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/*****************************************************************************
* Copyright Statement:
* --------------------
* This software is protected by Copyright and the information contained
* herein is confidential. The software may not be copied and the information
* contained herein may not be used or disclosed except with the written
* permission of MediaTek Inc. (C) 2011
*
* BY OPENING THIS FILE, BUYER HEREBY UNEQUIVOCALLY ACKNOWLEDGES AND AGREES
* THAT THE SOFTWARE/FIRMWARE AND ITS DOCUMENTATIONS ("MEDIATEK SOFTWARE")
* RECEIVED FROM MEDIATEK AND/OR ITS REPRESENTATIVES ARE PROVIDED TO BUYER ON
* AN "AS-IS" BASIS ONLY. MEDIATEK EXPRESSLY DISCLAIMS ANY AND ALL WARRANTIES,
* EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE IMPLIED WARRANTIES OF
* MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE OR NONINFRINGEMENT.
* NEITHER DOES MEDIATEK PROVIDE ANY WARRANTY WHATSOEVER WITH RESPECT TO THE
* SOFTWARE OF ANY THIRD PARTY WHICH MAY BE USED BY, INCORPORATED IN, OR
* SUPPLIED WITH THE MEDIATEK SOFTWARE, AND BUYER AGREES TO LOOK ONLY TO SUCH
* THIRD PARTY FOR ANY WARRANTY CLAIM RELATING THERETO. MEDIATEK SHALL ALSO
* NOT BE RESPONSIBLE FOR ANY MEDIATEK SOFTWARE RELEASES MADE TO BUYER'S
* SPECIFICATION OR TO CONFORM TO A PARTICULAR STANDARD OR OPEN FORUM.
*
* BUYER'S SOLE AND EXCLUSIVE REMEDY AND MEDIATEK'S ENTIRE AND CUMULATIVE
* LIABILITY WITH RESPECT TO THE MEDIATEK SOFTWARE RELEASED HEREUNDER WILL BE,
* AT MEDIATEK'S OPTION, TO REVISE OR REPLACE THE MEDIATEK SOFTWARE AT ISSUE,
* OR REFUND ANY SOFTWARE LICENSE FEES OR SERVICE CHARGE PAID BY BUYER TO
* MEDIATEK FOR SUCH MEDIATEK SOFTWARE AT ISSUE.
*
* THE TRANSACTION CONTEMPLATED HEREUNDER SHALL BE CONSTRUED IN ACCORDANCE
* WITH THE LAWS OF THE STATE OF CALIFORNIA, USA, EXCLUDING ITS CONFLICT OF
* LAWS PRINCIPLES. ANY DISPUTES, CONTROVERSIES OR CLAIMS ARISING THEREOF AND
* RELATED THERETO SHALL BE SETTLED BY ARBITRATION IN SAN FRANCISCO, CA, UNDER
* THE RULES OF THE INTERNATIONAL CHAMBER OF COMMERCE (ICC).
*
*****************************************************************************/
/*****************************************************************************
*
* Filename:
* ---------
* dcl_pmic6339.c
*
* Project:
* --------
* MOLY
*
* Description:
* ------------
* This is pmic6339 driver
*
* Author:
* -------
* -------
*
*============================================================================
****************************************************************************/
#include "reg_base.h"
#include "intrCtrl.h"
#include "dcl.h"
#include "dcl_pmu_sw.h"
