1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57
58
59
60
61
62
63
64
65
66
67
68
69
70
71
72
73
74
75
76
77
78
79
80
81
82
83
84
|
#pragma once
#include <stdint.h>
#include "l1_if.h"
#include <octphy/octvc1/hw/octvc1_hw_api.h>
static const struct value_string radio_std_vals[] = {
{ cOCTVC1_RADIO_STANDARD_ENUM_GSM, "GSM" },
{ cOCTVC1_RADIO_STANDARD_ENUM_UMTS, "UMTS" },
{ cOCTVC1_RADIO_STANDARD_ENUM_LTE, "LTE" },
{ cOCTVC1_RADIO_STANDARD_ENUM_INVALID, "INVALID" },
{ 0, NULL }
};
static const struct value_string clocksync_state_vals[] = {
{ cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_UNINITIALIZE,
"Uninitialized" },
/* Note: Octasic renamed cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_UNUSED to
* cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_IDLE. The following ifdef
* statement ensures that older headers still work. */
#ifdef cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_UNUSED
{ cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_UNUSED, "Unused" },
#else
{ cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_IDLE, "Idle" },
#endif
{ cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_NO_EXT_CLOCK,
"No External Clock" },
{ cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_LOCKED, "Locked" },
{ cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_UNLOCKED,"Unlocked" },
{ cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_ERROR, "Error" },
{ cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_DISABLE, "Disabled" },
{ cOCTVC1_HW_CLOCK_SYNC_MGR_STATE_ENUM_LOSS_EXT_CLOCK,
"Loss of Ext Clock" },
{ 0, NULL }
};
#if OCTPHY_USE_CLOCK_SYNC_MGR_STATS_DAC_STATE == 1
static const struct value_string clocksync_dac_vals[] = {
{ cOCTVC1_HW_CLOCK_SYNC_MGR_DAC_STATE_ENUM_UNUSED, "Unused" },
{ cOCTVC1_HW_CLOCK_SYNC_MGR_DAC_STATE_ENUM_MASTER, "Master" },
{ cOCTVC1_HW_CLOCK_SYNC_MGR_DAC_STATE_ENUM_SLAVE, "Slave" },
{ cOCTVC1_HW_CLOCK_SYNC_MGR_DAC_STATE_ENUM_FREE_RUNNING, "Free_Run"},
{ 0, NULL }
};
#endif
static const struct value_string usr_process_id[] = {
{ cOCTVC1_USER_ID_PROCESS_ENUM_INVALID, "Invalid" },
{ cOCTVC1_USER_ID_PROCESS_ENUM_MAIN_APP, "MainApp" },
{ cOCTVC1_USER_ID_PROCESS_ENUM_MAIN_ROUTER, "MainRouter" },
{ cOCTVC1_USER_ID_PROCESS_ENUM_GSM_DL_0, "DL"},
{ cOCTVC1_USER_ID_PROCESS_ENUM_GSM_ULIM_0, "ULIM" },
{ cOCTVC1_USER_ID_PROCESS_ENUM_GSM_ULOM_0, "ULOM" },
{ cOCTVC1_USER_ID_PROCESS_ENUM_GSM_SCHED_0, "SCHED" },
#ifdef cOCTVC1_USER_ID_PROCESS_ENUM_GSM_DECOMB
{ cOCTVC1_USER_ID_PROCESS_ENUM_GSM_DECOMB, "DECOMB"},
#endif
#ifdef cOCTVC1_USER_ID_PROCESS_ENUM_GSM_ULEQ
{ cOCTVC1_USER_ID_PROCESS_ENUM_GSM_ULEQ, "ULEQ" },
#endif
#ifdef cOCTVC1_USER_ID_PROCESS_ENUM_GSM_TEST
{ cOCTVC1_USER_ID_PROCESS_ENUM_GSM_TEST, "TEST"},
#endif
{ 0, NULL }
};
typedef void octphy_hw_get_cb(struct msgb *resp, void *data);
struct octphy_hw_get_cb_data {
octphy_hw_get_cb* cb;
void *data;
};
int octphy_hw_get_pcb_info(struct octphy_hdl *fl1h);
int octphy_hw_get_rf_port_info(struct octphy_hdl *fl1h, uint32_t index);
int octphy_hw_get_rf_port_stats(struct octphy_hdl *fl1h, uint32_t index,
struct octphy_hw_get_cb_data *cb_data);
int octphy_hw_get_rf_ant_rx_config(struct octphy_hdl *fl1h, uint32_t port_idx,
uint32_t ant_idx);
int octphy_hw_get_rf_ant_tx_config(struct octphy_hdl *fl1h, uint32_t port_idx,
uint32_t ant_idx);
int octphy_hw_get_clock_sync_info(struct octphy_hdl *fl1h);
int octphy_hw_get_clock_sync_stats(struct octphy_hdl *fl1h,
struct octphy_hw_get_cb_data *cb_data);
|
