/*
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* IspParamsSplitter.h - Split ISP params to Left/Right ISP params
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*
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* Copyright (c) 2021 Rockchip Electronics Co., Ltd
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*
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* Licensed under the Apache License, Version 2.0 (the "License");
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* you may not use this file except in compliance with the License.
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* You may obtain a copy of the License at
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*
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* http://www.apache.org/licenses/LICENSE-2.0
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*
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* Unless required by applicable law or agreed to in writing, software
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* distributed under the License is distributed on an "AS IS" BASIS,
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* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
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* See the License for the specific language governing permissions and
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* limitations under the License.
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*
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* Author: Cody Xie <cody.xie@rock-chips.com>
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*/
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#include "IspParamsSplitter.h"
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#include <utility>
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#include "common/rk_isp20_hw.h"
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#include "common/rkisp2-config.h"
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#include "common/rkisp3-config.h"
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#include "algos/ae/rk_aiq_types_ae_hw.h"
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using namespace RkCam;
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//#define DEBUG
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#define MAX(a,b) (((a)>(b))?(a):(b))
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namespace {
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// Internal implementation to split submodule configs eg:
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// * SplitIsp2xAeLittle
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// * SplitIsp2xAeBig0
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// * SplitIsp3xAeBig0
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// Then a module can be an aggregation of submodules
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// for example:
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// SplitAecParams
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// -> SplitIsp2xAeLittle
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// -> SplitIsp3xAeBig0
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/*********************************************/
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/* Aec hwi splitter */
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/*********************************************/
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void SplitAecWeight(
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u8* ori_weight,
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u8* left_weight,
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u8* right_weight,
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WinSplitMode mode,
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u8 wnd_num
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) {
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switch (mode) {
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case LEFT_AND_RIGHT_MODE:
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for (int i = 0; i < wnd_num; i++) {
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for (int j = 0; j < wnd_num; j++) {
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left_weight[i * wnd_num + j] = ori_weight[i * wnd_num + j / 2];
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right_weight[i * wnd_num + j] = ori_weight[i * wnd_num + j / 2 + j % 2 + wnd_num / 2];
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}
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}
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break;
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case LEFT_MODE:
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case RIGHT_MODE:
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memcpy(left_weight, ori_weight, wnd_num * wnd_num * sizeof(u8));
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memcpy(right_weight, ori_weight, wnd_num * wnd_num * sizeof(u8));
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default:
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break;
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}
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}
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void SplitAecSubWin(
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u8* subwin_en,
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struct isp2x_window* ori_win,
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struct isp2x_window* left_win,
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struct isp2x_window* right_win,
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IspParamsSplitter::Rectangle left_isp_rect_,
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IspParamsSplitter::Rectangle right_isp_rect_,
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WinSplitMode* mode
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) {
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for (int i = 0; i < ISP2X_RAWAEBIG_SUBWIN_NUM; i++) {
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if (subwin_en[i] == 1) { //only when subwin is enabled, should split hwi params
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if (ori_win[i].h_offs + ori_win[i].h_size <= left_isp_rect_.w) {
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#ifdef DEBUG
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printf("win locate in left isp\n");
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#endif
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mode[i] = LEFT_MODE;
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left_win[i].h_offs = ori_win[i].h_offs;
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left_win[i].h_size = ori_win[i].h_size;
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left_win[i].v_offs = ori_win[i].v_offs;
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left_win[i].v_size = ori_win[i].v_size;
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right_win[i].h_offs = 0;
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right_win[i].h_size = ori_win[i].h_size;
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right_win[i].v_offs = ori_win[i].v_offs;
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right_win[i].v_size = ori_win[i].v_size;
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}
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else if (ori_win[i].h_offs >= right_isp_rect_.x) {
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#ifdef DEBUG