#include "kal_public_api.h"
#include "drv_bsi.h"
#include "i2c_pmic.h"
#define PMIC_MAX_REG_NUM PMIC_REG_NUM
#ifdef PMIC_6339_DEBUG
static kal_uint16 pmic6339_reg[PMIC_MAX_REG_NUM];
#endif
static const DCL_UINT32 vio28_vosel[] =
{
PMU_VOLT_01_200000_V, PMU_VOLT_01_300000_V, PMU_VOLT_01_500000_V, PMU_VOLT_01_800000_V,
PMU_VOLT_02_500000_V, PMU_VOLT_02_800000_V, PMU_VOLT_03_000000_V, PMU_VOLT_03_300000_V,
};
static const DCL_UINT32 vcore_vosel[]=
{
PMU_VOLT_00_700000_V, PMU_VOLT_00_725000_V, PMU_VOLT_00_775000_V, PMU_VOLT_00_750000_V,
PMU_VOLT_00_875000_V, PMU_VOLT_00_850000_V, PMU_VOLT_00_800000_V, PMU_VOLT_00_825000_V,
PMU_VOLT_01_075000_V, PMU_VOLT_01_050000_V, PMU_VOLT_01_000000_V, PMU_VOLT_01_025000_V,
PMU_VOLT_00_900000_V, PMU_VOLT_00_925000_V, PMU_VOLT_00_975000_V, PMU_VOLT_00_950000_V,
PMU_VOLT_01_475000_V, PMU_VOLT_01_450000_V, PMU_VOLT_01_400000_V, PMU_VOLT_01_425000_V,
PMU_VOLT_01_300000_V, PMU_VOLT_01_325000_V, PMU_VOLT_01_375000_V, PMU_VOLT_01_350000_V,
PMU_VOLT_01_100000_V, PMU_VOLT_01_125000_V, PMU_VOLT_01_175000_V, PMU_VOLT_01_150000_V,
PMU_VOLT_01_275000_V, PMU_VOLT_01_250000_V, PMU_VOLT_01_200000_V, PMU_VOLT_01_225000_V,
};
static const DCL_UINT32 vsim_vosel[] =
{
PMU_VOLT_01_200000_V, PMU_VOLT_01_300000_V, PMU_VOLT_01_500000_V, PMU_VOLT_01_800000_V,
PMU_VOLT_02_500000_V, PMU_VOLT_02_800000_V, PMU_VOLT_03_000000_V, PMU_VOLT_03_300000_V,
};
static const DCL_UINT32 vmc_io_vosel[] =
{
PMU_VOLT_01_200000_V, PMU_VOLT_01_300000_V, PMU_VOLT_01_500000_V, PMU_VOLT_01_800000_V,
PMU_VOLT_02_000000_V, PMU_VOLT_02_800000_V, PMU_VOLT_03_000000_V, PMU_VOLT_03_300000_V,
};
static const DCL_UINT32 vmch_vosel[] =
{
PMU_VOLT_01_200000_V, PMU_VOLT_01_300000_V, PMU_VOLT_01_500000_V, PMU_VOLT_01_800000_V,
PMU_VOLT_02_500000_V, PMU_VOLT_02_800000_V, PMU_VOLT_03_000000_V, PMU_VOLT_03_300000_V,
};
static const DCL_UINT32 vpa_vosel[] =
{
PMU_VOLT_00_500000_V, PMU_VOLT_INVALID, PMU_VOLT_00_600000_V, PMU_VOLT_INVALID,
PMU_VOLT_00_700000_V, PMU_VOLT_INVALID, PMU_VOLT_00_800000_V, PMU_VOLT_INVALID,
PMU_VOLT_00_900000_V, PMU_VOLT_INVALID, PMU_VOLT_01_000000_V, PMU_VOLT_INVALID,
PMU_VOLT_01_100000_V, PMU_VOLT_INVALID, PMU_VOLT_01_200000_V, PMU_VOLT_INVALID,
PMU_VOLT_01_300000_V, PMU_VOLT_INVALID, PMU_VOLT_01_400000_V, PMU_VOLT_INVALID,
PMU_VOLT_01_500000_V, PMU_VOLT_INVALID, PMU_VOLT_01_600000_V, PMU_VOLT_INVALID,
PMU_VOLT_01_700000_V, PMU_VOLT_INVALID, PMU_VOLT_01_800000_V, PMU_VOLT_INVALID,
PMU_VOLT_01_900000_V, PMU_VOLT_INVALID, PMU_VOLT_02_000000_V, PMU_VOLT_INVALID,
PMU_VOLT_02_100000_V, PMU_VOLT_INVALID, PMU_VOLT_02_200000_V, PMU_VOLT_INVALID,
PMU_VOLT_02_300000_V, PMU_VOLT_INVALID, PMU_VOLT_02_400000_V, PMU_VOLT_INVALID,
