Author | Tokens | Token Proportion | Commits | Commit Proportion |
---|---|---|---|---|
Shinas Rasheed | 2779 | 100.00% | 2 | 100.00% |
Total | 2779 | 2 |
// SPDX-License-Identifier: GPL-2.0 /* Marvell Octeon EP (EndPoint) VF Ethernet Driver * * Copyright (C) 2020 Marvell. * */ #include <linux/pci.h> #include <linux/netdevice.h> #include <linux/etherdevice.h> #include "octep_vf_config.h" #include "octep_vf_main.h" #include "octep_vf_regs_cn9k.h" /* Dump useful hardware IQ/OQ CSRs for debug purpose */ static void cn93_vf_dump_q_regs(struct octep_vf_device *oct, int qno) { struct device *dev = &oct->pdev->dev; dev_info(dev, "IQ-%d register dump\n", qno); dev_info(dev, "R[%d]_IN_INSTR_DBELL[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_IN_INSTR_DBELL(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_INSTR_DBELL(qno))); dev_info(dev, "R[%d]_IN_CONTROL[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_IN_CONTROL(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_CONTROL(qno))); dev_info(dev, "R[%d]_IN_ENABLE[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_IN_ENABLE(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_ENABLE(qno))); dev_info(dev, "R[%d]_IN_INSTR_BADDR[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_IN_INSTR_BADDR(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_INSTR_BADDR(qno))); dev_info(dev, "R[%d]_IN_INSTR_RSIZE[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_IN_INSTR_RSIZE(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_INSTR_RSIZE(qno))); dev_info(dev, "R[%d]_IN_CNTS[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_IN_CNTS(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_CNTS(qno))); dev_info(dev, "R[%d]_IN_INT_LEVELS[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_IN_INT_LEVELS(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_INT_LEVELS(qno))); dev_info(dev, "R[%d]_IN_PKT_CNT[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_IN_PKT_CNT(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_PKT_CNT(qno))); dev_info(dev, "R[%d]_IN_BYTE_CNT[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_IN_BYTE_CNT(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_BYTE_CNT(qno))); dev_info(dev, "OQ-%d register dump\n", qno); dev_info(dev, "R[%d]_OUT_SLIST_DBELL[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_OUT_SLIST_DBELL(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_SLIST_DBELL(qno))); dev_info(dev, "R[%d]_OUT_CONTROL[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_OUT_CONTROL(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_CONTROL(qno))); dev_info(dev, "R[%d]_OUT_ENABLE[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_OUT_ENABLE(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_ENABLE(qno))); dev_info(dev, "R[%d]_OUT_SLIST_BADDR[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_OUT_SLIST_BADDR(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_SLIST_BADDR(qno))); dev_info(dev, "R[%d]_OUT_SLIST_RSIZE[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_OUT_SLIST_RSIZE(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_SLIST_RSIZE(qno))); dev_info(dev, "R[%d]_OUT_CNTS[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_OUT_CNTS(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_CNTS(qno))); dev_info(dev, "R[%d]_OUT_INT_LEVELS[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_OUT_INT_LEVELS(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_INT_LEVELS(qno))); dev_info(dev, "R[%d]_OUT_PKT_CNT[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_OUT_PKT_CNT(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_PKT_CNT(qno))); dev_info(dev, "R[%d]_OUT_BYTE_CNT[0x%llx]: 