hci->DAT_entry_size = FIELD_GET(DAT_ENTRY_SIZE, regval) ? 0 : 8;
if (size_in_dwords)
hci->DAT_entries = 4 * hci->DAT_entries / hci->DAT_entry_size;
- dev_info(&hci->master.dev, "DAT: %u %u-bytes entries at offset %#x\n",
- hci->DAT_entries, hci->DAT_entry_size, offset);
+ dev_dbg(&hci->master.dev, "DAT: %u %u-bytes entries at offset %#x\n",
+ hci->DAT_entries, hci->DAT_entry_size, offset);
regval = reg_read(DCT_SECTION);
offset = FIELD_GET(DCT_TABLE_OFFSET, regval);
hci->DCT_entry_size = FIELD_GET(DCT_ENTRY_SIZE, regval) ? 0 : 16;
if (size_in_dwords)
hci->DCT_entries = 4 * hci->DCT_entries / hci->DCT_entry_size;
- dev_info(&hci->master.dev, "DCT: %u %u-bytes entries at offset %#x\n",
- hci->DCT_entries, hci->DCT_entry_size, offset);
+ dev_dbg(&hci->master.dev, "DCT: %u %u-bytes entries at offset %#x\n",
+ hci->DCT_entries, hci->DCT_entry_size, offset);
regval = reg_read(RING_HEADERS_SECTION);
offset = FIELD_GET(RING_HEADERS_OFFSET, regval);
hci->RHS_regs = offset ? hci->base_regs + offset : NULL;
- dev_info(&hci->master.dev, "Ring Headers at offset %#x\n", offset);
+ dev_dbg(&hci->master.dev, "Ring Headers at offset %#x\n", offset);
regval = reg_read(PIO_SECTION);
offset = FIELD_GET(PIO_REGS_OFFSET, regval);
hci->PIO_regs = offset ? hci->base_regs + offset : NULL;
- dev_info(&hci->master.dev, "PIO section at offset %#x\n", offset);
+ dev_dbg(&hci->master.dev, "PIO section at offset %#x\n", offset);
regval = reg_read(EXT_CAPS_SECTION);
offset = FIELD_GET(EXT_CAPS_OFFSET, regval);
hci->EXTCAPS_regs = offset ? hci->base_regs + offset : NULL;
- dev_info(&hci->master.dev, "Extended Caps at offset %#x\n", offset);
+ dev_dbg(&hci->master.dev, "Extended Caps at offset %#x\n", offset);
ret = i3c_hci_parse_ext_caps(hci);
if (ret)
ret = -EIO;
} else {
hci->io = &mipi_i3c_hci_dma;
- dev_info(&hci->master.dev, "Using DMA\n");
+ dev_dbg(&hci->master.dev, "Using DMA\n");
}
}
ret = -EIO;
} else {
hci->io = &mipi_i3c_hci_pio;
- dev_info(&hci->master.dev, "Using PIO\n");
+ dev_dbg(&hci->master.dev, "Using PIO\n");
}
}
hci->vendor_version_id = readl(base + 0x08);
hci->vendor_product_id = readl(base + 0x0c);
- dev_info(&hci->master.dev, "vendor MIPI ID: %#x\n", hci->vendor_mipi_id);
- dev_info(&hci->master.dev, "vendor version ID: %#x\n", hci->vendor_version_id);
- dev_info(&hci->master.dev, "vendor product ID: %#x\n", hci->vendor_product_id);
+ dev_dbg(&hci->master.dev, "vendor MIPI ID: %#x\n", hci->vendor_mipi_id);
+ dev_dbg(&hci->master.dev, "vendor version ID: %#x\n", hci->vendor_version_id);
+ dev_dbg(&hci->master.dev, "vendor product ID: %#x\n", hci->vendor_product_id);
/* ought to go in a table if this grows too much */
switch (hci->vendor_mipi_id) {
static const char * const functionality[] = {
"(unknown)", "master only", "target only",
"primary/secondary master" };
- dev_info(&hci->master.dev, "operation mode: %s\n", functionality[operation_mode]);
+ dev_dbg(&hci->master.dev, "operation mode: %s\n", functionality[operation_mode]);
if (operation_mode & 0x1)
return 0;
dev_err(&hci->master.dev, "only master mode is currently supported\n");
u32 bus_instance = readl(base + 0x04);
unsigned int count = FIELD_GET(GENMASK(3, 0), bus_instance);
- dev_info(&hci->master.dev, "%d bus instances\n", count);
+ dev_dbg(&hci->master.dev, "%d bus instances\n", count);
return 0;
}
u32 entries = FIELD_GET(CAP_HEADER_LENGTH, header) - 1;
unsigned int index;
- dev_info(&hci->master.dev, "transfer mode table has %d entries\n",
- entries);
+ dev_dbg(&hci->master.dev, "transfer mode table has %d entries\n", entries);
base += 4; /* skip header */
for (index = 0; index < entries; index++) {
u32 mode_entry = readl(base);
base += 4; /* skip header */
- dev_info(&hci->master.dev, "available data rates:\n");
+ dev_dbg(&hci->master.dev, "available data rates:\n");
for (index = 0; index < entries; index++) {
rate_entry = readl(base);
dev_dbg(&hci->master.dev, "entry %d: 0x%08x",
rate = FIELD_GET(XFERRATE_ACTUAL_RATE_KHZ, rate_entry);
rate_id = FIELD_GET(XFERRATE_RATE_ID, rate_entry);
mode_id = FIELD_GET(XFERRATE_MODE_ID, rate_entry);
- dev_info(&hci->master.dev, "rate %d for %s = %d kHz\n",
- rate_id,
- mode_id == XFERRATE_MODE_I3C ? "I3C" :