PMU_VOLT_02_500000_V, PMU_VOLT_INVALID, PMU_VOLT_02_600000_V, PMU_VOLT_INVALID,
PMU_VOLT_02_700000_V, PMU_VOLT_INVALID, PMU_VOLT_02_800000_V, PMU_VOLT_INVALID,
PMU_VOLT_02_900000_V, PMU_VOLT_INVALID, PMU_VOLT_03_000000_V, PMU_VOLT_INVALID,
PMU_VOLT_03_100000_V, PMU_VOLT_INVALID, PMU_VOLT_03_200000_V, PMU_VOLT_INVALID,
PMU_VOLT_03_300000_V, PMU_VOLT_INVALID, PMU_VOLT_03_400000_V, PMU_VOLT_INVALID,
PMU_VOLT_03_500000_V, PMU_VOLT_INVALID, PMU_VOLT_03_600000_V, PMU_VOLT_INVALID,
};
PMU_PARAMETER_TABLE_ENTRY pmu_parameter_table[]=
{
{ENC(LDO_BUCK_SET_VOLTAGE, VIO28), vio28_vosel, NULL, GETARRNUM(vio28_vosel)},
{ENC(LDO_BUCK_SET_VOLTAGE, VCORE), vcore_vosel, NULL, GETARRNUM(vcore_vosel)},
{ENC(LDO_BUCK_SET_VOLTAGE, VSIM), vsim_vosel, NULL, GETARRNUM(vsim_vosel)},
{ENC(LDO_BUCK_SET_VOLTAGE, VSIM2), vsim_vosel, NULL, GETARRNUM(vsim_vosel)},
{ENC(LDO_BUCK_SET_VOLTAGE, VMC), vmc_io_vosel, NULL, GETARRNUM(vmc_io_vosel) },
{ENC(LDO_BUCK_SET_VOLTAGE, VMCH), vmch_vosel, NULL, GETARRNUM(vmch_vosel) },
{ENC(LDO_BUCK_SET_VOLTAGE, VPA), vpa_vosel, NULL, GETARRNUM(vpa_vosel) },
{ENC(VPA_SET_VOLTAGE_SELECTION_TABLE, VPA), vpa_vosel, NULL, GETARRNUM(vpa_vosel) },
};
DCL_UINT16 pmu_parameter_size=0;
DCL_UINT16 pmic_CID0 = 0xFFFF;
DCL_UINT16 pmic_ECO_VERSION = 0xFFFF;
const PMU_FLAG_TABLE_ENTRY pmic_flags_table[] =
{
{CID0, CID0_ADDR, CID0_MASK, CID0_SHIFT},
{ECO_VERSION, ECO_VERSION_ADDR, ECO_VERSION_MASK, ECO_VERSION_SHIFT},
{RG_VIO28_VOSEL, RG_VIO28_VOSEL_ADDR, RG_VIO28_VOSEL_MASK, RG_VIO28_VOSEL_SHIFT},
{RG_VIO28_EN, RG_VIO28_EN_ADDR, RG_VIO28_EN_MASK, RG_VIO28_EN_SHIFT},
{RG_VUSB11_EN, RG_VUSB11_EN_ADDR, RG_VUSB11_EN_MASK, RG_VUSB11_EN_SHIFT},
{RG_VCORE_VOSEL, RG_VCORE_VOSEL_ADDR, RG_VCORE_VOSEL_MASK, RG_VCORE_VOSEL_SHIFT},
{RG_VRF18_MODESET, RG_VRF18_MODESET_ADDR, RG_VRF18_MODESET_MASK, RG_VRF18_MODESET_SHIFT},
{RG_VRF18_ON_CTRL, RG_VRF18_ON_CTRL_ADDR, RG_VRF18_ON_CTRL_MASK, RG_VRF18_ON_CTRL_SHIFT},
{RG_VRF18_EN, RG_VRF18_EN_ADDR, RG_VRF18_EN_MASK, RG_VRF18_EN_SHIFT},
{VRF18_srclken_sel, VRF18_srclken_sel_ADDR, VRF18_srclken_sel_MASK, VRF18_srclken_sel_SHIFT},
{RG_VRF18_2_MODESET, RG_VRF18_2_MODESET_ADDR, RG_VRF18_2_MODESET_MASK, RG_VRF18_2_MODESET_SHIFT},
{RG_VRF18_2_ON_CTRL, RG_VRF18_2_ON_CTRL_ADDR, RG_VRF18_2_ON_CTRL_MASK, RG_VRF18_2_ON_CTRL_SHIFT},
{RG_VRF18_2_EN, RG_VRF18_2_EN_ADDR, RG_VRF18_2_EN_MASK, RG_VRF18_2_EN_SHIFT},
{VRF18_2_srclken_sel, VRF18_2_srclken_sel_ADDR, VRF18_2_srclken_sel_MASK, VRF18_2_srclken_sel_SHIFT},
{RG_VPA_MODESET, RG_VPA_MODESET_ADDR, RG_VPA_MODESET_MASK, RG_VPA_MODESET_SHIFT},
{VPA_VOSEL_MAP_EN, VPA_VOSEL_MAP_EN_ADDR, VPA_VOSEL_MAP_EN_MASK, VPA_VOSEL_MAP_EN_SHIFT},