0x%016llx\n", qno, CN93_VF_SDP_R_OUT_BYTE_CNT(qno), octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_BYTE_CNT(qno))); } /* Reset Hardware Tx queue */ static void cn93_vf_reset_iq(struct octep_vf_device *oct, int q_no) { u64 val = ULL(0); dev_dbg(&oct->pdev->dev, "Reset VF IQ-%d\n", q_no); /* Disable the Tx/Instruction Ring */ octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_ENABLE(q_no), val); /* clear the Instruction Ring packet/byte counts and doorbell CSRs */ octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INT_LEVELS(q_no), val); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_PKT_CNT(q_no), val); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_BYTE_CNT(q_no), val); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INSTR_BADDR(q_no), val); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INSTR_RSIZE(q_no), val); val = GENMASK_ULL(31, 0); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INSTR_DBELL(q_no), val); val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_CNTS(q_no)); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_CNTS(q_no), val & GENMASK_ULL(31, 0)); } /* Reset Hardware Rx queue */ static void cn93_vf_reset_oq(struct octep_vf_device *oct, int q_no) { u64 val = ULL(0); /* Disable Output (Rx) Ring */ octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_ENABLE(q_no), val); /* Clear count CSRs */ val = octep_vf_read_csr(oct, CN93_VF_SDP_R_OUT_CNTS(q_no)); octep_vf_write_csr(oct, CN93_VF_SDP_R_OUT_CNTS(q_no), val); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_PKT_CNT(q_no), GENMASK_ULL(35, 0)); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_SLIST_DBELL(q_no), GENMASK_ULL(31, 0)); } /* Reset all hardware Tx/Rx queues */ static void octep_vf_reset_io_queues_cn93(struct octep_vf_device *oct) { struct pci_dev *pdev = oct->pdev; int q; dev_dbg(&pdev->dev, "Reset OCTEP_CN93 VF IO Queues\n"); for (q = 0; q < CFG_GET_PORTS_ACTIVE_IO_RINGS(oct->conf); q++) { cn93_vf_reset_iq(oct, q); cn93_vf_reset_oq(oct, q); } } /* Initialize configuration limits and initial active config */ static void octep_vf_init_config_cn93_vf(struct octep_vf_device *oct) { struct octep_vf_config *conf = oct->conf; u64 reg_val; reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_CONTROL(0)); conf->ring_cfg.max_io_rings = (reg_val >> CN93_VF_R_IN_CTL_RPVF_POS) & CN93_VF_R_IN_CTL_RPVF_MASK; conf->ring_cfg.active_io_rings = conf->ring_cfg.max_io_rings; conf->iq.num_descs = OCTEP_VF_IQ_MAX_DESCRIPTORS; conf->iq.instr_type = OCTEP_VF_64BYTE_INSTR; conf->iq.db_min = OCTEP_VF_DB_MIN; conf->iq.intr_threshold = OCTEP_VF_IQ_INTR_THRESHOLD; conf->oq.num_descs = OCTEP_VF_OQ_MAX_DESCRIPTORS; conf->oq.buf_size = OCTEP_VF_OQ_BUF_SIZE; conf->oq.refill_threshold = OCTEP_VF_OQ_REFILL_THRESHOLD; conf->oq.oq_intr_pkt = OCTEP_VF_OQ_INTR_PKT_THRESHOLD; conf->oq.oq_intr_time = OCTEP_VF_OQ_INTR_TIME_THRESHOLD; conf->msix_cfg.ioq_msix = conf->ring_cfg.active_io_rings; } /* Setup registers for a hardware Tx Queue */ static void octep_vf_setup_iq_regs_cn93(struct octep_vf_device *oct, int iq_no) { struct octep_vf_iq *iq = oct->iq[iq_no]; u32 reset_instr_cnt; u64 reg_val; reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_CONTROL(iq_no)); /* wait for IDLE to set to 1 */ if (!(reg_val & CN93_VF_R_IN_CTL_IDLE)) { do { reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_CONTROL(iq_no)); } while (!