FIFO
* registers. For multichannel recording/playback the SAI/micfil have
* one FIFO register per channel and the SDMA engine has to read/write
* the next channel from/to the next register and wrap around to the
* first register when all channels are handled. The number of active
* channels must be communicated to the SDMA engine using this struct.
*/
struct sdma_peripheral_config {
int n_fifos_src;
int n_fifos_dst;
int stride_fifos_src;
int stride_fifos_dst;
int words_per_fifo;
bool sw_done;
};
#endif /* __LINUX_DMA_IMX_H */
@@ -0,0 +1,16 @@
/* SPDX-License-Identifier: GPL-2.0 */
/*
* Copyright (C) 2020 Texas Instruments Incorporated - https://www.ti.com
*/
#ifndef K3_EVENT_ROUTER_
#define K3_EVENT_ROUTER_
#include <linux/types.h>
struct k3_event_route_data {
void *priv;
int (*set_event)(void *priv, u32 event);
};
#endif /* K3_EVENT_ROUTER_ */
@@ -0,0 +1,86 @@
/* SPDX-License-Identifier: GPL-2.0 */
/*
* Copyright (C) 2019 Texas Instruments Incorporated - https://www.ti.com
*/
#ifndef K3_PSIL_H_
#define K3_PSIL_H_
#include <linux/types.h>
#define K3_PSIL_DST_THREAD_ID_OFFSET 0x8000
struct device;
/**
* enum udma_tp_level - Channel Throughput Levels
* @UDMA_TP_NORMAL: Normal channel
* @UDMA_TP_HIGH: High Throughput channel
* @UDMA_TP_ULTRAHIGH: Ultra High Throughput channel
*/
enum udma_tp_level {
UDMA_TP_NORMAL = 0,
UDMA_TP_HIGH,
UDMA_TP_ULTRAHIGH,
UDMA_TP_LAST,
};
/**
* enum psil_endpoint_type - PSI-L Endpoint type
* @PSIL_EP_NATIVE: Normal channel
* @PSIL_EP_PDMA_XY: XY mode PDMA
* @PSIL_EP_PDMA_MCAN: MCAN mode PDMA
* @PSIL_EP_PDMA_AASRC: AASRC mode PDMA
*/
enum psil_endpoint_type {
PSIL_EP_NATIVE = 0,
PSIL_EP_PDMA_XY,
PSIL_EP_PDMA_MCAN,
PSIL_EP_PDMA_AASRC,
};
/**
* struct psil_endpoint_config - PSI-L Endpoint configuration
* @ep_type: PSI-L endpoint type
* @channel_tpl: Desired throughput level for the channel
* @pkt_mode: If set, the channel must be in Packet mode, otherwise in
* TR mode
* @notdpkt: TDCM must be suppressed on the TX channel
* @needs_epib: Endpoint needs EPIB
* @pdma_acc32: ACC32 must be enabled on the PDMA side
* @pdma_burst: BURST must be enabled on the PDMA side
* @psd_size: If set, PSdata is used by the endpoint
* @mapped_channel_id: PKTDMA thread to channel mapping for mapped channels.
* The thread must be serviced by the specified channel if
* mapped_channel_id is >= 0 in case of PKTDMA
* @flow_start: PKDMA flow range start of mapped channel. Unmapped
* channels use flow_id == chan_id
* @flow_num: PKDMA flow count of mapped channel. Unmapped channels
* use flow_id == chan_id
* @default_flow_id: PKDMA default (r)flow index of mapped channel.
* Must be within the flow range of the mapped channel.