{RG_VPA_EN, RG_VPA_EN_ADDR, RG_VPA_EN_MASK, RG_VPA_EN_SHIFT},
{VPA_VOSEL, VPA_VOSEL_ADDR, VPA_VOSEL_MASK, VPA_VOSEL_SHIFT},
{RG_VRF18_BK_LDO, RG_VRF18_BK_LDO_ADDR, RG_VRF18_BK_LDO_MASK, RG_VRF18_BK_LDO_SHIFT},
{RG_VRF18_2_BK_LDO, RG_VRF18_2_BK_LDO_ADDR, RG_VRF18_2_BK_LDO_MASK, RG_VRF18_2_BK_LDO_SHIFT},
{RG_VSIM1_EN, RG_VSIM1_EN_ADDR, RG_VSIM1_EN_MASK, RG_VSIM1_EN_SHIFT},
{RG_VSIM2_EN, RG_VSIM2_EN_ADDR, RG_VSIM2_EN_MASK, RG_VSIM2_EN_SHIFT},
{RG_VSIM1_VOSEL, RG_VSIM1_VOSEL_ADDR, RG_VSIM1_VOSEL_MASK, RG_VSIM1_VOSEL_SHIFT},
{RG_VSIM2_VOSEL, RG_VSIM2_VOSEL_ADDR, RG_VSIM2_VOSEL_MASK, RG_VSIM2_VOSEL_SHIFT},
{RG_VMC_VOSEL, RG_VMC_VOSEL_ADDR, RG_VMC_VOSEL_MASK, RG_VMC_VOSEL_SHIFT},
{RG_VMC_EN, RG_VMC_EN_ADDR, RG_VMC_EN_MASK, RG_VMC_EN_SHIFT},
{RG_VMCH_VOSEL, RG_VMCH_VOSEL_ADDR, RG_VMCH_VOSEL_MASK, RG_VMCH_VOSEL_SHIFT},
{RG_VMCH_EN, RG_VMCH_EN_ADDR, RG_VMCH_EN_MASK, RG_VMCH_EN_SHIFT},
{RG_VMIPI_EN, RG_VMIPI_EN_ADDR, RG_VMIPI_EN_MASK, RG_VMIPI_EN_SHIFT},
{VPA_TABLE0, VPA_TABLE0_ADDR, VPA_TABLE0_MASK, VPA_TABLE0_SHIFT},
{VPA_TABLE1, VPA_TABLE1_ADDR, VPA_TABLE1_MASK, VPA_TABLE1_SHIFT},
{VPA_TABLE2, VPA_TABLE2_ADDR, VPA_TABLE2_MASK, VPA_TABLE2_SHIFT},
{VPA_TABLE3, VPA_TABLE3_ADDR, VPA_TABLE3_MASK, VPA_TABLE3_SHIFT},
{VPA_TABLE4, VPA_TABLE4_ADDR, VPA_TABLE4_MASK, VPA_TABLE4_SHIFT},
{VPA_TABLE5, VPA_TABLE5_ADDR, VPA_TABLE5_MASK, VPA_TABLE5_SHIFT},
{VPA_TABLE6, VPA_TABLE6_ADDR, VPA_TABLE6_MASK, VPA_TABLE6_SHIFT},
{VPA_TABLE7, VPA_TABLE7_ADDR, VPA_TABLE7_MASK, VPA_TABLE7_SHIFT},
{VPA_MAP_SEL, VPA_MAP_SEL_ADDR, VPA_MAP_SEL_MASK, VPA_MAP_SEL_SHIFT},
};
//////////////////////////////////////////////////
// WRITE APIs //
//////////////////////////////////////////////////
// Write Whole Bytes
static void dcl_pmic6339_write_reg(DCL_UINT8 addr, DCL_UINT16 val)
{
drv_bsi_pmic6339_reg_write(addr,val);
#ifdef PMIC_6339_DEBUG
pmic6339_reg[addr]=val;
#endif
}
//////////////////////////////////////////////////
// READ APIs //
//////////////////////////////////////////////////
// Read Whole Bytes
static DCL_UINT16 dcl_pmic6339_read_reg(DCL_UINT8 addr)
{
kal_uint16 val;
val=drv_bsi_pmic6339_reg_read(addr);
#ifdef PMIC_6339_DEBUG
pmic6339_reg[addr]=val;
#endif
return val;
}
// Write register field
static void dcl_pmic6339_field_write(PMU_FLAGS_LIST_ENUM flag, kal_uint16 sel)
{
kal_uint32 i, table_size = 0,mask;
kal_uint16 val;
table_size = GETARRNUM(pmic_flags_table);
for (i = 0; i < table_size; i++)
{
if (flag == pmic_flags_table[i].flagname)
{
break;
}
}
if (i >= table_size){ ASSERT(0); }// Flag Unknown
mask=SaveAndSetIRQMask();
val=dcl_pmic6339_read_reg(pmic_flags_table[i].offset)&(~(pmic_flags_table[i].mask));