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printf("win locate in right isp\n");
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#endif
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mode[i] = RIGHT_MODE;
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//win only locate in right isp, actually stats of left isp would not be used
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left_win[i].h_offs = 0;
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left_win[i].h_size = ori_win[i].h_size;
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left_win[i].v_offs = ori_win[i].v_offs;
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left_win[i].v_size = ori_win[i].v_size;
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right_win[i].h_offs = ori_win[i].h_offs - right_isp_rect_.x;
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right_win[i].h_size = ori_win[i].h_size;
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right_win[i].v_offs = ori_win[i].v_offs;
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right_win[i].v_size = ori_win[i].v_size;
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}
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else {
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#ifdef DEBUG
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printf(" win locate at left&right isp\n");
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#endif
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mode[i] = LEFT_AND_RIGHT_MODE;
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left_win[i].h_offs = ori_win[i].h_offs;
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left_win[i].h_size = MAX(0, left_isp_rect_.w - left_win[i].h_offs);
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left_win[i].v_offs = ori_win[i].v_offs;
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left_win[i].v_size = ori_win[i].v_size;
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right_win[i].h_offs = left_win[i].h_offs + left_win[i].h_size - right_isp_rect_.x;
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right_win[i].h_size = MAX(0, ori_win[i].h_size - left_win[i].h_size);
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right_win[i].v_offs = ori_win[i].v_offs;
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right_win[i].v_size = ori_win[i].v_size;
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}
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}
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}
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};
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void SplitAecCalcBlockSize(
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struct isp2x_window* left_win,
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struct isp2x_window* right_win,
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u8 wnd_num,
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IspParamsSplitter::Rectangle right_isp_rect_,
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u16* block_h
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) {
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bool loop_en = true;
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while (loop_en && *block_h > 0) {
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left_win->h_size = *block_h * wnd_num;
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right_win->h_offs = (left_win->h_size + left_win->h_offs > right_isp_rect_.x) ?
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left_win->h_size + left_win->h_offs - right_isp_rect_.x : 0;
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if (u32(right_win->h_offs + *block_h * wnd_num) > right_isp_rect_.w - 1) {
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(*block_h)--;
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}
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else {
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loop_en = false;
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//if (*block_h % 2)
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//(*block_h)--;
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left_win->h_size = *block_h * wnd_num;
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right_win->h_offs = (left_win->h_size + left_win->h_offs > right_isp_rect_.x) ?
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left_win->h_size + left_win->h_offs - right_isp_rect_.x : 0;
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right_win->h_offs = right_win->h_offs & 0xfffe;
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right_win->h_size = *block_h * wnd_num;
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}
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}
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}
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void SplitAecWin(
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isp2x_window* ori_win,
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isp2x_window* left_win,
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isp2x_window* right_win,
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u8 wnd_num,
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IspParamsSplitter::Rectangle left_isp_rect_,
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IspParamsSplitter::Rectangle right_isp_rect_,
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WinSplitMode* mode
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) {
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//win only locate in left isp, actually stats of right isp would not be used
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if (ori_win->h_offs + ori_win->h_size <= left_isp_rect_.w) {
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#ifdef DEBUG
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printf("win locate in left isp\n");
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#endif
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*mode = LEFT_MODE;
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left_win->h_offs = ori_win->h_offs;
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left_win->h_size = ori_win->h_size;
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->h_offs = 0;
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right_win->h_size = ori_win->h_size;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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}
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else if (ori_win->h_offs >= right_isp_rect_.x) {
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#ifdef DEBUG
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printf("win locate in right isp\n");
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#endif
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*mode = RIGHT_MODE;
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//win only locate in right isp, actually stats of left isp would not be used
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left_win->h_offs = 0;
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left_win->h_size = ori_win->h_size;
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->h_offs = ori_win->h_offs - right_isp_rect_.x;
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right_win->h_size = ori_win->h_size;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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}
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else {
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if ((ori_win->h_offs + ori_win->h_size / 2) <= left_isp_rect_.w