*/
struct psil_endpoint_config {
enum psil_endpoint_type ep_type;
enum udma_tp_level channel_tpl;
unsigned pkt_mode:1;
unsigned notdpkt:1;
unsigned needs_epib:1;
/* PDMA properties, valid for PSIL_EP_PDMA_* */
unsigned pdma_acc32:1;
unsigned pdma_burst:1;
u32 psd_size;
/* PKDMA mapped channel */
s16 mapped_channel_id;
/* PKTDMA tflow and rflow ranges for mapped channel */
u16 flow_start;
u16 flow_num;
s16 default_flow_id;
};
int psil_set_new_ep_config(struct device *dev, const char *name,
struct psil_endpoint_config *ep_config);
#endif /* K3_PSIL_H_ */
@@ -0,0 +1,153 @@
/* SPDX-License-Identifier: GPL-2.0 */
/*
* Copyright (C) 2019 Texas Instruments Incorporated - https://www.ti.com
*/
#ifndef K3_UDMA_GLUE_H_
#define K3_UDMA_GLUE_H_
#include <linux/types.h>
#include <linux/soc/ti/k3-ringacc.h>
#include <linux/dma/ti-cppi5.h>
struct k3_udma_glue_tx_channel_cfg {
struct k3_ring_cfg tx_cfg;
struct k3_ring_cfg txcq_cfg;
bool tx_pause_on_err;
bool tx_filt_einfo;
bool tx_filt_pswords;
bool tx_supr_tdpkt;
u32 swdata_size;
};
struct k3_udma_glue_tx_channel;
struct k3_udma_glue_tx_channel *k3_udma_glue_request_tx_chn(struct device *dev,
const char *name, struct k3_udma_glue_tx_channel_cfg *cfg);
struct k3_udma_glue_tx_channel *
k3_udma_glue_request_tx_chn_for_thread_id(struct device *dev,
struct k3_udma_glue_tx_channel_cfg *cfg,
struct device_node *udmax_np, u32 thread_id);
void k3_udma_glue_release_tx_chn(struct k3_udma_glue_tx_channel *tx_chn);
int k3_udma_glue_push_tx_chn(struct k3_udma_glue_tx_channel *tx_chn,
struct cppi5_host_desc_t *desc_tx,
dma_addr_t desc_dma);
int k3_udma_glue_pop_tx_chn(struct k3_udma_glue_tx_channel *tx_chn,
dma_addr_t *desc_dma);
int k3_udma_glue_enable_tx_chn(struct k3_udma_glue_tx_channel *tx_chn);
void k3_udma_glue_disable_tx_chn(struct k3_udma_glue_tx_channel *tx_chn);
void k3_udma_glue_tdown_tx_chn(struct k3_udma_glue_tx_channel *tx_chn,
bool sync);
void k3_udma_glue_reset_tx_chn(struct k3_udma_glue_tx_channel *tx_chn,
void *data, void (*cleanup)(void *data, dma_addr_t desc_dma));
u32 k3_udma_glue_tx_get_hdesc_size(struct k3_udma_glue_tx_channel *tx_chn);
u32 k3_udma_glue_tx_get_txcq_id(struct k3_udma_glue_tx_channel *tx_chn);
int k3_udma_glue_tx_get_irq(struct k3_udma_glue_tx_channel *tx_chn);
struct device *
k3_udma_glue_tx_get_dma_device(struct k3_udma_glue_tx_channel *tx_chn);
void k3_udma_glue_tx_dma_to_cppi5_addr(struct k3_udma_glue_tx_channel *tx_chn,
dma_addr_t *addr);
void k3_udma_glue_tx_cppi5_to_dma_addr(struct k3_udma_glue_tx_channel *tx_chn,
dma_addr_t *addr);
enum {
K3_UDMA_GLUE_SRC_TAG_LO_KEEP = 0,
K3_UDMA_GLUE_SRC_TAG_LO_USE_FLOW_REG = 1,
K3_UDMA_GLUE_SRC_TAG_LO_USE_REMOTE_FLOW_ID = 2,
K3_UDMA_GLUE_SRC_TAG_LO_USE_REMOTE_SRC_TAG = 4,
};
/**
* k3_udma_glue_rx_flow_cfg - UDMA RX flow cfg
*
* @rx_cfg: RX ring configuration
* @rxfdq_cfg: RX free Host PD ring configuration
* @ring_rxq_id: RX ring id (or -1 for any)
* @ring_rxfdq0_id: RX free Host PD ring (FDQ) if (or -1 for any)
* @rx_error_handling: Rx Error Handling Mode (0 - drop, 1 - re-try)
* @src_tag_lo_sel: Rx Source Tag Low Byte Selector in Host PD
*/
struct k3_udma_glue_rx_flow_cfg {
struct k3_ring_cfg rx_cfg;
struct k3_ring_cfg rxfdq_cfg;
int ring_rxq_id;
int ring_rxfdq0_id;
bool rx_error_handling;
int src_tag_lo_sel;
};
/**
* k3_udma_glue_rx_channel_cfg - UDMA RX channel cfg
*
* @psdata_size: SW Data is present in Host PD of @swdata_size bytes
* @flow_id_base: first flow_id used by channel.
