diff options
Diffstat (limited to 'drivers/gpu/drm/nouveau/nvkm/subdev/secboot/gm200.c')
| -rw-r--r-- | drivers/gpu/drm/nouveau/nvkm/subdev/secboot/gm200.c | 1391 |
1 files changed, 60 insertions, 1331 deletions
diff --git a/drivers/gpu/drm/nouveau/nvkm/subdev/secboot/gm200.c b/drivers/gpu/drm/nouveau/nvkm/subdev/secboot/gm200.c index ec48e4ace37a..813c4eb0b25f 100644 --- a/drivers/gpu/drm/nouveau/nvkm/subdev/secboot/gm200.c +++ b/drivers/gpu/drm/nouveau/nvkm/subdev/secboot/gm200.c @@ -20,1313 +20,84 @@ * DEALINGS IN THE SOFTWARE. */ -/* - * Secure boot is the process by which NVIDIA-signed firmware is loaded into - * some of the falcons of a GPU. For production devices this is the only way - * for the firmware to access useful (but sensitive) registers. - * - * A Falcon microprocessor supporting advanced security modes can run in one of - * three modes: - * - * - Non-secure (NS). In this mode, functionality is similar to Falcon - * architectures before security modes were introduced (pre-Maxwell), but - * capability is restricted. In particular, certain registers may be - * inaccessible for reads and/or writes, and physical memory access may be - * disabled (on certain Falcon instances). This is the only possible mode that - * can be used if you don't have microcode cryptographically signed by NVIDIA. - * - * - Heavy Secure (HS). In this mode, the microprocessor is a black box - it's - * not possible to read or write any Falcon internal state or Falcon registers - * from outside the Falcon (for example, from the host system). The only way - * to enable this mode is by loading microcode that has been signed by NVIDIA. - * (The loading process involves tagging the IMEM block as secure, writing the - * signature into a Falcon register, and starting execution. The hardware will - * validate the signature, and if valid, grant HS privileges.) - * - * - Light Secure (LS). In this mode, the microprocessor has more privileges - * than NS but fewer than HS. Some of the microprocessor state is visible to - * host software to ease debugging. The only way to enable this mode is by HS - * microcode enabling LS mode. Some privileges available to HS mode are not - * available here. LS mode is introduced in GM20x. - * - * Secure boot consists in temporarily switching a HS-capable falcon (typically - * PMU) into HS mode in order to validate the LS firmwares of managed falcons, - * load them, and switch managed falcons into LS mode. Once secure boot - * completes, no falcon remains in HS mode. - * - * Secure boot requires a write-protected memory region (WPR) which can only be - * written by the secure falcon. On dGPU, the driver sets up the WPR region in - * video memory. On Tegra, it is set up by the bootloader and its location and - * size written into memory controller registers. - * - * The secure boot process takes place as follows: - * - * 1) A LS blob is constructed that contains all the LS firmwares we want to - * load, along with their signatures and bootloaders. - * - * 2) A HS blob (also called ACR) is created that contains the signed HS - * firmware in charge of loading the LS firmwares into their respective - * falcons. - * - * 3) The HS blob is loaded (via its own bootloader) and executed on the - * HS-capable falcon. It authenticates itself, switches the secure falcon to - * HS mode and setup the WPR region around the LS blob (dGPU) or copies the - * LS blob into the WPR region (Tegra). - * - * 4) The LS blob is now secure from all external tampering. The HS falcon - * checks the signatures of the LS firmwares and, if valid, switches the - * managed falcons to LS mode and makes them ready to run the LS firmware. - * - * 5) The managed falcons remain in LS mode and can be started. - * - */ -#include "priv.h" +#include "acr.h" +#include "gm200.h" #include <core/gpuobj.h> -#include <core/firmware.h> #include <subdev/fb.h> - -enum { - FALCON_DMAIDX_UCODE = 0, - FALCON_DMAIDX_VIRT = 1, - FALCON_DMAIDX_PHYS_VID = 2, - FALCON_DMAIDX_PHYS_SYS_COH = 3, - FALCON_DMAIDX_PHYS_SYS_NCOH = 4, -}; - -/** - * struct fw_bin_header - header of firmware files - * @bin_magic: always 0x3b1d14f0 - * @bin_ver: version of the bin format - * @bin_size: entire image size including this header - * @header_offset: offset of the firmware/bootloader header in the file - * @data_offset: offset of the firmware/bootloader payload in the file - * @data_size: size of the payload - * - * This header is located at the beginning of the HS firmware and HS bootloader - * files, to describe where the headers and data can be found. - */ -struct fw_bin_header { - u32 bin_magic; - u32 bin_ver; - u32 bin_size; - u32 header_offset; - u32 data_offset; - u32 data_size; -}; - -/** - * struct fw_bl_desc - firmware bootloader descriptor - * @start_tag: starting tag of bootloader - * @desc_dmem_load_off: DMEM offset of flcn_bl_dmem_desc - * @code_off: offset of code section - * @code_size: size of code section - * @data_off: offset of data section - * @data_size: size of data section - * - * This structure is embedded in bootloader firmware files at to describe the - * IMEM and DMEM layout expected by the bootloader. - */ -struct fw_bl_desc { - u32 start_tag; - u32 dmem_load_off; - u32 code_off; - u32 code_size; - u32 data_off; - u32 data_size; -}; - - -/* - * - * LS blob structures - * - */ - -/** - * struct lsf_ucode_desc - LS falcon signatures - * @prd_keys: signature to use when the GPU is in production mode - * @dgb_keys: signature to use when the GPU is in debug mode - * @b_prd_present: whether the production