(reg_val & CN93_VF_R_IN_CTL_IDLE)); } reg_val |= CN93_VF_R_IN_CTL_RDSIZE; reg_val |= CN93_VF_R_IN_CTL_IS_64B; reg_val |= CN93_VF_R_IN_CTL_ESR; octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_CONTROL(iq_no), reg_val); /* Write the start of the input queue's ring and its size */ octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INSTR_BADDR(iq_no), iq->desc_ring_dma); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INSTR_RSIZE(iq_no), iq->max_count); /* Remember the doorbell & instruction count register addr for this queue */ iq->doorbell_reg = oct->mmio.hw_addr + CN93_VF_SDP_R_IN_INSTR_DBELL(iq_no); iq->inst_cnt_reg = oct->mmio.hw_addr + CN93_VF_SDP_R_IN_CNTS(iq_no); iq->intr_lvl_reg = oct->mmio.hw_addr + CN93_VF_SDP_R_IN_INT_LEVELS(iq_no); /* Store the current instruction counter (used in flush_iq calculation) */ reset_instr_cnt = readl(iq->inst_cnt_reg); writel(reset_instr_cnt, iq->inst_cnt_reg); /* INTR_THRESHOLD is set to max(FFFFFFFF) to disable the INTR */ reg_val = CFG_GET_IQ_INTR_THRESHOLD(oct->conf) & GENMASK_ULL(31, 0); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INT_LEVELS(iq_no), reg_val); } /* Setup registers for a hardware Rx Queue */ static void octep_vf_setup_oq_regs_cn93(struct octep_vf_device *oct, int oq_no) { struct octep_vf_oq *oq = oct->oq[oq_no]; u32 time_threshold = 0; u64 oq_ctl = ULL(0); u64 reg_val; reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_CONTROL(oq_no)); /* wait for IDLE to set to 1 */ if (!(reg_val & CN93_VF_R_OUT_CTL_IDLE)) { do { reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_CONTROL(oq_no)); } while (!(reg_val & CN93_VF_R_OUT_CTL_IDLE)); } reg_val &= ~(CN93_VF_R_OUT_CTL_IMODE); reg_val &= ~(CN93_VF_R_OUT_CTL_ROR_P); reg_val &= ~(CN93_VF_R_OUT_CTL_NSR_P); reg_val &= ~(CN93_VF_R_OUT_CTL_ROR_I); reg_val &= ~(CN93_VF_R_OUT_CTL_NSR_I); reg_val &= ~(CN93_VF_R_OUT_CTL_ES_I); reg_val &= ~(CN93_VF_R_OUT_CTL_ROR_D); reg_val &= ~(CN93_VF_R_OUT_CTL_NSR_D); reg_val &= ~(CN93_VF_R_OUT_CTL_ES_D); reg_val |= (CN93_VF_R_OUT_CTL_ES_P); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_CONTROL(oq_no), reg_val); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_SLIST_BADDR(oq_no), oq->desc_ring_dma); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_SLIST_RSIZE(oq_no), oq->max_count); oq_ctl = octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_CONTROL(oq_no)); oq_ctl &= ~GENMASK_ULL(22, 0); //clear the ISIZE and BSIZE (22-0) oq_ctl |= (oq->buffer_size & GENMASK_ULL(15, 0)); //populate the BSIZE (15-0) octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_CONTROL(oq_no), oq_ctl); /* Get the mapped address of the pkt_sent and pkts_credit regs */ oq->pkts_sent_reg = oct->mmio.hw_addr + CN93_VF_SDP_R_OUT_CNTS(oq_no); oq->pkts_credit_reg = oct->mmio.hw_addr + CN93_VF_SDP_R_OUT_SLIST_DBELL(oq_no); time_threshold = CFG_GET_OQ_INTR_TIME(oct->conf); reg_val = ((u64)time_threshold << 32) | CFG_GET_OQ_INTR_PKT(oct->conf); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_INT_LEVELS(oq_no), reg_val); } /* Setup registers for a VF mailbox */ static void octep_vf_setup_mbox_regs_cn93(struct octep_vf_device *oct, int q_no) { struct octep_vf_mbox *mbox = oct->mbox; /* PF to VF DATA reg. VF reads from this reg */ mbox->mbox_read_reg = oct->mmio.hw_addr + CN93_VF_SDP_R_MBOX_PF_VF_DATA(q_no); /* VF mbox interrupt reg */ mbox->mbox_int_reg = oct->mmio.hw_addr + CN93_VF_SDP_R_MBOX_PF_VF_INT(q_no); /* VF to PF DATA reg. VF writes into this reg */ mbox->mbox_write_reg = oct->mmio.hw_addr + CN93_VF_SDP_R_MBOX_VF_PF_DATA(q_no); } /* Mailbox Interrupt handler */ static void cn93_handle_vf_mbox_intr(struct octep_vf_device *oct) { if (oct->mbox) schedule_work(&oct->mbox->wk.work); else dev_err(&oct->pdev->dev, "cannot schedule work on invalid