* if @flow_id_base = -1 - range of GP rflows will be
* allocated dynamically.
* @flow_id_num: number of RX flows used by channel
* @flow_id_use_rxchan_id: use RX channel id as flow id,
* used only if @flow_id_num = 1
* @remote indication that RX channel is remote - some remote CPU
* core owns and control the RX channel. Linux Host only
* allowed to attach and configure RX Flow within RX
* channel. if set - not RX channel operation will be
* performed by K3 NAVSS DMA glue interface.
* @def_flow_cfg default RX flow configuration,
* used only if @flow_id_num = 1
*/
struct k3_udma_glue_rx_channel_cfg {
u32 swdata_size;
int flow_id_base;
int flow_id_num;
bool flow_id_use_rxchan_id;
bool remote;
struct k3_udma_glue_rx_flow_cfg *def_flow_cfg;
};
struct k3_udma_glue_rx_channel;
struct k3_udma_glue_rx_channel *k3_udma_glue_request_rx_chn(
struct device *dev,
const char *name,
struct k3_udma_glue_rx_channel_cfg *cfg);
struct k3_udma_glue_rx_channel *
k3_udma_glue_request_remote_rx_chn_for_thread_id(struct device *dev,
struct k3_udma_glue_rx_channel_cfg *cfg,
struct device_node *udmax_np, u32 thread_id);
void k3_udma_glue_release_rx_chn(struct k3_udma_glue_rx_channel *rx_chn);
int k3_udma_glue_enable_rx_chn(struct k3_udma_glue_rx_channel *rx_chn);
void k3_udma_glue_disable_rx_chn(struct k3_udma_glue_rx_channel *rx_chn);
void k3_udma_glue_tdown_rx_chn(struct k3_udma_glue_rx_channel *rx_chn,
bool sync);
int k3_udma_glue_push_rx_chn(struct k3_udma_glue_rx_channel *rx_chn,
u32 flow_num, struct cppi5_host_desc_t *desc_tx,
dma_addr_t desc_dma);
int k3_udma_glue_pop_rx_chn(struct k3_udma_glue_rx_channel *rx_chn,
u32 flow_num, dma_addr_t *desc_dma);
int k3_udma_glue_rx_flow_init(struct k3_udma_glue_rx_channel *rx_chn,
u32 flow_idx, struct k3_udma_glue_rx_flow_cfg *flow_cfg);
u32 k3_udma_glue_rx_flow_get_fdq_id(struct k3_udma_glue_rx_channel *rx_chn,
u32 flow_idx);
u32 k3_udma_glue_rx_get_flow_id_base(struct k3_udma_glue_rx_channel *rx_chn);
int k3_udma_glue_rx_get_irq(struct k3_udma_glue_rx_channel *rx_chn,
u32 flow_num);
void k3_udma_glue_reset_rx_chn(struct k3_udma_glue_rx_channel *rx_chn,
u32 flow_num, void *data,
void (*cleanup)(void *data, dma_addr_t desc_dma));
int k3_udma_glue_rx_flow_enable(struct k3_udma_glue_rx_channel *rx_chn,
u32 flow_idx);
int k3_udma_glue_rx_flow_disable(struct k3_udma_glue_rx_channel *rx_chn,
u32 flow_idx);
struct device *
k3_udma_glue_rx_get_dma_device(struct k3_udma_glue_rx_channel *rx_chn);
void k3_udma_glue_rx_dma_to_cppi5_addr(struct k3_udma_glue_rx_channel *rx_chn,
dma_addr_t *addr);
void k3_udma_glue_rx_cppi5_to_dma_addr(struct k3_udma_glue_rx_channel *rx_chn,
dma_addr_t *addr);
#endif /* K3_UDMA_GLUE_H_ */
@@ -0,0 +1,24 @@
/* SPDX-License-Identifier: GPL-2.0 */
#ifndef _MXS_DMA_H_
#define _MXS_DMA_H_
#include <linux/dmaengine.h>
#define MXS_DMA_CTRL_WAIT4END BIT(31)
#define MXS_DMA_CTRL_WAIT4RDY BIT(30)
/*
* The mxs dmaengine can do PIO transfers. We pass a pointer to the PIO words
* in the second argument to dmaengine_prep_slave_sg when the direction is
* set to DMA_TRANS_NONE. To make this clear and to prevent users from doing