val|=(sel<<pmic_flags_table[i].shift)&pmic_flags_table[i].mask;
dcl_pmic6339_write_reg(pmic_flags_table[i].offset,val);
RestoreIRQMask(mask);
return;
}
DCL_STATUS PMIC6339_control_handler(DCL_HANDLE handle,DCL_CTRL_CMD cmd,DCL_CTRL_DATA_T *data)
{
DCL_UINT16 regVal;
DCL_INT32 return_val = STATUS_FAIL;
switch(cmd)
{
case LDO_BUCK_SET_EN:
{
PMU_CTRL_LDO_BUCK_SET_EN *pLdoBuckCtrl=&(data->rPMULdoBuckSetEn);
switch(pLdoBuckCtrl->mod)
{
case VRF18:
{
dcl_pmic6339_field_write(RG_VRF18_EN, pLdoBuckCtrl->enable);
return_val = STATUS_OK;
}
break;
case VRF18_2:
{
dcl_pmic6339_field_write(RG_VRF18_2_EN, pLdoBuckCtrl->enable);
return_val = STATUS_OK;
}
break;
case VSIM:
{
dcl_pmic6339_field_write(RG_VSIM1_EN, pLdoBuckCtrl->enable);
return_val = STATUS_OK;
}
break;
case VSIM2:
{
dcl_pmic6339_field_write(RG_VSIM2_EN, pLdoBuckCtrl->enable);
return_val = STATUS_OK;
}
break;
case VMC:
{
dcl_pmic6339_field_write(RG_VMC_EN, pLdoBuckCtrl->enable);
return_val = STATUS_OK;
}
break;
case VMCH:
{
dcl_pmic6339_field_write(RG_VMCH_EN, pLdoBuckCtrl->enable);
return_val = STATUS_OK;
}
break;
case VMIPI:
{
dcl_pmic6339_field_write(RG_VMIPI_EN, pLdoBuckCtrl->enable);
return_val = STATUS_OK;
}
break;
default:
return_val = STATUS_UNSUPPORTED;
break;
}
}
break;
case LDO_BUCK_SET_VOLTAGE:
{
PMU_CTRL_LDO_BUCK_SET_VOLTAGE *pLdoBuckCtrl = &(data->rPMULdoBuckSetVoltage);
regVal = PMU_Parameter_to_Value(ENC(cmd, pLdoBuckCtrl->mod), pLdoBuckCtrl->voltage);
switch(pLdoBuckCtrl->mod)
{
case VIO28:
{
dcl_pmic6339_field_write(RG_VIO28_VOSEL, regVal);
return_val = STATUS_OK;
}
break;
case VCORE:
{
dcl_pmic6339_field_write(RG_VCORE_VOSEL, regVal);
return_val = STATUS_OK;
}
break;
case VSIM:
{
dcl_pmic6339_field_write(RG_VSIM1_VOSEL, regVal);
return_val = STATUS_OK;
}
break;
case VSIM2:
{
dcl_pmic6339_field_write(RG_VSIM2_VOSEL, regVal);
return_val = STATUS_OK;
}
break;
case VMC:
{
dcl_pmic6339_field_write(RG_VMC_VOSEL, regVal);
return_val = STATUS_OK;
}
break;
case VMCH:
{
dcl_pmic6339_field_write(RG_VMCH_VOSEL, regVal);
return_val = STATUS_OK;
}
break;
case VPA:
{
dcl_pmic6339_field_write(VPA_VOSEL, regVal);
return_val = STATUS_OK;
}
break;
default:
return_val = STATUS_UNSUPPORTED;
break;
}
}
break;
case VRF18_SET_BUCK_LDO_MODE:
{
PMU_CTRL_VRF18_SET_BUCK_LDO_MODE *pVrf18Ctrl = &(data->rPMUVrf18SetBuckLdoMode);
switch(pVrf18Ctrl->vrf18Idx)
{
case PMIC_VRF18_1:
{
dcl_pmic6339_field_write(RG_VRF18_BK_LDO, pVrf18Ctrl->mode);
return_val = STATUS_OK;
}
break;
case PMIC_VRF18_2:
{
dcl_pmic6339_field_write(RG_VRF18_2_BK_LDO, pVrf18Ctrl->mode);
return_val = STATUS_OK;
}
break;
default:
return_val = STATUS_UNSUPPORTED;
break;
}
}