key is present - * @b_dgb_present: whether the debug key is present - * @falcon_id: ID of the falcon the ucode applies to - * - * Directly loaded from a signature file. - */ -struct lsf_ucode_desc { - u8 prd_keys[2][16]; - u8 dbg_keys[2][16]; - u32 b_prd_present; - u32 b_dbg_present; - u32 falcon_id; -}; - -/** - * struct lsf_lsb_header - LS firmware header - * @signature: signature to verify the firmware against - * @ucode_off: offset of the ucode blob in the WPR region. The ucode - * blob contains the bootloader, code and data of the - * LS falcon - * @ucode_size: size of the ucode blob, including bootloader - * @data_size: size of the ucode blob data - * @bl_code_size: size of the bootloader code - * @bl_imem_off: offset in imem of the bootloader - * @bl_data_off: offset of the bootloader data in WPR region - * @bl_data_size: size of the bootloader data - * @app_code_off: offset of the app code relative to ucode_off - * @app_code_size: size of the app code - * @app_data_off: offset of the app data relative to ucode_off - * @app_data_size: size of the app data - * @flags: flags for the secure bootloader - * - * This structure is written into the WPR region for each managed falcon. Each - * instance is referenced by the lsb_offset member of the corresponding - * lsf_wpr_header. - */ -struct lsf_lsb_header { - struct lsf_ucode_desc signature; - u32 ucode_off; - u32 ucode_size; - u32 data_size; - u32 bl_code_size; - u32 bl_imem_off; - u32 bl_data_off; - u32 bl_data_size; - u32 app_code_off; - u32 app_code_size; - u32 app_data_off; - u32 app_data_size; - u32 flags; -#define LSF_FLAG_LOAD_CODE_AT_0 1 -#define LSF_FLAG_DMACTL_REQ_CTX 4 -#define LSF_FLAG_FORCE_PRIV_LOAD 8 -}; - -/** - * struct lsf_wpr_header - LS blob WPR Header - * @falcon_id: LS falcon ID - * @lsb_offset: offset of the lsb_lsf_header in the WPR region - * @bootstrap_owner: secure falcon reponsible for bootstrapping the LS falcon - * @lazy_bootstrap: skip bootstrapping by ACR - * @status: bootstrapping status - * - * An array of these is written at the beginning of the WPR region, one for - * each managed falcon. The array is terminated by an instance which falcon_id - * is LSF_FALCON_ID_INVALID. - */ -struct lsf_wpr_header { - u32 falcon_id; - u32 lsb_offset; - u32 bootstrap_owner; - u32 lazy_bootstrap; - u32 status; -#define LSF_IMAGE_STATUS_NONE 0 -#define LSF_IMAGE_STATUS_COPY 1 -#define LSF_IMAGE_STATUS_VALIDATION_CODE_FAILED 2 -#define LSF_IMAGE_STATUS_VALIDATION_DATA_FAILED 3 -#define LSF_IMAGE_STATUS_VALIDATION_DONE 4 -#define LSF_IMAGE_STATUS_VALIDATION_SKIPPED 5 -#define LSF_IMAGE_STATUS_BOOTSTRAP_READY 6 -}; - - -/** - * struct ls_ucode_img_desc - descriptor of firmware image - * @descriptor_size: size of this descriptor - * @image_size: size of the whole image - * @bootloader_start_offset: start offset of the bootloader in ucode image - * @bootloader_size: size of the bootloader - * @bootloader_imem_offset: start off set of the bootloader in IMEM - * @bootloader_entry_point: entry point of the bootloader in IMEM - * @app_start_offset: start offset of the LS firmware - * @app_size: size of the LS firmware's code and data - * @app_imem_offset: offset of the app in IMEM - * @app_imem_entry: entry point of the app in IMEM - * @app_dmem_offset: offset of the data in DMEM - * @app_resident_code_offset: offset of app code from app_start_offset - * @app_resident_code_size: size of the code - * @app_resident_data_offset: offset of data from app_start_offset - * @app_resident_data_size: size of data - * - * A firmware image contains the code, data, and bootloader of a given LS - * falcon in a single blob. This structure describes where everything is. - * - * This can be generated from a (bootloader, code, data) set if they have - * been loaded separately, or come directly from a file. - */ -struct ls_ucode_img_desc { - u32 descriptor_size; - u32 image_size; - u32 tools_version; - u32 app_version; - char date[64]; - u32 bootloader_start_offset; - u32 bootloader_size; - u32 bootloader_imem_offset; - u32 bootloader_entry_point; - u32 app_start_offset; - u32 app_size; - u32 app_imem_offset; - u32 app_imem_entry; - u32 app_dmem_offset; - u32 app_resident_code_offset; - u32 app_resident_code_size; - u32 app_resident_data_offset; - u32 app_resident_data_size; - u32 nb_overlays; - struct {u32 start; u32 size; } load_ovl[64]; - u32 compressed; -}; - -/** - * struct ls_ucode_img - temporary storage for loaded LS firmwares - * @node: to link within lsf_ucode_mgr - * @falcon_id: ID of the falcon this LS firmware is for - * @ucode_desc: loaded or generated map of ucode_data - * @ucode_header: header of the firmware - * @ucode_data: firmware payload (code and data) - * @ucode_size: size in bytes of data in ucode_data - * @wpr_header: WPR header to be written to the LS blob - * @lsb_header: LSB header to be written to the LS blob - * - * Preparing the WPR LS blob requires information about all the LS firmwares - * (size, etc) to be known. This structure contains all the data of one LS - * firmware. - */ -struct ls_ucode_img { - struct list_head node; - enum nvkm_secboot_falcon falcon_id; - - struct ls_ucode_img_desc ucode_desc; - u32 *ucode_header; - u8 *ucode_data; - u32 ucode_size; - - struct lsf_wpr_header wpr_header; - struct lsf_lsb_header lsb_header; -}; - -/** - * struct ls_ucode_mgr - manager for all LS falcon firmwares - * @count: number of managed LS falcons - * @wpr_size: size of the required WPR region in bytes - * @img_list: linked list of lsf_ucode_img - */ -struct ls_ucode_mgr { - u16 