* the error prone casting we have this wrapper function
*/
static inline struct dma_async_tx_descriptor *mxs_dmaengine_prep_pio(
struct dma_chan *chan, u32 *pio, unsigned int npio,
enum dma_transfer_direction dir, unsigned long flags)
{
return dmaengine_prep_slave_sg(chan, (struct scatterlist *)pio, npio,
dir, flags);
}
#endif /* _MXS_DMA_H_ */
@@ -0,0 +1,26 @@
/* SPDX-License-Identifier: GPL-2.0 */
#ifndef _PXA_DMA_H_
#define _PXA_DMA_H_
enum pxad_chan_prio {
PXAD_PRIO_HIGHEST = 0,
PXAD_PRIO_NORMAL,
PXAD_PRIO_LOW,
PXAD_PRIO_LOWEST,
};
/**
* struct pxad_param - dma channel request parameters
* @drcmr: requestor line number
* @prio: minimal mandatory priority of the channel
*
* If a requested channel is granted, its priority will be at least @prio,
* ie. if PXAD_PRIO_LOW is required, the requested channel will be either
* PXAD_PRIO_LOW, PXAD_PRIO_NORMAL or PXAD_PRIO_HIGHEST.
*/
struct pxad_param {
unsigned int drcmr;
enum pxad_chan_prio prio;
};
#endif /* _PXA_DMA_H_ */
@@ -0,0 +1,86 @@
/* SPDX-License-Identifier: GPL-2.0 */
/*
* Copyright (c) 2020, Linaro Limited
*/
#ifndef QCOM_GPI_DMA_H
#define QCOM_GPI_DMA_H
/**
* enum spi_transfer_cmd - spi transfer commands
* @SPI_TX: SPI peripheral TX command
* @SPI_RX: SPI peripheral RX command
* @SPI_DUPLEX: SPI peripheral Duplex command
*/
enum spi_transfer_cmd {
SPI_TX = 1,
SPI_RX,
SPI_DUPLEX,
};
/**
* struct gpi_spi_config - spi config for peripheral
*
* @loopback_en: spi loopback enable when set
* @clock_pol_high: clock polarity
* @data_pol_high: data polarity
* @pack_en: process tx/rx buffers as packed
* @word_len: spi word length
* @clk_div: source clock divider
* @clk_src: serial clock
* @cmd: spi cmd
* @fragmentation: keep CS asserted at end of sequence
* @cs: chip select toggle
* @set_config: set peripheral config
* @rx_len: receive length for buffer
*/
struct gpi_spi_config {
u8 set_config;
u8 loopback_en;
u8 clock_pol_high;
u8 data_pol_high;
u8 pack_en;
u8 word_len;
u8 fragmentation;
u8 cs;
u32 clk_div;
u32 clk_src;
enum spi_transfer_cmd cmd;
u32 rx_len;
};
enum i2c_op {
I2C_WRITE = 1,
I2C_READ,
};
/**
* struct gpi_i2c_config - i2c config for peripheral
*
* @pack_enable: process tx/rx buffers as packed
* @cycle_count: clock cycles to be sent
* @high_count: high period of clock
* @low_count: low period of clock
* @clk_div: source clock divider
* @addr: i2c bus address
* @stretch: stretch the clock at eot
* @set_config: set peripheral config
* @rx_len: receive length for buffer
* @op: i2c cmd
* @multi_msg: is part of multi i2c r-w msgs
*/
struct gpi_i2c_config {
u8 set_config;
u8 pack_enable;
u8 cycle_count;
u8 high_count;
u8 low_count;
u8 addr;
u8 stretch;
u16 clk_div;
u32 rx_len;
enum i2c_op op;
bool multi_msg;
};
#endif /* QCOM_GPI_DMA_H */
@@ -0,0 +1,12 @@
// SPDX-License-Identifier: GPL-2.0-only
#ifndef __LINUX_DMA_QCOM_ADM_H
#define __LINUX_DMA_QCOM_ADM_H
#include <linux/types.h>
struct qcom_adm_peripheral_config {
u32 crci;
u32 mux;
};
#endif /* __LINUX_DMA_QCOM_ADM_H */
@@ -0,0 +1,71 @@
/* SPDX-License-Identifier: GPL-2.0-only */
/*
* Copyright (c) 2016-2017, The Linux Foundation. All rights reserved.