break;
case VRF18_SET_FPWM:
{
PMU_CTRL_VRF18_SET_FPWM *pVrf18SetFpwm = (PMU_CTRL_VRF18_SET_FPWM *)data;
dcl_pmic6339_field_write(RG_VRF18_MODESET, pVrf18SetFpwm->enable);
return_val = STATUS_OK;
}
break;
case VRF18_2_SET_FPWM:
{
PMU_CTRL_VRF18_SET_FPWM *pVrf18SetFpwm = (PMU_CTRL_VRF18_SET_FPWM *)data;
dcl_pmic6339_field_write(RG_VRF18_2_MODESET, pVrf18SetFpwm->enable);
return_val = STATUS_OK;
}
break;
case VPA_SET_FPWM:
{
PMU_CTRL_VPA_SET_FPWM *pVpaSetFpwm = (PMU_CTRL_VPA_SET_FPWM *)data;
dcl_pmic6339_field_write(RG_VPA_MODESET, pVpaSetFpwm->enable);
return_val = STATUS_OK;
}
break;
case LDO_BUCK_SET_ON_SEL:
{
PMU_CTRL_LDO_BUCK_SET_ON_SEL *pLdoBuckCtrl=&(data->rPMULdoBuckSetOnSel);
switch(pLdoBuckCtrl->mod)
{
case VRF18:
{
// ENABLE_WITH_SRCLKEN = 0, but 6329 SRCLKEN = 1, therefore we need NOT pLdoBuckCtrl->onsel
dcl_pmic6339_field_write(RG_VRF18_ON_CTRL, !(pLdoBuckCtrl->onSel));
return_val = STATUS_OK;
}
break;
case VRF18_2:
{
// ENABLE_WITH_SRCLKEN = 0, but 6329 SRCLKEN = 1, therefore we need NOT pLdoBuckCtrl->onsel
dcl_pmic6339_field_write(RG_VRF18_2_ON_CTRL, !(pLdoBuckCtrl->onSel));
return_val = STATUS_OK;
}
break;
default:
return_val = STATUS_UNSUPPORTED;
break;
}
}
break;
case LDO_BUCK_SET_SRCLKEN_SEL:
{
PMU_CTRL_LDO_BUCK_SET_SRCLKEN_SEL *pLdoBuckCtrl=&(data->rPMULdoBuckSetSrclkenSel);
switch(pLdoBuckCtrl->mod)
{
case VRF18:
{
dcl_pmic6339_field_write(VRF18_srclken_sel, pLdoBuckCtrl->SrclkenSel);
return_val = STATUS_OK;
}
break;
case VRF18_2:
{
dcl_pmic6339_field_write(VRF18_2_srclken_sel, pLdoBuckCtrl->SrclkenSel);
return_val = STATUS_OK;
}
break;
default:
return_val = STATUS_UNSUPPORTED;
break;
}
}
break;
case VPA_SET_EN:
{
PMU_CTRL_VPA_SET_EN *pVpaCtrl = &(data->rPMUVpaSetEn);
dcl_pmic6339_field_write(RG_VPA_EN, pVpaCtrl->enable);
return_val = STATUS_OK;
}
break;
case VPA_SET_VOSEL_MAP_EN:
{
PMU_CTRL_VPA_SET_VOSEL_MAP_EN *pVpaCtrl = &(data->rPMUVpaSetVoselMapEn);
dcl_pmic6339_field_write(VPA_VOSEL_MAP_EN, pVpaCtrl->enable);
return_val = STATUS_OK;
}
break;
case VPA_GET_VOLTAGE_LIST:
{
PMU_CTRL_VPA_GET_VOLTAGE_LIST *pVpaCtrl = &(data->rPMUVpaGetVoltageList);
pVpaCtrl->pVoltageList = vpa_vosel;
pVpaCtrl->number = GETARRNUM(vpa_vosel);
return_val = STATUS_OK;
}
break;
case VPA_SET_VOLTAGE_SELECTION_TABLE:
{
PMU_CTRL_VPA_SET_VOLTAGE_SELECTION_TABLE *pVpaCtrl = &(data->rPMUVpaSetVoltageSelectionTable);
regVal = PMU_Parameter_to_Value(ENC(VPA_SET_VOLTAGE_SELECTION_TABLE, VPA), pVpaCtrl->voltage);
switch(pVpaCtrl->table_entry)
{
case PMU_VPA0:
{
dcl_pmic6339_field_write(VPA_TABLE0, regVal);
return_val = STATUS_OK;
}
break;
case PMU_VPA1:
{
dcl_pmic6339_field_write(VPA_TABLE1, regVal);