mbox\n"); } /* Tx/Rx queue interrupt handler */ static irqreturn_t octep_vf_ioq_intr_handler_cn93(void *data) { struct octep_vf_ioq_vector *vector = data; struct octep_vf_device *oct; struct octep_vf_oq *oq; u64 reg_val; oct = vector->octep_vf_dev; oq = vector->oq; /* Mailbox interrupt arrives along with interrupt of tx/rx ring pair 0 */ if (oq->q_no == 0) { reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_MBOX_PF_VF_INT(0)); if (reg_val & CN93_VF_SDP_R_MBOX_PF_VF_INT_STATUS) { cn93_handle_vf_mbox_intr(oct); octep_vf_write_csr64(oct, CN93_VF_SDP_R_MBOX_PF_VF_INT(0), reg_val); } } napi_schedule_irqoff(oq->napi); return IRQ_HANDLED; } /* Re-initialize Octeon hardware registers */ static void octep_vf_reinit_regs_cn93(struct octep_vf_device *oct) { u32 i; for (i = 0; i < CFG_GET_PORTS_ACTIVE_IO_RINGS(oct->conf); i++) oct->hw_ops.setup_iq_regs(oct, i); for (i = 0; i < CFG_GET_PORTS_ACTIVE_IO_RINGS(oct->conf); i++) oct->hw_ops.setup_oq_regs(oct, i); oct->hw_ops.enable_interrupts(oct); oct->hw_ops.enable_io_queues(oct); for (i = 0; i < CFG_GET_PORTS_ACTIVE_IO_RINGS(oct->conf); i++) writel(oct->oq[i]->max_count, oct->oq[i]->pkts_credit_reg); } /* Enable all interrupts */ static void octep_vf_enable_interrupts_cn93(struct octep_vf_device *oct) { int num_rings, q; u64 reg_val; num_rings = CFG_GET_PORTS_ACTIVE_IO_RINGS(oct->conf); for (q = 0; q < num_rings; q++) { reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_INT_LEVELS(q)); reg_val |= BIT_ULL_MASK(62); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INT_LEVELS(q), reg_val); reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_INT_LEVELS(q)); reg_val |= BIT_ULL_MASK(62); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_INT_LEVELS(q), reg_val); } /* Enable PF to VF mbox interrupt by setting 2nd bit*/ octep_vf_write_csr64(oct, CN93_VF_SDP_R_MBOX_PF_VF_INT(0), CN93_VF_SDP_R_MBOX_PF_VF_INT_ENAB); } /* Disable all interrupts */ static void octep_vf_disable_interrupts_cn93(struct octep_vf_device *oct) { int num_rings, q; u64 reg_val; /* Disable PF to VF mbox interrupt by setting 2nd bit*/ if (oct->mbox) octep_vf_write_csr64(oct, CN93_VF_SDP_R_MBOX_PF_VF_INT(0), 0x0); num_rings = CFG_GET_PORTS_ACTIVE_IO_RINGS(oct->conf); for (q = 0; q < num_rings; q++) { reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_INT_LEVELS(q)); reg_val &= ~BIT_ULL_MASK(62); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INT_LEVELS(q), reg_val); reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_INT_LEVELS(q)); reg_val &= ~BIT_ULL_MASK(62); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_INT_LEVELS(q), reg_val); } } /* Get new Octeon Read Index: index of descriptor that Octeon reads next. */ static u32 octep_vf_update_iq_read_index_cn93(struct octep_vf_iq *iq) { u32 pkt_in_done = readl(iq->inst_cnt_reg); u32 last_done, new_idx; last_done = pkt_in_done - iq->pkt_in_done; iq->pkt_in_done = pkt_in_done; new_idx = (iq->octep_vf_read_index + last_done) % iq->max_count; return new_idx; } /* Enable a hardware Tx Queue */ static void octep_vf_enable_iq_cn93(struct octep_vf_device *oct, int iq_no) { u64 loop = HZ; u64 reg_val; octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INSTR_DBELL(iq_no), GENMASK_ULL(31, 0)); while (octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_INSTR_DBELL(iq_no)) && loop--) { schedule_timeout_interruptible(1); } reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_INT_LEVELS(iq_no)); reg_val |= BIT_ULL_MASK(62); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_INT_LEVELS(iq_no), reg_val); reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_ENABLE(iq_no)); reg_val |= ULL(1); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_ENABLE(iq_no), reg_val); } /* Enable a hardware Rx Queue */ static void octep_vf_enable_oq_cn93(struct octep_vf_device *oct, int oq_no) { u64 reg_val; reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_INT_LEVELS(oq_no)); reg_val |= BIT_ULL_MASK(62); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_INT_LEVELS(oq_no), reg_val); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_SLIST_DBELL(oq_no), GENMASK_ULL(31, 0)); reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_ENABLE(oq_no)); reg_val |= ULL(1); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_ENABLE(oq_no), reg_val); } /* Enable all hardware Tx/Rx Queues assigned to VF */ static void octep_vf_enable_io_queues_cn93(struct octep_vf_device *oct) { u8 q; for (q = 0; q < CFG_GET_PORTS_ACTIVE_IO_RINGS(oct->conf); q++) { octep_vf_enable_iq_cn93(oct, q); octep_vf_enable_oq_cn93(oct, q); } } /* Disable a hardware Tx Queue assigned to VF */ static void octep_vf_disable_iq_cn93(struct octep_vf_device *oct, int iq_no) { u64 reg_val; reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_IN_ENABLE(iq_no)); reg_val &= ~ULL(1); octep_vf_write_csr64(oct, CN93_VF_SDP_R_IN_ENABLE(iq_no), reg_val); } /* Disable a hardware Rx Queue assigned to VF */ static void octep_vf_disable_oq_cn93(struct octep_vf_device *oct, int oq_no) { u64 reg_val; reg_val = octep_vf_read_csr64(oct, CN93_VF_SDP_R_OUT_ENABLE(oq_no)); reg_val &= ~ULL(1); octep_vf_write_csr64(oct, CN93_VF_SDP_R_OUT_ENABLE(oq_no), reg_val); } /* Disable all hardware Tx/Rx Queues assigned to VF */ static void octep_vf_disable_io_queues_cn93(struct octep_vf_device *oct) { int q; for (q = 0; q < CFG_GET_PORTS_ACTIVE_IO_RINGS(oct->conf); q++) { octep_vf_disable_iq_cn93(oct, q); octep_vf_disable_oq_cn93(oct, q); } } /* Dump hardware registers (including Tx/Rx queues) for debugging. */ static void octep_vf_dump_registers_cn93(struct octep_vf_device *oct) { u8 num_rings, q; num_rings = CFG_GET_PORTS_ACTIVE_IO_RINGS(oct->conf); for (q = 0; q < num_rings; q++) cn93_vf_dump_q_regs(oct, q); } /** * octep_vf_device_setup_cn93() - Setup Octeon device. * * @oct: Octeon device private data structure. * * - initialize hardware operations. * - get target side pcie port number for the device. * - set initial configuration and max limits. */ void octep_vf_device_setup_cn93(struct octep_vf_device *oct) { oct->hw_ops.setup_iq_regs = octep_vf_setup_iq_regs_cn93; oct->hw_ops.setup_oq_regs = octep_vf_setup_oq_regs_cn93; oct->hw_ops.setup_mbox_regs = octep_vf_setup_mbox_regs_cn93; oct->hw_ops.ioq_intr_handler = octep_vf_ioq_intr_handler_cn93; oct->hw_ops.reinit_regs = octep_vf_reinit_regs_cn93; oct->hw_ops.enable_interrupts = octep_vf_enable_interrupts_cn93; oct->hw_ops.disable_interrupts = octep_vf_disable_interrupts_cn93; oct->hw_ops.update_iq_read_idx = octep_vf_update_iq_read_index_cn93; oct->hw_ops.enable_iq = octep_vf_enable_iq_cn93; oct->hw_ops.enable_oq = octep_vf_enable_oq_cn93; oct->hw_ops.enable_io_queues = octep_vf_enable_io_queues_cn93; oct->hw_ops.disable_iq = octep_vf_disable_iq_cn93; oct->hw_ops.disable_oq = octep_vf_disable_oq_cn93; oct->hw_ops.disable_io_queues = octep_vf_disable_io_queues_cn93; oct->hw_ops.reset_io_queues = octep_vf_reset_io_queues_cn93; oct->hw_ops.dump_registers = octep_vf_dump_registers_cn93; octep_vf_init_config_cn93_vf(oct); }
Information contained on this website is for historical information purposes only and does not indicate or represent copyright ownership.
Created with Cregit http://github.com/cregit/cregit
Version 2.0-RC1