*/
#ifndef _QCOM_BAM_DMA_H
#define _QCOM_BAM_DMA_H
#include <asm/byteorder.h>
/*
* This data type corresponds to the native Command Element
* supported by BAM DMA Engine.
*
* @cmd_and_addr - upper 8 bits command and lower 24 bits register address.
* @data - for write command: content to be written into peripheral register.
* for read command: dest addr to write peripheral register value.
* @mask - register mask.
* @reserved - for future usage.
*
*/
struct bam_cmd_element {
__le32 cmd_and_addr;
__le32 data;
__le32 mask;
__le32 reserved;
};
/*
* This enum indicates the command type in a command element
*/
enum bam_command_type {
BAM_WRITE_COMMAND = 0,
BAM_READ_COMMAND,
};
/*
* prep_bam_ce_le32 - Wrapper function to prepare a single BAM command
* element with the data already in le32 format.
*
* @bam_ce: bam command element
* @addr: target address
* @cmd: BAM command
* @data: actual data for write and dest addr for read in le32
*/
static inline void
bam_prep_ce_le32(struct bam_cmd_element *bam_ce, u32 addr,
enum bam_command_type cmd, __le32 data)
{
bam_ce->cmd_and_addr =
cpu_to_le32((addr & 0xffffff) | ((cmd & 0xff) << 24));
bam_ce->data = data;
bam_ce->mask = cpu_to_le32(0xffffffff);
}
/*
* bam_prep_ce - Wrapper function to prepare a single BAM command element
* with the data.
*
* @bam_ce: BAM command element
* @addr: target address
* @cmd: BAM command
* @data: actual data for write and dest addr for read
*/
static inline void
bam_prep_ce(struct bam_cmd_element *bam_ce, u32 addr,
enum bam_command_type cmd, u32 data)
{
bam_prep_ce_le32(bam_ce, addr, cmd, cpu_to_le32(data));
}
#endif
@@ -0,0 +1,190 @@
/* SPDX-License-Identifier: GPL-2.0 */
#ifndef _SPRD_DMA_H_
#define _SPRD_DMA_H_
#define SPRD_DMA_REQ_SHIFT 8
#define SPRD_DMA_TRG_MODE_SHIFT 16
#define SPRD_DMA_CHN_MODE_SHIFT 24
#define SPRD_DMA_FLAGS(chn_mode, trg_mode, req_mode, int_type) \
((chn_mode) << SPRD_DMA_CHN_MODE_SHIFT | \
(trg_mode) << SPRD_DMA_TRG_MODE_SHIFT | \
(req_mode) << SPRD_DMA_REQ_SHIFT | (int_type))
/*
* The Spreadtrum DMA controller supports channel 2-stage tansfer, that means
* we can request 2 dma channels, one for source channel, and another one for
* destination channel. Each channel is independent, and has its own
* configurations. Once the source channel's transaction is done, it will
* trigger the destination channel's transaction automatically by hardware
* signal.
*
* To support 2-stage tansfer, we must configure the channel mode and trigger
* mode as below definition.
*/
/*
* enum sprd_dma_chn_mode: define the DMA channel mode for 2-stage transfer
* @SPRD_DMA_CHN_MODE_NONE: No channel mode setting which means channel doesn't
* support the 2-stage transfer.
