Author | Tokens | Token Proportion | Commits | Commit Proportion |
---|---|---|---|---|
Sandeep Singh | 1098 | 80.62% | 1 | 33.33% |
Basavaraj Natikar | 264 | 19.38% | 2 | 66.67% |
Total | 1362 | 3 |
// SPDX-License-Identifier: GPL-2.0-or-later /* * AMD SFH Report Descriptor generator * Copyright 2020 Advanced Micro Devices, Inc. * Authors: Nehal Bakulchandra Shah <Nehal-Bakulchandra.Shah@amd.com> * Sandeep Singh <sandeep.singh@amd.com> */ #include <linux/kernel.h> #include <linux/string.h> #include <linux/slab.h> #include "amd_sfh_pcie.h" #include "amd_sfh_hid_desc.h" #include "amd_sfh_hid_report_desc.h" #include "amd_sfh_hid.h" #define AMD_SFH_FW_MULTIPLIER (1000) #define HID_USAGE_SENSOR_PROP_REPORTING_STATE_ALL_EVENTS_ENUM 0x41 #define HID_USAGE_SENSOR_PROP_POWER_STATE_D0_FULL_POWER_ENUM 0x51 #define HID_DEFAULT_REPORT_INTERVAL 0x50 #define HID_DEFAULT_MIN_VALUE 0X7F #define HID_DEFAULT_MAX_VALUE 0x80 #define HID_DEFAULT_SENSITIVITY 0x7F #define HID_USAGE_SENSOR_PROPERTY_CONNECTION_TYPE_PC_INTEGRATED_ENUM 0x01 /* state enums */ #define HID_USAGE_SENSOR_STATE_READY_ENUM 0x02 #define HID_USAGE_SENSOR_STATE_INITIALIZING_ENUM 0x05 #define HID_USAGE_SENSOR_EVENT_DATA_UPDATED_ENUM 0x04 int get_report_descriptor(int sensor_idx, u8 *rep_desc) { switch (sensor_idx) { case accel_idx: /* accel */ memset(rep_desc, 0, sizeof(accel3_report_descriptor)); memcpy(rep_desc, accel3_report_descriptor, sizeof(accel3_report_descriptor)); break; case gyro_idx: /* gyro */ memset(rep_desc, 0, sizeof(gyro3_report_descriptor)); memcpy(rep_desc, gyro3_report_descriptor, sizeof(gyro3_report_descriptor)); break; case mag_idx: /* Magnetometer */ memset(rep_desc, 0, sizeof(comp3_report_descriptor)); memcpy(rep_desc, comp3_report_descriptor, sizeof(comp3_report_descriptor)); break; case als_idx: /* ambient light sensor */ memset(rep_desc, 0, sizeof(als_report_descriptor)); memcpy(rep_desc, als_report_descriptor, sizeof(als_report_descriptor)); break; case HPD_IDX: /* HPD sensor */ memset(rep_desc, 0, sizeof(hpd_report_descriptor)); memcpy(rep_desc, hpd_report_descriptor, sizeof(hpd_report_descriptor)); break; default: break; } return 0; } u32 get_descr_sz(int sensor_idx, int descriptor_name) { switch (sensor_idx) { case accel_idx: switch (descriptor_name) { case descr_size: return sizeof(accel3_report_descriptor); case input_size: return sizeof(struct accel3_input_report); case feature_size: return sizeof(struct accel3_feature_report); } break; case gyro_idx: switch (descriptor_name) { case descr_size: return sizeof(gyro3_report_descriptor); case input_size: return sizeof(struct gyro_input_report); case feature_size: return sizeof(struct gyro_feature_report); } break; case mag_idx: switch (descriptor_name) { case descr_size: return sizeof(comp3_report_descriptor); case input_size: return sizeof(struct magno_input_report); case feature_size: return sizeof(struct magno_feature_report); } break; case als_idx: switch (descriptor_name) { case descr_size: return sizeof(als_report_descriptor); case input_size: return sizeof(struct als_input_report); case feature_size: return sizeof(struct als_feature_report); } break; case HPD_IDX: switch (descriptor_name) { case descr_size: return sizeof(hpd_report_descriptor); case input_size: return sizeof(struct hpd_input_report); case feature_size: return sizeof(struct hpd_feature_report); } break; default: break; } return 0; } static void get_common_features(struct common_feature_property *common, int report_id) { common->report_id = report_id; common->connection_type = HID_USAGE_SENSOR_PROPERTY_CONNECTION_TYPE_PC_INTEGRATED_ENUM; common->report_state = HID_USAGE_SENSOR_PROP_REPORTING_STATE_ALL_EVENTS_ENUM; common->power_state = HID_USAGE_SENSOR_PROP_POWER_STATE_D0_FULL_POWER_ENUM; common->sensor_state = HID_USAGE_SENSOR_STATE_INITIALIZING_ENUM; common->report_interval = HID_DEFAULT_REPORT_INTERVAL; } u8 get_feature_report(int sensor_idx, int report_id, u8 *feature_report) { struct accel3_feature_report acc_feature; struct gyro_feature_report gyro_feature; struct magno_feature_report magno_feature; struct hpd_feature_report hpd_feature; struct als_feature_report als_feature; u8 report_size = 0; if (!feature_report) return report_size; switch (sensor_idx) { case accel_idx: /* accel */ get_common_features(&acc_feature.common_property, report_id); acc_feature.accel_change_sesnitivity = HID_DEFAULT_SENSITIVITY; acc_feature.accel_sensitivity_min = HID_DEFAULT_MIN_VALUE; acc_feature.accel_sensitivity_max = HID_DEFAULT_MAX_VALUE; memcpy(feature_report, &acc_feature, sizeof(acc_feature)); report_size = sizeof(acc_feature); break; case gyro_idx: /* gyro */ get_common_features(&gyro_feature.common_property, report_id); gyro_feature.gyro_change_sesnitivity = HID_DEFAULT_SENSITIVITY; gyro_feature.gyro_sensitivity_min = HID_DEFAULT_MIN_VALUE; gyro_feature.gyro_sensitivity_max = HID_DEFAULT_MAX_VALUE; memcpy(feature_report, &gyro_feature, sizeof(gyro_feature)); report_size = sizeof(gyro_feature); break; case mag_idx: /* Magnetometer */ get_common_features(&magno_feature.common_property, report_id); magno_feature.magno_headingchange_sensitivity = HID_DEFAULT_SENSITIVITY; magno_feature.heading_min = HID_DEFAULT_MIN_VALUE; magno_feature.heading_max = HID_DEFAULT_MAX_VALUE; magno_feature.flux_change_sensitivity = HID_DEFAULT_MIN_VALUE; magno_feature.flux_min = HID_DEFAULT_MIN_VALUE; magno_feature.flux_max = HID_DEFAULT_MAX_VALUE; memcpy(feature_report, &magno_feature, sizeof(magno_feature)); report_size = sizeof(magno_feature); break; case als_idx: /* ambient light sensor */ get_common_features(&als_feature.common_property, report_id); als_feature.als_change_sesnitivity = HID_DEFAULT_SENSITIVITY; als_feature.als_sensitivity_min = HID_DEFAULT_MIN_VALUE; als_feature.als_sensitivity_max = HID_DEFAULT_MAX_VALUE; memcpy(feature_report, &als_feature, sizeof(als_feature)); report_size = sizeof(als_feature); break; case HPD_IDX: /* human presence detection sensor */ get_common_features(&hpd_feature.common_property, report_id); memcpy(feature_report, &hpd_feature, sizeof(hpd_feature)); report_size = sizeof(hpd_feature); break; default: break; } return report_size; } static void get_common_inputs(struct common_input_property *common, int report_id) { common->report_id = report_id; common->sensor_state = HID_USAGE_SENSOR_STATE_READY_ENUM; common->event_type = HID_USAGE_SENSOR_EVENT_DATA_UPDATED_ENUM; } u8 get_input_report(u8 current_index, int sensor_idx, int report_id, struct amd_input_data *in_data) { struct amd_mp2_dev *privdata = container_of(in_data, struct amd_mp2_dev, in_data); u32 *sensor_virt_addr = in_data->sensor_virt_addr[current_index]; u8 *input_report = in_data->input_report[current_index]; u8 supported_input = privdata->mp2_acs & GENMASK(3, 0); struct magno_input_report magno_input; struct accel3_input_report acc_input; struct gyro_input_report gyro_input; struct hpd_input_report hpd_input; struct als_input_report als_input; struct hpd_status hpdstatus; u8 report_size = 0; if (!sensor_virt_addr || !input_report) return report_size; switch (sensor_idx) { case accel_idx: /* accel */ get_common_inputs(&acc_input.common_property, report_id); acc_input.in_accel_x_value = (int)sensor_virt_addr[0] / AMD_SFH_FW_MULTIPLIER; acc_input.in_accel_y_value = (int)sensor_virt_addr[1] / AMD_SFH_FW_MULTIPLIER; acc_input.in_accel_z_value = (int)sensor_virt_addr[2] / AMD_SFH_FW_MULTIPLIER; memcpy(input_report, &acc_input, sizeof(acc_input)); report_size = sizeof(acc_input); break; case gyro_idx: /* gyro */ get_common_inputs(&gyro_input.common_property, report_id); gyro_input.in_angel_x_value = (int)sensor_virt_addr[0] / AMD_SFH_FW_MULTIPLIER; gyro_input.in_angel_y_value = (int)sensor_virt_addr[1] / AMD_SFH_FW_MULTIPLIER; gyro_input.in_angel_z_value = (int)sensor_virt_addr[2] / AMD_SFH_FW_MULTIPLIER; memcpy(input_report, &gyro_input, sizeof(gyro_input)); report_size = sizeof(gyro_input); break; case mag_idx: /* Magnetometer */ get_common_inputs(&magno_input.common_property, report_id); magno_input.in_magno_x = (int)sensor_virt_addr[0] / AMD_SFH_FW_MULTIPLIER; magno_input.in_magno_y = (int)sensor_virt_addr[1] / AMD_SFH_FW_MULTIPLIER; magno_input.in_magno_z = (int)sensor_virt_addr[2] / AMD_SFH_FW_MULTIPLIER; magno_input.in_magno_accuracy = (u16)sensor_virt_addr[3] / AMD_SFH_FW_MULTIPLIER; memcpy(input_report, &magno_input, sizeof(magno_input)); report_size = sizeof(magno_input); break; case als_idx: /* Als */ get_common_inputs(&als_input.common_property, report_id); /* For ALS ,V2 Platforms uses C2P_MSG5 register instead of DRAM access method */ if (supported_input == V2_STATUS) als_input.illuminance_value = (int)readl(privdata->mmio + AMD_C2P_MSG(5)); else als_input.illuminance_value = (int)sensor_virt_addr[0] / AMD_SFH_FW_MULTIPLIER; report_size = sizeof(als_input); memcpy(input_report, &als_input, sizeof(als_input)); break; case HPD_IDX: /* hpd */ get_common_inputs(&hpd_input.common_property, report_id); hpdstatus.val = readl(privdata->mmio + AMD_C2P_MSG(4)); hpd_input.human_presence = hpdstatus.shpd.human_presence_actual; report_size = sizeof(hpd_input); memcpy(input_report, &hpd_input, sizeof(hpd_input)); break; default: break; } return report_size; }
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