count; - u32 wpr_size; - struct list_head img_list; -}; - - -/* - * - * HS blob structures - * - */ - -/** - * struct hsf_fw_header - HS firmware descriptor - * @sig_dbg_offset: offset of the debug signature - * @sig_dbg_size: size of the debug signature - * @sig_prod_offset: offset of the production signature - * @sig_prod_size: size of the production signature - * @patch_loc: offset of the offset (sic) of where the signature is - * @patch_sig: offset of the offset (sic) to add to sig_*_offset - * @hdr_offset: offset of the load header (see struct hs_load_header) - * @hdr_size: size of above header - * - * This structure is embedded in the HS firmware image at - * hs_bin_hdr.header_offset. - */ -struct hsf_fw_header { - u32 sig_dbg_offset; - u32 sig_dbg_size; - u32 sig_prod_offset; - u32 sig_prod_size; - u32 patch_loc; - u32 patch_sig; - u32 hdr_offset; - u32 hdr_size; -}; - -/** - * struct hsf_load_header - HS firmware load header - */ -struct hsf_load_header { - u32 non_sec_code_off; - u32 non_sec_code_size; - u32 data_dma_base; - u32 data_size; - u32 num_apps; - struct { - u32 sec_code_off; - u32 sec_code_size; - } app[0]; -}; - -/** - * Convenience function to duplicate a firmware file in memory and check that - * it has the required minimum size. - */ -static void * -gm200_secboot_load_firmware(struct nvkm_subdev *subdev, const char *name, - size_t min_size) -{ - const struct firmware *fw; - void *blob; - int ret; - - ret = nvkm_firmware_get(subdev->device, name, &fw); - if (ret) - return ERR_PTR(ret); - if (fw->size < min_size) { - nvkm_error(subdev, "%s is smaller than expected size %zu\n", - name, min_size); - nvkm_firmware_put(fw); - return ERR_PTR(-EINVAL); - } - blob = kmemdup(fw->data, fw->size, GFP_KERNEL); - nvkm_firmware_put(fw); - if (!blob) - return ERR_PTR(-ENOMEM); - - return blob; -} - - -/* - * Low-secure blob creation - */ - -#define BL_DESC_BLK_SIZE 256 -/** - * Build a ucode image and descriptor from provided bootloader, code and data. - * - * @bl: bootloader image, including 16-bytes descriptor - * @code: LS firmware code segment - * @data: LS firmware data segment - * @desc: ucode descriptor to be written - * - * Return: allocated ucode image with corresponding descriptor information. desc - * is also updated to contain the right offsets within returned image. - */ -static void * -ls_ucode_img_build(const struct firmware *bl, const struct firmware *code, - const struct firmware *data, struct ls_ucode_img_desc *desc) -{ - struct fw_bin_header *bin_hdr = (void *)bl->data; - struct fw_bl_desc *bl_desc = (void *)bl->data + bin_hdr->header_offset; - void *bl_data = (void *)bl->data + bin_hdr->data_offset; - u32 pos = 0; - void *image; - - desc->bootloader_start_offset = pos; - desc->bootloader_size = ALIGN(bl_desc->code_size, sizeof(u32)); - desc->bootloader_imem_offset = bl_desc->start_tag * 256; - desc->bootloader_entry_point = bl_desc->start_tag * 256; - - pos = ALIGN(pos + desc->bootloader_size, BL_DESC_BLK_SIZE); - desc->app_start_offset = pos; - desc->app_size = ALIGN(code->size, BL_DESC_BLK_SIZE) + - ALIGN(data->size, BL_DESC_BLK_SIZE); - desc->app_imem_offset = 0; - desc->app_imem_entry = 0; - desc->app_dmem_offset = 0; - desc->app_resident_code_offset = 0; - desc->app_resident_code_size = ALIGN(code->size, BL_DESC_BLK_SIZE); - - pos = ALIGN(pos + desc->app_resident_code_size, BL_DESC_BLK_SIZE); - desc->app_resident_data_offset = pos - desc->app_start_offset; - desc->app_resident_data_size = ALIGN(data->size, BL_DESC_BLK_SIZE); - - desc->image_size = ALIGN(bl_desc->code_size, BL_DESC_BLK_SIZE) + - desc->app_size; - - image = kzalloc(desc->image_size, GFP_KERNEL); - if (!image) - return ERR_PTR(-ENOMEM); - - memcpy(image + desc->bootloader_start_offset, bl_data, - bl_desc->code_size); - memcpy(image + desc->app_start_offset, code->data, code->size); - memcpy(image + desc->app_start_offset + desc->app_resident_data_offset, - data->data, data->size); - - return image; -} - -/** - * ls_ucode_img_load_generic() - load and prepare a LS ucode image - * - * Load the LS microcode, bootloader and signature and pack them into a single - * blob. Also generate the corresponding ucode descriptor. - */ -static int -ls_ucode_img_load_generic(struct nvkm_subdev *subdev, - struct ls_ucode_img *img, const char *falcon_name, - const u32 falcon_id) -{ - const struct firmware *bl, *code, *data; - struct lsf_ucode_desc *lsf_desc; - char f[64]; - int ret; - - img->ucode_header = NULL; - - snprintf(f, sizeof(f), "gr/%s_bl", falcon_name); - ret = nvkm_firmware_get(subdev->device, f, &bl); - if (ret) - goto error; - - snprintf(f, sizeof(f), "gr/%s_inst", falcon_name); - ret = nvkm_firmware_get(subdev->device, f, &code); - if (ret) - goto free_bl; - - snprintf(f, sizeof(f), "gr/%s_data", falcon_name); - ret = nvkm_firmware_get(subdev->device, f, &data); - if (ret) - goto free_inst; - - img->ucode_data = ls_ucode_img_build(bl, code, data, - &img->ucode_desc); - if (IS_ERR(img->ucode_data)) { - ret = PTR_ERR(img->ucode_data); - goto free_data; - } - img->ucode_size = img->ucode_desc.image_size; - - snprintf(f, sizeof(f), "gr/%s_sig", falcon_name); - lsf_desc = gm200_secboot_load_firmware(subdev, f, sizeof(*lsf_desc)); - if (IS_ERR(lsf_desc)) { - ret = PTR_ERR(lsf_desc); - goto free_image; - } - /* not needed? the signature should already have the right value */ - lsf_desc->falcon_id = falcon_id; - memcpy(&img->lsb_header.signature, lsf_desc, sizeof(*lsf_desc)); - img->falcon_id = lsf_desc->falcon_id; - kfree(lsf_desc); - - /* success path - only free requested