return_val = STATUS_OK;
}
break;
case PMU_VPA2:
{
dcl_pmic6339_field_write(VPA_TABLE2, regVal);
return_val = STATUS_OK;
}
break;
case PMU_VPA3:
{
dcl_pmic6339_field_write(VPA_TABLE3, regVal);
return_val = STATUS_OK;
}
break;
case PMU_VPA4:
{
dcl_pmic6339_field_write(VPA_TABLE4, regVal);
return_val = STATUS_OK;
}
break;
case PMU_VPA5:
{
dcl_pmic6339_field_write(VPA_TABLE5, regVal);
return_val = STATUS_OK;
}
break;
case PMU_VPA6:
{
dcl_pmic6339_field_write(VPA_TABLE6, regVal);
return_val = STATUS_OK;
}
break;
case PMU_VPA7:
{
dcl_pmic6339_field_write(VPA_TABLE7, regVal);
return_val = STATUS_OK;
}
break;
default:
return_val = STATUS_UNSUPPORTED;
break;
}
}
break;
case VPA_SET_MAP_SEL:
{
PMU_CTRL_VPA_SET_MAP_SEL *pVpaCtrl = &(data->rPMUVpaSetMapSel);
dcl_pmic6339_field_write(VPA_MAP_SEL, pVpaCtrl->table_entry);
}
break;
/* case VPA_SET_VOLTAGE: // VPA voltage will be auto set by HW, this command is not necessary for HW driver
{
PMU_CTRL_VPA_SET_VOLTAGE *pVpaCtrl = &(data->rPMUVpaSetVoltage);
regVal = PMU_Parameter_to_Value(ENC(cmd,0), pVpaCtrl->voltage);
dcl_pmic6339_field_write(VPA_VOSEL, regVal);
}
break;*/
case MISC_GET_CID:
{
PMU_CTRL_MISC_GET_CID *pMiscCtrl = &(data->rPMUMiscGetCid);
pMiscCtrl->cid_value = pmic_CID0;
return_val = STATUS_OK;
}
break;
case MISC_GET_ECO_VERSION:
{
PMU_CTRL_MISC_GET_ECO_VERSION *pMiscCtrl = &(data->rPMUMiscGetEcoVersion);
pMiscCtrl->eco_version = pmic_ECO_VERSION;
return_val = STATUS_OK;
}
break;
case MISC_SET_REGISTER_VALUE:
{
PMU_CTRL_MISC_SET_REGISTER_VALUE *pChrCtrl = &(data->rPMUMiscSetRegisterValue);
dcl_pmic6339_write_reg(pChrCtrl->offset, pChrCtrl->value);
return_val = STATUS_OK;
}
break;
case MISC_GET_REGISTER_VALUE:
{
PMU_CTRL_MISC_GET_REGISTER_VALUE *pChrCtrl=&(data->rPMUMiscGetRegisterValue);
pChrCtrl->value = dcl_pmic6339_read_reg(pChrCtrl->offset);
return_val = STATUS_OK;
}
break;
default:
return_val = STATUS_UNSUPPORTED;
break;
}
return return_val;
}
// extern void dcl_pmic6339_internal_init(void); // Move to bootloader
extern void pmu_drv_tool_customization_init(void);
extern void PMIC_Read_All(void);
extern void PMIC_VCORE_INIT(kal_uint32 value, kal_uint32 ver);
extern PMU_CONTROL_HANDLER pmu_control_handler;
//DCL_UINT16 pmu_parameter_size=0;
void dcl_pmic6339_init(void){
static kal_uint8 pmic6339_init=0;
if(0==pmic6339_init){
pmu_control_handler = PMIC6339_control_handler;
pmu_parameter_size = GETARRNUM(pmu_parameter_table);
pmic6339_init=1;
drv_bsi_pmic_init();//init BSI
pmic_CID0 = dcl_pmic6339_read_reg(CID0_ADDR);
pmic_ECO_VERSION = dcl_pmic6339_read_reg(ECO_VERSION_ADDR);
if(pmic_ECO_VERSION == 0x01)
{
// Turn on VIO28_EN as long as E1.