* @SPRD_DMA_SRC_CHN0: Channel used as source channel 0.
* @SPRD_DMA_SRC_CHN1: Channel used as source channel 1.
* @SPRD_DMA_DST_CHN0: Channel used as destination channel 0.
* @SPRD_DMA_DST_CHN1: Channel used as destination channel 1.
*
* Now the DMA controller can supports 2 groups 2-stage transfer.
*/
enum sprd_dma_chn_mode {
SPRD_DMA_CHN_MODE_NONE,
SPRD_DMA_SRC_CHN0,
SPRD_DMA_SRC_CHN1,
SPRD_DMA_DST_CHN0,
SPRD_DMA_DST_CHN1,
};
/*
* enum sprd_dma_trg_mode: define the DMA channel trigger mode for 2-stage
* transfer
* @SPRD_DMA_NO_TRG: No trigger setting.
* @SPRD_DMA_FRAG_DONE_TRG: Trigger the transaction of destination channel
* automatically once the source channel's fragment request is done.
* @SPRD_DMA_BLOCK_DONE_TRG: Trigger the transaction of destination channel
* automatically once the source channel's block request is done.
* @SPRD_DMA_TRANS_DONE_TRG: Trigger the transaction of destination channel
* automatically once the source channel's transfer request is done.
* @SPRD_DMA_LIST_DONE_TRG: Trigger the transaction of destination channel
* automatically once the source channel's link-list request is done.
*/
enum sprd_dma_trg_mode {
SPRD_DMA_NO_TRG,
SPRD_DMA_FRAG_DONE_TRG,
SPRD_DMA_BLOCK_DONE_TRG,
SPRD_DMA_TRANS_DONE_TRG,
SPRD_DMA_LIST_DONE_TRG,
};
/*
* enum sprd_dma_req_mode: define the DMA request mode
* @SPRD_DMA_FRAG_REQ: fragment request mode
* @SPRD_DMA_BLK_REQ: block request mode
* @SPRD_DMA_TRANS_REQ: transaction request mode
* @SPRD_DMA_LIST_REQ: link-list request mode
*
* We have 4 types request mode: fragment mode, block mode, transaction mode
* and linklist mode. One transaction can contain several blocks, one block can
* contain several fragments. Link-list mode means we can save several DMA
* configuration into one reserved memory, then DMA can fetch each DMA
* configuration automatically to start transfer.
*/
enum sprd_dma_req_mode {
SPRD_DMA_FRAG_REQ,
SPRD_DMA_BLK_REQ,
SPRD_DMA_TRANS_REQ,
SPRD_DMA_LIST_REQ,
};
/*
* enum sprd_dma_int_type: define the DMA interrupt type
* @SPRD_DMA_NO_INT: do not need generate DMA interrupts.
* @SPRD_DMA_FRAG_INT: fragment done interrupt when one fragment request
* is done.
* @SPRD_DMA_BLK_INT: block done interrupt when one block request is done.
* @SPRD_DMA_BLK_FRAG_INT: block and fragment interrupt when one fragment
* or one block request is done.
* @SPRD_DMA_TRANS_INT: tansaction done interrupt when one transaction
* request is done.
* @SPRD_DMA_TRANS_FRAG_INT: transaction and fragment interrupt when one
* transaction request or fragment request is done.
* @SPRD_DMA_TRANS_BLK_INT: transaction and block interrupt when one
* transaction request or block request is done.
* @SPRD_DMA_LIST_INT: link-list done interrupt when one link-list request
* is done.
* @SPRD_DMA_CFGERR_INT: configure error interrupt when configuration is
* incorrect.
*/
enum sprd_dma_int_type {
SPRD_DMA_NO_INT,
SPRD_DMA_FRAG_INT,
SPRD_DMA_BLK_INT,
SPRD_DMA_BLK_FRAG_INT,
SPRD_DMA_TRANS_INT,
SPRD_DMA_TRANS_FRAG_INT,
SPRD_DMA_TRANS_BLK_INT,
SPRD_DMA_LIST_INT,
SPRD_DMA_CFGERR_INT,
};
/*
* struct sprd_dma_linklist - DMA link-list address structure
* @virt_addr: link-list virtual address to configure link-list node
* @phy_addr: link-list physical address to link DMA transfer
* @wrap_addr: the wrap address for link-list mode, which means once the
* transfer address reaches the wrap address, the next transfer address
* will jump to the address specified by wrap_to register.