firmware files */ - goto free_data; - -free_image: - kfree(img->ucode_data); -free_data: - nvkm_firmware_put(data); -free_inst: - nvkm_firmware_put(code); -free_bl: - nvkm_firmware_put(bl); -error: - return ret; -} - -typedef int (*lsf_load_func)(struct nvkm_subdev *, struct ls_ucode_img *); - -static int -ls_ucode_img_load_fecs(struct nvkm_subdev *subdev, struct ls_ucode_img *img) -{ - return ls_ucode_img_load_generic(subdev, img, "fecs", - NVKM_SECBOOT_FALCON_FECS); -} - -static int -ls_ucode_img_load_gpccs(struct nvkm_subdev *subdev, struct ls_ucode_img *img) -{ - return ls_ucode_img_load_generic(subdev, img, "gpccs", - NVKM_SECBOOT_FALCON_GPCCS); -} - -/** - * ls_ucode_img_load() - create a lsf_ucode_img and load it - */ -static struct ls_ucode_img * -ls_ucode_img_load(struct nvkm_subdev *subdev, lsf_load_func load_func) -{ - struct ls_ucode_img *img; - int ret; - - img = kzalloc(sizeof(*img), GFP_KERNEL); - if (!img) - return ERR_PTR(-ENOMEM); - - ret = load_func(subdev, img); - if (ret) { - kfree(img); - return ERR_PTR(ret); - } - - return img; -} - -static const lsf_load_func lsf_load_funcs[] = { - [NVKM_SECBOOT_FALCON_END] = NULL, /* reserve enough space */ - [NVKM_SECBOOT_FALCON_FECS] = ls_ucode_img_load_fecs, - [NVKM_SECBOOT_FALCON_GPCCS] = ls_ucode_img_load_gpccs, -}; - -/** - * ls_ucode_img_populate_bl_desc() - populate a DMEM BL descriptor for LS image - * @img: ucode image to generate against - * @desc: descriptor to populate - * @sb: secure boot state to use for base addresses - * - * Populate the DMEM BL descriptor with the information contained in a - * ls_ucode_desc. - * - */ -static void -ls_ucode_img_populate_bl_desc(struct ls_ucode_img *img, u64 wpr_addr, - struct gm200_flcn_bl_desc *desc) -{ - struct ls_ucode_img_desc *pdesc = &img->ucode_desc; - u64 addr_base; - - addr_base = wpr_addr + img->lsb_header.ucode_off + - pdesc->app_start_offset; - - memset(desc, 0, sizeof(*desc)); - desc->ctx_dma = FALCON_DMAIDX_UCODE; - desc->code_dma_base.lo = lower_32_bits( - (addr_base + pdesc->app_resident_code_offset)); - desc->code_dma_base.hi = upper_32_bits( - (addr_base + pdesc->app_resident_code_offset)); - desc->non_sec_code_size = pdesc->app_resident_code_size; - desc->data_dma_base.lo = lower_32_bits( - (addr_base + pdesc->app_resident_data_offset)); - desc->data_dma_base.hi = upper_32_bits( - (addr_base + pdesc->app_resident_data_offset)); - desc->data_size = pdesc->app_resident_data_size; - desc->code_entry_point = pdesc->app_imem_entry; -} - -#define LSF_LSB_HEADER_ALIGN 256 -#define LSF_BL_DATA_ALIGN 256 -#define LSF_BL_DATA_SIZE_ALIGN 256 -#define LSF_BL_CODE_SIZE_ALIGN 256 -#define LSF_UCODE_DATA_ALIGN 4096 - -/** - * ls_ucode_img_fill_headers - fill the WPR and LSB headers of an image - * @gsb: secure boot device used - * @img: image to generate for - * @offset: offset in the WPR region where this image starts - * - * Allocate space in the WPR area from offset and write the WPR and LSB headers - * accordingly. - * - * Return: offset at the end of this image. - */ -static u32 -ls_ucode_img_fill_headers(struct gm200_secboot *gsb, struct ls_ucode_img *img, - u32 offset) -{ - struct lsf_wpr_header *whdr = &img->wpr_header; - struct lsf_lsb_header *lhdr = &img->lsb_header; - struct ls_ucode_img_desc *desc = &img->ucode_desc; - - if (img->ucode_header) { - nvkm_fatal(&gsb->base.subdev, - "images withough loader are not supported yet!\n"); - return offset; - } - - /* Fill WPR header */ - whdr->falcon_id = img->falcon_id; - whdr->bootstrap_owner = gsb->base.func->boot_falcon; - whdr->status = LSF_IMAGE_STATUS_COPY; - - /* Align, save off, and include an LSB header size */ - offset = ALIGN(offset, LSF_LSB_HEADER_ALIGN); - whdr->lsb_offset = offset; - offset += sizeof(struct lsf_lsb_header); - - /* - * Align, save off, and include the original (static) ucode - * image size - */ - offset = ALIGN(offset, LSF_UCODE_DATA_ALIGN); - lhdr->ucode_off = offset; - offset += img->ucode_size; - - /* - * For falcons that use a boot loader (BL), we append a loader - * desc structure on the end of the ucode image and consider - * this the boot loader data. The host will then copy the loader - * desc args to this space within the WPR region (before locking - * down) and the HS bin will then copy them to DMEM 0 for the - * loader. - */ - lhdr->bl_code_size = ALIGN(desc->bootloader_size, - LSF_BL_CODE_SIZE_ALIGN); - lhdr->ucode_size = ALIGN(desc->app_resident_data_offset, - LSF_BL_CODE_SIZE_ALIGN) + lhdr->bl_code_size; - lhdr->data_size = ALIGN(desc->app_size, LSF_BL_CODE_SIZE_ALIGN) + - lhdr->bl_code_size - lhdr->ucode_size; - /* - * Though the BL is located at 0th offset of the image, the VA - * is different to make sure that it doesn't collide the actual - * OS VA range - */ - lhdr->bl_imem_off = desc->bootloader_imem_offset; - lhdr->app_code_off = desc->app_start_offset + - desc->app_resident_code_offset; - lhdr->app_code_size = desc->app_resident_code_size; - lhdr->app_data_off = desc->app_start_offset + - desc->app_resident_data_offset; - lhdr->app_data_size = desc->app_resident_data_size; - - lhdr->flags = 0; - if (img->falcon_id == gsb->base.func->boot_falcon) - lhdr->flags = LSF_FLAG_DMACTL_REQ_CTX; - - /* GPCCS will be loaded using PRI */ - if (img->falcon_id == NVKM_SECBOOT_FALCON_GPCCS) - lhdr->flags |= LSF_FLAG_FORCE_PRIV_LOAD; - - /* Align (size bloat) and save off BL descriptor size */ - lhdr->bl_data_size = ALIGN(sizeof(struct gm200_flcn_bl_desc), - LSF_BL_DATA_SIZE_ALIGN); - /* - * Align, save off, and include the additional BL data - */ - offset = ALIGN(offset, LSF_BL_DATA_ALIGN); - lhdr->bl_data_off = offset; - offset += lhdr->bl_data_size; - - return offset; -} - -static void -ls_ucode_mgr_init(struct ls_ucode_mgr *mgr) -{ - memset(mgr, 0, sizeof(*mgr)); - INIT_LIST_HEAD(&mgr->img_list); -} - -static void -ls_ucode_mgr_cleanup(struct ls_ucode_mgr *mgr) -{ - struct ls_ucode_img *img, *t; - - list_for_each_entry_safe(img, t, &mgr->img_list, node) { - kfree(img->ucode_data); - kfree(img->ucode_header); - kfree(img); - } -} - -static void -ls_ucode_mgr_add_img(struct ls_ucode_mgr *mgr, struct ls_ucode_img *img) -{ - mgr->count++; - list_add_tail(&img->node, &mgr->img_list); -} - -/** - * ls_ucode_mgr_fill_headers - fill WPR and LSB headers of all managed images - */ -static void -ls_ucode_mgr_fill_headers(struct gm200_secboot *gsb, struct ls_ucode_mgr *mgr) -{ - struct ls_ucode_img *img; - u32 offset; - - /* - * Start with an array of WPR headers at the base of the WPR. - * The expectation here is that the secure falcon will do a single DMA - * read of this array and cache it internally so it's ok to pack these. - * Also, we add 1 to the falcon count to indicate the end of the array. - */ - offset = sizeof(struct lsf_wpr_header) * (mgr->count + 1); - - /* - * Walk the managed falcons, accounting for the LSB structs - * as well as the ucode images. - */ - list_for_each_entry(img, &mgr->img_list, node) { - offset = ls_ucode_img_fill_headers(gsb, img, offset); - } - - mgr->wpr_size = offset; -} - -/** - * ls_ucode_mgr_write_wpr - write the WPR blob contents - */ -static int -ls_ucode_mgr_write_wpr(struct gm200_secboot *gsb, struct ls_ucode_mgr *mgr, - struct nvkm_gpuobj *wpr_blob) -{ - struct ls_ucode_img *img; - u32 pos = 0; - - nvkm_kmap(wpr_blob); - - list_for_each_entry(img, &mgr->img_list, node) { - nvkm_gpuobj_memcpy_to(wpr_blob, pos, &img->wpr_header, - sizeof(img->wpr_header)); - - nvkm_gpuobj_memcpy_to(wpr_blob, img->wpr_header.lsb_offset, - &img->lsb_header, sizeof(img->lsb_header)); - - /* Generate and write BL descriptor */ - if (!img->ucode_header) { - u8 desc[gsb->func->bl_desc_size]; - struct gm200_flcn_bl_desc gdesc; - - ls_ucode_img_populate_bl_desc(img, gsb->wpr_addr, - &gdesc); - gsb->func->fixup_bl_desc(&gdesc, &desc); - nvkm_gpuobj_memcpy_to(wpr_blob, - img->lsb_header.bl_data_off, - &desc, gsb->func->bl_desc_size); - } - - /* Copy ucode */ - nvkm_gpuobj_memcpy_to(wpr_blob, img->lsb_header.ucode_off, - img->ucode_data, img->ucode_size); - - pos += sizeof(img->wpr_header); - } - - nvkm_wo32(wpr_blob, pos, NVKM_SECBOOT_FALCON_INVALID); - - nvkm_done(wpr_blob); - - return 0; -} - -/* Both size and address of WPR need to be 128K-aligned */ -#define WPR_ALIGNMENT 0x20000 -/** - * gm200_secboot_prepare_ls_blob() - prepare the LS blob - * - * For each securely managed falcon, load the FW, signatures and bootloaders and - * prepare a ucode blob. Then, compute the offsets in the WPR region for each - * blob, and finally write the headers and ucode blobs into a GPU object that - * will be copied into the WPR region by the HS firmware. - */ -static int -gm200_secboot_prepare_ls_blob(struct gm200_secboot *gsb) -{ - struct nvkm_secboot *sb = &gsb->base; - struct nvkm_device *device = sb->subdev.device; - struct ls_ucode_mgr mgr; - int falcon_id; - int ret; - - ls_ucode_mgr_init(&mgr); - - /* Load all LS blobs */ - for_each_set_bit(falcon_id, &gsb->base.func->managed_falcons, - NVKM_SECBOOT_FALCON_END) { - struct ls_ucode_img *img; - - img = ls_ucode_img_load(&sb->subdev, lsf_load_funcs[falcon_id]); - - if (IS_ERR(img)) { - ret = PTR_ERR(img); - goto cleanup; - } - ls_ucode_mgr_add_img(&mgr, img); - } - - /* - * Fill the WPR and LSF headers with the right offsets and compute - * required WPR size - */ - ls_ucode_mgr_fill_headers(gsb, &mgr); - mgr.wpr_size = ALIGN(mgr.wpr_size, WPR_ALIGNMENT); - - /* Allocate GPU object that will contain the WPR region */ - ret = nvkm_gpuobj_new(device, mgr.wpr_size, WPR_ALIGNMENT, false, NULL, - &gsb->ls_blob); - if (ret) - goto cleanup; - - nvkm_debug(&sb->subdev, "%d managed LS falcons, WPR size is %d bytes\n", - mgr.count, mgr.wpr_size); - - /* If WPR address and size are not fixed, set them to fit the LS blob */ - if (!gsb->wpr_size) { - gsb->wpr_addr = gsb->ls_blob->addr; - gsb->wpr_size = gsb->ls_blob->size; - } - - /* Write LS blob */ - ret = ls_ucode_mgr_write_wpr(gsb, &mgr, gsb->ls_blob); - if (ret) - nvkm_gpuobj_del(&gsb->ls_blob); - -cleanup: - ls_ucode_mgr_cleanup(&mgr); - - return ret; -} - -/* - * High-secure blob creation - */ - -/** - * gm200_secboot_hsf_patch_signature() - patch HS blob with correct signature - */ -static void -gm200_secboot_hsf_patch_signature(struct gm200_secboot *gsb, void *acr_image) -{ - struct nvkm_secboot *sb = &gsb->base; - struct fw_bin_header *hsbin_hdr = acr_image; - struct hsf_fw_header *fw_hdr = acr_image + hsbin_hdr->header_offset; - void *hs_data = acr_image + hsbin_hdr->data_offset; - void *sig; - u32 sig_size; - - /* Falcon in debug or production mode? */ - if ((nvkm_rd32(sb->subdev.device, sb->base + 0xc08) >> 20) & 0x1) { - sig = acr_image + fw_hdr->sig_dbg_offset; - sig_size = fw_hdr->sig_dbg_size; - } else { - sig = acr_image + fw_hdr->sig_prod_offset; - sig_size = fw_hdr->sig_prod_size; - } - - /* Patch signature */ - memcpy(hs_data + fw_hdr->patch_loc, sig + fw_hdr->patch_sig, sig_size); -} - -/** - * gm200_secboot_populate_hsf_bl_desc() - populate BL descriptor for HS image - */ -static void -gm200_secboot_populate_hsf_bl_desc(void *acr_image, - struct gm200_flcn_bl_desc *bl_desc) -{ - struct fw_bin_header *hsbin_hdr = acr_image; - struct hsf_fw_header *fw_hdr = acr_image + hsbin_hdr->header_offset; - struct hsf_load_header *load_hdr = acr_image + fw_hdr->hdr_offset; - - /* - * Descriptor for the bootloader that will load the ACR image into - * IMEM/DMEM memory. - */ - fw_hdr = acr_image + hsbin_hdr->header_offset; - load_hdr = acr_image + fw_hdr->hdr_offset; - memset(bl_desc, 0, sizeof(*bl_desc)); - bl_desc->ctx_dma = FALCON_DMAIDX_VIRT; - bl_desc->non_sec_code_off = load_hdr->non_sec_code_off; - bl_desc->non_sec_code_size = load_hdr->non_sec_code_size; - bl_desc->sec_code_off = load_hdr->app[0].sec_code_off; - bl_desc->sec_code_size = load_hdr->app[0].sec_code_size; - bl_desc->code_entry_point = 0; - /* - * We need to set code_dma_base to the virtual address of the acr_blob, - * and add this address to data_dma_base before writing it into DMEM - */ - bl_desc->code_dma_base.lo = 0; - bl_desc->data_dma_base.lo = load_hdr->data_dma_base; - bl_desc->data_size = load_hdr->data_size; -} - -/** - * gm200_secboot_prepare_hs_blob - load and prepare a HS blob and BL descriptor - * - * @gsb secure boot instance to prepare for - * @fw name of the HS firmware to load - * @blob pointer to gpuobj that will be allocated to receive the HS FW payload - * @bl_desc pointer to the BL descriptor to write for this firmware - * @patch whether we should patch the HS descriptor (only for HS loaders) - */ -static int -gm200_secboot_prepare_hs_blob(struct gm200_secboot *gsb, const char *fw, - struct nvkm_gpuobj **blob, - struct gm200_flcn_bl_desc *bl_desc, bool patch) -{ - struct nvkm_subdev *subdev = &gsb->base.subdev; - void *acr_image; - struct fw_bin_header *hsbin_hdr; - struct hsf_fw_header *fw_hdr; - void *acr_data; - struct hsf_load_header *load_hdr; - struct hsflcn_acr_desc *desc; - int ret; - - acr_image = gm200_secboot_load_firmware(subdev, fw, 0); - if (IS_ERR(acr_image)) - return PTR_ERR(acr_image); - hsbin_hdr = acr_image; - - /* Patch signature */ - gm200_secboot_hsf_patch_signature(gsb, acr_image); - - acr_data = acr_image + hsbin_hdr->data_offset; - - /* Patch descriptor? */ - if (patch) { - fw_hdr = acr_image + hsbin_hdr->header_offset; - load_hdr = acr_image + fw_hdr->hdr_offset; - desc = acr_data + load_hdr->data_dma_base; - gsb->func->fixup_hs_desc(gsb, desc); - } - - /* Generate HS BL descriptor */ - gm200_secboot_populate_hsf_bl_desc(acr_image, bl_desc); - - /* Create ACR blob and copy HS data to it */ - ret = nvkm_gpuobj_new(subdev->device, ALIGN(hsbin_hdr->data_size, 256), - 0x1000, false, NULL, blob); - if (ret) - goto cleanup; - - nvkm_kmap(*blob); - nvkm_gpuobj_memcpy_to(*blob, 0, acr_data, hsbin_hdr->data_size); - nvkm_done(*blob); - -cleanup: - kfree(acr_image); - - return ret; -} - -/* - * High-secure bootloader blob creation - */ - -static int -gm200_secboot_prepare_hsbl_blob(struct gm200_secboot *gsb) -{ - struct nvkm_subdev *subdev = &gsb->base.subdev; - - gsb->hsbl_blob = gm200_secboot_load_firmware(subdev, "acr/bl", 0); - if (IS_ERR(gsb->hsbl_blob)) { - int ret = PTR_ERR(gsb->hsbl_blob); - - gsb->hsbl_blob = NULL; - return ret; - } - - return 0; -} +#include <engine/falcon.h> +#include <subdev/mc.h> /** - * gm20x_secboot_prepare_blobs - load blobs common to all GM20X GPUs. + * gm200_secboot_run_blob() - run the given high-secure blob * - * This includes the LS blob, HS ucode loading blob, and HS bootloader. - * - * The HS ucode unload blob is only used on dGPU. */ int -gm20x_secboot_prepare_blobs(struct gm200_secboot *gsb) -{ - int ret; - - /* Load and prepare the managed falcon's firmwares */ - if (!gsb->ls_blob) { - ret = gm200_secboot_prepare_ls_blob(gsb); - if (ret) - return ret; - } - - /* Load the HS firmware that will load the LS firmwares */ - if (!gsb->acr_load_blob) { - ret = gm200_secboot_prepare_hs_blob(gsb, "acr/ucode_load", - &gsb->acr_load_blob, - &gsb->acr_load_bl_desc, true); - if (ret) - return ret; - } - - /* Load the HS firmware bootloader */ - if (!gsb->hsbl_blob) { - ret = gm200_secboot_prepare_hsbl_blob(gsb); - if (ret) - return ret; - } - - return 0; -} - -static int -gm200_secboot_prepare_blobs(struct gm200_secboot *gsb) -{ - int ret; - - ret = gm20x_secboot_prepare_blobs(gsb); - if (ret) - return ret; - - /* dGPU only: load the HS firmware that unprotects the WPR region */ - if (!gsb->acr_unload_blob) { - ret = gm200_secboot_prepare_hs_blob(gsb, "acr/ucode_unload", - &gsb->acr_unload_blob, - &gsb->acr_unload_bl_desc, false); - if (ret) - return ret; - } - - return 0; -} - -static int -gm200_secboot_blobs_ready(struct gm200_secboot *gsb) +gm200_secboot_run_blob(struct nvkm_secboot *sb, struct nvkm_gpuobj *blob) { + struct gm200_secboot *gsb = gm200_secboot(sb); struct nvkm_subdev *subdev = &gsb->base.subdev; + struct nvkm_falcon *falcon = gsb->base.boot_falcon; + struct nvkm_vma vma; int ret; - /* firmware already loaded, nothing to do... */ - if (gsb->firmware_ok) - return 0; - - ret = gsb->func->prepare_blobs(gsb); - if (ret) { - nvkm_error(subdev, "failed to load secure firmware\n"); - return ret; - } - - gsb->firmware_ok = true; - - return 0; -} - - -/* - * Secure Boot Execution - */ - -/** - * gm200_secboot_load_hs_bl() - load HS bootloader into DMEM and IMEM - */ -static void -gm200_secboot_load_hs_bl(struct gm200_secboot *gsb, void *data, u32 data_size) -{ - struct nvkm_device *device = gsb->base.subdev.device; - struct fw_bin_header *hdr = gsb->hsbl_blob; - struct fw_bl_desc *hsbl_desc = gsb->hsbl_blob + hdr->header_offset; - void *blob_data = gsb->hsbl_blob + hdr->data_offset; - void *hsbl_code = blob_data + hsbl_desc->code_off; - void *hsbl_data = blob_data + hsbl_desc->data_off; - u32 code_size = ALIGN(hsbl_desc->code_size, 256); - const u32 base = gsb->base.base; - u32 blk; - u32 tag; - int i; - - /* - * Copy HS bootloader data - */ - nvkm_wr32(device, base + 0x1c0, (0x00000000 | (0x1 << 24))); - for (i = 0; i < hsbl_desc->data_size / 4; i++) - nvkm_wr32(device, base + 0x1c4, ((u32 *)hsbl_data)[i]); - - /* - * Copy HS bootloader interface structure where the HS descriptor - * expects it to be - */ - nvkm_wr32(device, base + 0x1c0, - (hsbl_desc->dmem_load_off | (0x1 << 24))); - for (i = 0; i < data_size / 4; i++) - nvkm_wr32(device, base + 0x1c4, ((u32 *)data)[i]); - - /* Copy HS bootloader code to end of IMEM */ - blk = (nvkm_rd32(device, base + 0x108) & 0x1ff) - (code_size >> 8); - tag = hsbl_desc->start_tag; - nvkm_wr32(device, base + 0x180, ((blk & 0xff) << 8) | (0x1 << 24)); - for (i = 0; i < code_size / 4; i++) { - /* write new tag every 256B */ - if ((i & 0x3f) == 0) { - nvkm_wr32(device, base + 0x188, tag & 0xffff); - tag++; - } - nvkm_wr32(device, base + 0x184, ((u32 *)hsbl_code)[i]); - } - nvkm_wr32(device, base + 0x188, 0); -} - -/** - * gm200_secboot_setup_falcon() - set up the secure falcon for secure boot - */ -static int -gm200_secboot_setup_falcon(struct gm200_secboot *gsb) -{ - struct nvkm_device *device = gsb->base.subdev.device; - struct fw_bin_header *hdr = gsb->hsbl_blob; - struct fw_bl_desc *hsbl_desc = gsb->hsbl_blob + hdr->header_offset; - /* virtual start address for boot vector */ - u32 virt_addr = hsbl_desc->start_tag << 8; - const u32 base = gsb->base.base; - const u32 reg_base = base + 0xe00; - u32 inst_loc; - int ret; - - ret = nvkm_secboot_falcon_reset(&gsb->base); + ret = nvkm_falcon_get(falcon, subdev); if (ret) return ret; - /* setup apertures - virtual */ - nvkm_wr32(device, reg_base + 4 * (FALCON_DMAIDX_UCODE), 0x4); - nvkm_wr32(device, reg_base + 4 * (FALCON_DMAIDX_VIRT), 0x0); - /* setup apertures - physical */ - nvkm_wr32(device, reg_base + 4 * (FALCON_DMAIDX_PHYS_VID), 0x4); - nvkm_wr32(device, reg_base + 4 * (FALCON_DMAIDX_PHYS_SYS_COH), - 0x4 | 0x1); - nvkm_wr32(device, reg_base + 4 * (FALCON_DMAIDX_PHYS_SYS_NCOH), - 0x4 | 0x2); - - /* Set context */ - if (nvkm_memory_target(gsb->inst->memory) == NVKM_MEM_TARGET_VRAM) - inst_loc = 0x0; /* FB */ - else - inst_loc = 0x3; /* Non-coherent sysmem */ - - nvkm_mask(device, base + 0x048, 0x1, 0x1); - nvkm_wr32(device, base + 0x480, - ((gsb->inst->addr >> 12) & 0xfffffff) | - (inst_loc << 28) | (1 << 30)); - - /* Set boot vector to code's starting virtual address */ - nvkm_wr32(device, base + 0x104, virt_addr); - - return 0; -} - -/** - * gm200_secboot_run_hs_blob() - run the given high-secure blob - */ -static int -gm200_secboot_run_hs_blob(struct gm200_secboot *gsb, struct nvkm_gpuobj *blob, - struct gm200_flcn_bl_desc *desc) -{ - struct nvkm_vma vma; - u64 vma_addr; - const u32 bl_desc_size = gsb->func->bl_desc_size; - u8 bl_desc[bl_desc_size]; - int ret; - /* Map the HS firmware so the HS bootloader can see it */ ret = nvkm_gpuobj_map(blob, gsb->vm, NV_MEM_ACCESS_RW, &vma); - if (ret) + if (ret) { + nvkm_falcon_put(falcon, subdev); return ret; + } - /* Add the mapping address to the DMA bases */ - vma_addr = flcn64_to_u64(desc->code_dma_base) + vma.offset; - desc->code_dma_base.lo = lower_32_bits(vma_addr); - desc->code_dma_base.hi = upper_32_bits(vma_addr); - vma_addr = flcn64_to_u64(desc->data_dma_base) + vma.offset; - desc->data_dma_base.lo = lower_32_bits(vma_addr); - desc->data_dma_base.hi = upper_32_bits(vma_addr); - - /* Fixup the BL header */ - gsb->func->fixup_bl_desc(desc, &bl_desc); - - /* Reset the falcon and make it ready to run the HS bootloader */ - ret = gm200_secboot_setup_falcon(gsb); + /* Reset and set the falcon up */ + ret = nvkm_falcon_reset(falcon); if (ret) - goto done; + goto end; + nvkm_falcon_bind_context(falcon, gsb->inst); /* Load the HS bootloader into the falcon's IMEM/DMEM */ - gm200_secboot_load_hs_bl(gsb, &bl_desc, bl_desc_size); - - /* Start the HS bootloader */ - ret = nvkm_secboot_falcon_run(&gsb->base); + ret = sb->acr->func->load(sb->acr, &gsb->base, blob, vma.offset); if (ret) - goto done; - -done: - /* Restore the original DMA addresses */ - vma_addr = flcn64_to_u64(desc->code_dma_base) - vma.offset; - desc->code_dma_base.lo = lower_32_bits(vma_addr); - desc->code_dma_base.hi = upper_32_bits(vma_addr); - vma_addr = flcn64_to_u64(desc->data_dma_base) - vma.offset; - desc->data_dma_base.lo = lower_32_bits(vma_addr); - desc->data_dma_base.hi = upper_32_bits(vma_addr); - - /* We don't need the ACR firmware anymore */ - nvkm_gpuobj_unmap(&vma); + goto end; - return ret; -} + /* Disable interrupts as we will poll for the HALT bit */ + nvkm_mc_intr_mask(sb->subdev.device, falcon->owner->index, false); -/* - * gm200_secboot_reset() - execute secure boot from the prepared state - * - * Load the HS bootloader and ask the falcon to run it. This will in turn - * load the HS firmware and run it, so once the falcon stops all the managed - * falcons should have their LS firmware loaded and be ready to run. - */ -int -gm200_secboot_reset(struct nvkm_secboot *sb, enum nvkm_secboot_falcon falcon) -{ - struct gm200_secboot *gsb = gm200_secboot(sb); - int ret; + /* Set default error value in mailbox register */ + nvkm_falcon_wr32(falcon, 0x040, 0xdeada5a5); - /* Make sure all blobs are ready */ - ret = gm200_secboot_blobs_ready(gsb); + /* Start the HS bootloader */ + nvkm_falcon_set_start_addr(falcon, sb->acr->start_address); + nvkm_falcon_start(falcon); + ret = nvkm_falcon_wait_for_halt(falcon, 100); if (ret) - return ret; - - /* - * Dummy GM200 implementation: perform secure boot each time we are - * called on FECS. Since only FECS and GPCCS are managed and started - * together, this ought to be safe. - * - * Once we have proper PMU firmware and support, this will be changed - * to a proper call to the PMU method. - */ - if (falcon != NVKM_SECBOOT_FALCON_FECS) goto end; - /* If WPR is set and we have an unload blob, run it to unlock WPR */ - if (gsb->acr_unload_blob && - gsb->falcon_state[NVKM_SECBOOT_FALCON_FECS] != NON_SECURE) { - ret = gm200_secboot_run_hs_blob(gsb, gsb->acr_unload_blob, - &gsb->acr_unload_bl_desc); - if (ret) - return ret; + /* If mailbox register contains an error code, then ACR has failed */ + ret = nvkm_falcon_rd32(falcon, 0x040); + if (ret) { + nvkm_error(subdev, "ACR boot failed, ret 0x%08x", ret); + ret = -EINVAL; + goto end; } - /* Reload all managed falcons */ - ret = gm200_secboot_run_hs_blob(gsb, gsb->acr_load_blob, - &gsb->acr_load_bl_desc); - if (ret) - return ret; - end: - gsb->falcon_state[falcon] = RESET; - return 0; -} + /* Reenable interrupts */ + nvkm_mc_intr_mask(sb->subdev.device, falcon->owner->index, true); -int -gm200_secboot_start(struct nvkm_secboot *sb, enum nvkm_secboot_falcon falcon) -{ - struct gm200_secboot *gsb = gm200_secboot(sb); - int base; - - switch (falcon) { - case NVKM_SECBOOT_FALCON_FECS: - base = 0x409000; - break; - case NVKM_SECBOOT_FALCON_GPCCS: - base = 0x41a000; - break; - default: - nvkm_error(&sb->subdev, "cannot start unhandled falcon!\n"); - return -EINVAL; - } - - nvkm_wr32(sb->subdev.device, base + 0x130, 0x00000002); - gsb->falcon_state[falcon] = RUNNING; + /* We don't need the ACR firmware anymore */ + nvkm_gpuobj_unmap(&vma); + nvkm_falcon_put(falcon, subdev); - return 0; + return ret; } - - int -gm200_secboot_init(struct nvkm_secboot *sb) +gm200_secboot_oneinit(struct nvkm_secboot *sb) { struct gm200_secboot *gsb = gm200_secboot(sb); struct nvkm_device *device = sb->subdev.device; @@ -1361,24 +132,22 @@ gm200_secboot_init(struct nvkm_secboot *sb) nvkm_wo32(gsb->inst, 0x20c, upper_32_bits(vm_area_len - 1)); nvkm_done(gsb->inst); + if (sb->acr->func->oneinit) { + ret = sb->acr->func->oneinit(sb->acr, sb); + if (ret) + return ret; + } + return 0; } -static int +int gm200_secboot_fini(struct nvkm_secboot *sb, bool suspend) { - struct gm200_secboot *gsb = gm200_secboot(sb); int ret = 0; - int i; - /* Run the unload blob to unprotect the WPR region */ - if (gsb->acr_unload_blob && - gsb->falcon_state[NVKM_SECBOOT_FALCON_FECS] != NON_SECURE) - ret = gm200_secboot_run_hs_blob(gsb, gsb->acr_unload_blob, - &gsb->acr_unload_bl_desc); - - for (i = 0; i < NVKM_SECBOOT_FALCON_END; i++) - gsb->falcon_state[i] = NON_SECURE; + if (sb->acr->func->fini) + ret = sb->acr->func->fini(sb->acr, sb, suspend); return ret; } @@ -1388,11 +157,7 @@ gm200_secboot_dtor(struct nvkm_secboot *sb) { struct gm200_secboot *gsb = gm200_secboot(sb); - nvkm_gpuobj_del(&gsb->acr_unload_blob); - - kfree(gsb->hsbl_blob); - nvkm_gpuobj_del(&gsb->acr_load_blob); - nvkm_gpuobj_del(&gsb->ls_blob); + sb->acr->func->dtor(sb->acr); nvkm_vm_ref(NULL, &gsb->vm, gsb->pgd); nvkm_gpuobj_del(&gsb->pgd); @@ -1405,50 +170,9 @@ gm200_secboot_dtor(struct nvkm_secboot *sb) static const struct nvkm_secboot_func gm200_secboot = { .dtor = gm200_secboot_dtor, - .init = gm200_secboot_init, + .oneinit = gm200_secboot_oneinit, .fini = gm200_secboot_fini, - .reset = gm200_secboot_reset, - .start = gm200_secboot_start, - .managed_falcons = BIT(NVKM_SECBOOT_FALCON_FECS) | - BIT(NVKM_SECBOOT_FALCON_GPCCS), - .boot_falcon = NVKM_SECBOOT_FALCON_PMU, -}; - -/** - * gm200_fixup_bl_desc - just copy the BL descriptor - * - * Use the GM200 descriptor format by default. - */ -static void -gm200_secboot_fixup_bl_desc(const struct gm200_flcn_bl_desc *desc, void *ret) -{ - memcpy(ret, desc, sizeof(*desc)); -} - -static void -gm200_secboot_fixup_hs_desc(struct gm200_secboot *gsb, - struct hsflcn_acr_desc *desc) -{ - desc->ucode_blob_base = gsb->ls_blob->addr; - desc->ucode_blob_size = gsb->ls_blob->size; - - desc->wpr_offset = 0; - - /* WPR region information for the HS binary to set up */ - desc->wpr_region_id = 1; - desc->regions.no_regions = 1; - desc->regions.region_props[0].region_id = 1; - desc->regions.region_props[0].start_addr = gsb->wpr_addr >> 8; - desc->regions.region_props[0].end_addr = - (gsb->wpr_addr + gsb->wpr_size) >> 8; -} - -static const struct gm200_secboot_func -gm200_secboot_func = { - .bl_desc_size = sizeof(struct gm200_flcn_bl_desc), - .fixup_bl_desc = gm200_secboot_fixup_bl_desc, - .fixup_hs_desc = gm200_secboot_fixup_hs_desc, - .prepare_blobs = gm200_secboot_prepare_blobs, + .run_blob = gm200_secboot_run_blob, }; int @@ -1457,6 +181,12 @@ gm200_secboot_new(struct nvkm_device *device, int index, { int ret; struct gm200_secboot *gsb; + struct nvkm_acr *acr; + + acr = acr_r361_new(BIT(NVKM_SECBOOT_FALCON_FECS) | + BIT(NVKM_SECBOOT_FALCON_GPCCS)); + if (IS_ERR(acr)) + return PTR_ERR(acr); gsb = kzalloc(sizeof(*gsb), GFP_KERNEL); if (!gsb) { @@ -1465,15 +195,14 @@ gm200_secboot_new(struct nvkm_device *device, int index, } *psb = &gsb->base; - ret = nvkm_secboot_ctor(&gm200_secboot, device, index, &gsb->base); + ret = nvkm_secboot_ctor(&gm200_secboot, acr, device, index, &gsb->base); if (ret) return ret; - gsb->func = &gm200_secboot_func; - return 0; } + MODULE_FIRMWARE("nvidia/gm200/acr/bl.bin"); MODULE_FIRMWARE("nvidia/gm200/acr/ucode_load.bin"); MODULE_FIRMWARE("nvidia/gm200/acr/ucode_unload.bin"); |