- mode_id == XFERRATE_MODE_I2C ? "I2C" :
- "unknown mode",
- rate);
+ dev_dbg(&hci->master.dev, "rate %d for %s = %d kHz\n",
+ rate_id,
+ mode_id == XFERRATE_MODE_I3C ? "I3C" :
+ mode_id == XFERRATE_MODE_I2C ? "I2C" :
+ "unknown mode",
+ rate);
base += 4;
}
u32 autocmd_ext_config = readl(base + 0x08);
unsigned int count = FIELD_GET(GENMASK(3, 0), autocmd_ext_config);
- dev_info(&hci->master.dev, "%d/%d active auto-command entries\n",
- count, max_count);
+ dev_dbg(&hci->master.dev, "%d/%d active auto-command entries\n",
+ count, max_count);
/* remember auto-command register location for later use */
hci->AUTOCMD_regs = base;
return 0;
static int hci_extcap_debug(struct i3c_hci *hci, void __iomem *base)
{
- dev_info(&hci->master.dev, "debug registers present\n");
+ dev_dbg(&hci->master.dev, "debug registers present\n");
hci->DEBUG_regs = base;
return 0;
}
static int hci_extcap_scheduled_cmd(struct i3c_hci *hci, void __iomem *base)
{
- dev_info(&hci->master.dev, "scheduled commands available\n");
+ dev_dbg(&hci->master.dev, "scheduled commands available\n");
/* hci->schedcmd_regs = base; */
return 0;
}
static int hci_extcap_non_curr_master(struct i3c_hci *hci, void __iomem *base)
{
- dev_info(&hci->master.dev, "Non-Current Master support available\n");
+ dev_dbg(&hci->master.dev, "Non-Current Master support available\n");
/* hci->NCM_regs = base; */
return 0;
}
static int hci_extcap_ccc_resp_conf(struct i3c_hci *hci, void __iomem *base)
{
- dev_info(&hci->master.dev, "CCC Response Configuration available\n");
+ dev_dbg(&hci->master.dev, "CCC Response Configuration available\n");
return 0;
}
static int hci_extcap_global_DAT(struct i3c_hci *hci, void __iomem *base)
{
- dev_info(&hci->master.dev, "Global DAT available\n");
+ dev_dbg(&hci->master.dev, "Global DAT available\n");
return 0;
}
static int hci_extcap_multilane(struct i3c_hci *hci, void __iomem *base)
{
- dev_info(&hci->master.dev, "Master Multi-Lane support available\n");
+ dev_dbg(&hci->master.dev, "Master Multi-Lane support available\n");
return 0;
}
static int hci_extcap_ncm_multilane(struct i3c_hci *hci, void __iomem *base)
{
- dev_info(&hci->master.dev, "NCM Multi-Lane support available\n");
+ dev_dbg(&hci->master.dev, "NCM Multi-Lane support available\n");
return 0;
}
static int hci_extcap_vendor_NXP(struct i3c_hci *hci, void __iomem *base)
{
hci->vendor_data = (__force void *)base;
- dev_info(&hci->master.dev, "Build Date Info = %#x\n", readl(base + 1*4));
+ dev_dbg(&hci->master.dev, "Build Date Info = %#x\n", readl(base + 1 * 4));
/* reset the FPGA */
writel(0xdeadbeef, base + 1*4);
return 0;
}
if (!vendor_cap_entry) {
- dev_notice(&hci->master.dev,
- "unknown ext_cap 0x%02x for vendor 0x%02x\n",
- cap_id, hci->vendor_mipi_id);
+ dev_dbg(&hci->master.dev, "unknown ext_cap 0x%02x for vendor 0x%02x\n",
+ cap_id, hci->vendor_mipi_id);
return 0;
}
if (cap_length < vendor_cap_entry->min_length) {
}
}
if (!cap_entry) {
- dev_notice(&hci->master.dev,
- "unknown ext_cap 0x%02x\n", cap_id);
+ dev_dbg(&hci->master.dev, "unknown ext_cap 0x%02x\n", cap_id);
} else if (cap_length < cap_entry->min_length) {
dev_err(&hci->master.dev,
"ext_cap 0x%02x has size %d (expecting >= %d)\n",
spin_lock_init(&pio->lock);
size_val = pio_reg_read(QUEUE_SIZE);
- dev_info(&hci->master.dev, "CMD/RESP FIFO = %ld entries\n",
- FIELD_GET(CR_QUEUE_SIZE, size_val));
- dev_info(&hci->master.dev, "IBI FIFO = %ld bytes\n",
- 4 * FIELD_GET(IBI_STATUS_SIZE, size_val));
- dev_info(&hci->master.dev, "RX data FIFO = %d bytes\n",
- 4 * (2 << FIELD_GET(RX_DATA_BUFFER_SIZE, size_val)));
- dev_info(&hci->master.dev, "TX data FIFO = %d bytes\n",
- 4 * (2 << FIELD_GET(TX_DATA_BUFFER_SIZE, size_val)));
+ dev_dbg(&hci->master.dev, "CMD/RESP FIFO = %ld entries\n",
+ FIELD_GET(CR_QUEUE_SIZE, size_val));
+ dev_dbg(&hci->master.dev, "IBI FIFO = %ld bytes\n",
+ 4 * FIELD_GET(IBI_STATUS_SIZE, size_val));
+ dev_dbg(&hci->master.dev, "RX data FIFO = %d bytes\n",
+ 4 * (2 << FIELD_GET(RX_DATA_BUFFER_SIZE, size_val)));
+ dev_dbg(&hci->master.dev, "TX data FIFO = %d bytes\n",
+ 4 * (2 << FIELD_GET(TX_DATA_BUFFER_SIZE, size_val)));
/*
* Let's initialize data thresholds to half of the actual FIFO size.