*
* The Spreadtrum DMA controller supports the link-list mode, that means slaves
* can supply several groups configurations (each configuration represents one
* DMA transfer) saved in memory, and DMA controller will link these groups
* configurations by writing the physical address of each configuration into the
* link-list register.
*
* Just as shown below, the link-list pointer register will be pointed to the
* physical address of 'configuration 1', and the 'configuration 1' link-list
* pointer will be pointed to 'configuration 2', and so on.
* Once trigger the DMA transfer, the DMA controller will load 'configuration
* 1' to its registers automatically, after 'configuration 1' transaction is
* done, DMA controller will load 'configuration 2' automatically, until all
* DMA transactions are done.
*
* Note: The last link-list pointer should point to the physical address
* of 'configuration 1', which can avoid DMA controller loads incorrect
* configuration when the last configuration transaction is done.
*
* DMA controller linklist memory
* ====================== -----------------------
*| | | configuration 1 |<---
*| DMA controller | ------->| | |
*| | | | | |
*| | | | | |
*| | | | | |
*| linklist pointer reg |---- ----| linklist pointer | |
* ====================== | ----------------------- |
* | |
* | ----------------------- |
* | | configuration 2 | |
* --->| | |
* | | |
* | | |
* | | |
* ----| linklist pointer | |
* | ----------------------- |
* | |
* | ----------------------- |
* | | configuration 3 | |
* --->| | |
* | | |
* | . | |
* . |
* . |
* . |
* | . |
* | ----------------------- |
* | | configuration n | |
* --->| | |
* | | |
* | | |
* | | |
* | linklist pointer |----
* -----------------------
*
* To support the link-list mode, DMA slaves should allocate one segment memory
* from always-on IRAM or dma coherent memory to store these groups of DMA
* configuration, and pass the virtual and physical address to DMA controller.
*/
struct sprd_dma_linklist {
unsigned long virt_addr;
phys_addr_t phy_addr;
phys_addr_t wrap_addr;
};
#endif
File diff suppressed because it is too large Load Diff
@@ -0,0 +1,45 @@
/* SPDX-License-Identifier: GPL-2.0-or-later */
/*
* Xilinx DMA Engine drivers support header file
*
* Copyright (C) 2010-2014 Xilinx, Inc. All rights reserved.
*/
#ifndef __DMA_XILINX_DMA_H
#define __DMA_XILINX_DMA_H
#include <linux/dma-mapping.h>
#include <linux/dmaengine.h>
/**
* struct xilinx_vdma_config - VDMA Configuration structure
* @frm_dly: Frame delay
* @gen_lock: Whether in gen-lock mode
* @master: Master that it syncs to
* @frm_cnt_en: Enable frame count enable
* @park: Whether wants to park
* @park_frm: Frame to park on
* @coalesc: Interrupt coalescing threshold
* @delay: Delay counter
* @reset: Reset Channel
* @ext_fsync: External Frame Sync source
* @vflip_en: Vertical Flip enable
*/
struct xilinx_vdma_config {
int frm_dly;
int gen_lock;
int master;
int frm_cnt_en;
int park;
int park_frm;
int coalesc;
int delay;
int reset;
int ext_fsync;
bool vflip_en;
};
int xilinx_vdma_channel_set_config(struct dma_chan *dchan,
struct xilinx_vdma_config *cfg);
#endif
@@ -0,0 +1,11 @@
/* SPDX-License-Identifier: GPL-2.0 */
#ifndef __LINUX_DMA_XILINX_DPDMA_H
#define __LINUX_DMA_XILINX_DPDMA_H
#include <linux/types.h>
struct xilinx_dpdma_peripheral_config {
bool video_group;
};
#endif /* __LINUX_DMA_XILINX_DPDMA_H */