dcl_pmic6339_field_write(RG_VIO28_EN, 0x01);
}
#if defined(PMIC_INIT_PHONE)
#if !defined(MT6290M_SP_BB) && !defined(MT6290ME2_SP)
// Turn off VUSB11 for Custom Phone Project
dcl_pmic6339_field_write(RG_VUSB11_EN, 0x00);
#endif
#endif
// dcl_pmic6339_internal_init(); // Move to bootloader
// pmic6339_customization_init();
pmu_drv_tool_customization_init();
#ifdef PMIC_6339_DEBUG
{
kal_uint32 i;
for (i = 0;i < PMIC_MAX_REG_NUM;i++){
pmic6339_reg[i] = dcl_pmic6339_read_reg(i);
}
}
#endif
}
}
void PMIC_Read_All(void)
{
volatile kal_uint32 i;
for (i = 0; i < PMIC_MAX_REG_NUM; i++){
pmic6339_reg[i] = dcl_pmic6339_read_reg(i);
}
}
#if defined(MT6290_DEMO_BB) || defined(MT6290M_DEMO_BB) || defined(MT6290E2_EVB) || defined(MT6290ME2_EVB) // EVB
void PMIC_VCORE_INIT(kal_uint32 value, kal_uint32 ver)
{
value = 0;
ver = 0;
}
#else
extern const char EXTbuck_i2cdev_exist;
void PMIC_VCORE_INIT(kal_uint32 value, kal_uint32 ver)
{
#include "i2c_pmic.h"
#define NCP6335_SLAVE_ADDR 0x1C
kal_uint8 val;
I2C_STATUS sts;
int gpio15;
GPIO_CTRL_READ_T data;
DCL_HANDLE handle = DclGPIO_Open(DCL_GPIO, EXTbuck_i2cdev_exist & (~0x80));
DclGPIO_Control(handle, GPIO_CMD_READ, (DCL_CTRL_DATA_T *)&data);
gpio15 = data.u1IOData;
if(gpio15 == 1)
{
DclGPIO_Control(handle,GPIO_CMD_SET_PULL_HIGH, (DCL_CTRL_DATA_T *)&data);
}
/* read NCP6335 reg 0*/
sts = i2c_pmic_reg_read(NCP6335_SLAVE_ADDR , 0x0 , &val);
if (sts == I2C_ACKERR)
{
/*
* Error Handing.
* ¨Ò¦p ¦pªG¬OACK_ERR , ¥i¥H¦AŪ¤@¦¸double check ¤@¤U ¡A ¦pªGÁÙ¬OACK_ERR , ¥i»{¬° slave ¤£¦s¦b
*/
sts = i2c_pmic_reg_read(NCP6335_SLAVE_ADDR , 0x0 , &val);
if(sts == I2C_ACKERR)
{
if(ver == 1 && gpio15 == 1)
{
ASSERT(0);
}
else
{
// NCP6335 Not Exist
switch(value)
{
case 0:
case 1:
dcl_pmic6339_write_reg(0x65, 0x09); // 1.05V
break;
case 2:
case 3:
dcl_pmic6339_write_reg(0x65, 0x0A); // 1.0V
break;
default:
break;
}
}
}
else
{
ASSERT(0);
}
}
else if(sts == I2C_PASS)
{
// NCP6335 Exist
// 1.05V, Depend on binning IC E-fuse
i2c_pmic_reg_write(NCP6335_SLAVE_ADDR, 0x10, 0xC8);
// 0.85V, initial setting
i2c_pmic_reg_write(NCP6335_SLAVE_ADDR, 0x11, 0xA8);
// Common register initial
i2c_pmic_reg_write(NCP6335_SLAVE_ADDR, 0x14, 0x01);
switch(value)
{
case 0:
case 1:
i2c_pmic_reg_write(NCP6335_SLAVE_ADDR, 0x10, 0xC8); // 1.05V
dcl_pmic6339_write_reg(0x65, 0x09); // 1.05V
//dcl_pmic6339_write_reg(0x63, 0x00); // Shutdown VCORE
break;
case 2:
case 3:
i2c_pmic_reg_write(NCP6335_SLAVE_ADDR, 0x10, 0xC0); // 1.00V
dcl_pmic6339_write_reg(0x65, 0x0A); // 1.0V
//dcl_pmic6339_write_reg(0x63, 0x00); // Shutdown VCORE
break;
default:
break;
}
}
else if(sts == I2C_FAIL)
{
ASSERT(0);
}
}
#endif // End of #if defined(MT6290_DEMO_BB) || defined(MT6290M_DEMO_BB) || defined(MT6290E2_EVB) || defined(MT6290ME2_EVB) // EVB