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&& right_isp_rect_.x <= (ori_win->h_offs + ori_win->h_size / 2)) {
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#ifdef DEBUG
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printf(" win locate at left&right isp,and center line locate in overlapping zone!\n");
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#endif
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*mode = LEFT_AND_RIGHT_MODE;
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//win center locate at overlap zone
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left_win->h_offs = ori_win->h_offs;
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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u16 block_h = ori_win->h_size / (2 * wnd_num);
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SplitAecCalcBlockSize(left_win, right_win, wnd_num, right_isp_rect_, &block_h);
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}
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else {
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#ifdef DEBUG
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printf(" win locate at left&right isp,but center line not locate in overlapping zone!\n");
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#endif
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if ((ori_win->h_offs + ori_win->h_size / 2) < right_isp_rect_.x) {
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left_win->h_offs = ori_win->h_offs;
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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u16 h_size_tmp1 = left_isp_rect_.w - ori_win->h_offs;
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u16 h_size_tmp2 = (right_isp_rect_.x - ori_win->h_offs) * 2;
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if (abs(ori_win->h_size - h_size_tmp1) < abs(ori_win->h_size - h_size_tmp2)) {
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#ifdef DEBUG
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printf("correct glb.h_size %d to %d\n", ori_win->h_size, h_size_tmp1);
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#endif
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*mode = LEFT_MODE;
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ori_win->h_size = h_size_tmp1;
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left_win->h_size = ori_win->h_size;
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//actually stats of right isp would not be used
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right_win->h_offs = 0;
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right_win->h_size = ori_win->h_size;
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}
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else {
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#ifdef DEBUG
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printf("correct glb.h_size %d to %d\n", ori_win->h_size, h_size_tmp2);
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#endif
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*mode = LEFT_AND_RIGHT_MODE;
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ori_win->h_size = h_size_tmp2;
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u16 block_h = ori_win->h_size / (2 * wnd_num);
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SplitAecCalcBlockSize(left_win, right_win, wnd_num, right_isp_rect_, &block_h);
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}
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}
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else {
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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u16 h_size_tmp1 = ori_win->h_offs + ori_win->h_size - right_isp_rect_.x;
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u16 h_size_tmp2 = (ori_win->h_offs + ori_win->h_size - left_isp_rect_.w) * 2;
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if (abs(ori_win->h_size - h_size_tmp1) < abs(ori_win->h_size - h_size_tmp2)) {
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#ifdef DEBUG
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printf("correct glb.h_off %d to %d\n", ori_win->h_offs, right_isp_rect_.x);
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printf("correct glb.h_size %d to %d\n", ori_win->h_size, h_size_tmp1);
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#endif
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*mode = RIGHT_MODE;
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ori_win->h_size = h_size_tmp1;
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ori_win->h_offs = right_isp_rect_.x;
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right_win->h_offs = 0;
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right_win->h_size = ori_win->h_size;
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//actually stats of left isp would not be used
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left_win->h_offs = 0;
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left_win->h_size = ori_win->h_size;
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}
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else {
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#ifdef DEBUG
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printf("correct glb.h_off %d to %d\n", ori_win->h_offs,
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ori_win->h_offs + ori_win->h_size - (ori_win->h_offs + ori_win->h_size - left_isp_rect_.w) * 2);
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printf("correct glb.h_size %d to %d\n", ori_win->h_size, h_size_tmp2);
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#endif
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*mode = LEFT_AND_RIGHT_MODE;
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ori_win->h_offs = ori_win->h_offs + ori_win->h_size - (ori_win->h_offs + ori_win->h_size - left_isp_rect_.w) * 2;
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ori_win->h_size = h_size_tmp2;
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left_win->h_offs = ori_win->h_offs;
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u16 block_h = ori_win->h_size / (2 * wnd_num);
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SplitAecCalcBlockSize(left_win, right_win, wnd_num, right_isp_rect_, &block_h);
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}
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}
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}
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}
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}
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/*********************************************/
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/* other module hwi splitter */
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/*********************************************/
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void SplitAwbCalcBlockSize(
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struct isp2x_window* left_win,
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struct isp2x_window* right_win,
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u8 ds_awb,
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u8 wnd_num,
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IspParamsSplitter::Rectangle right_isp_rect_,
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u16* block_h
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) {
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bool loop_en = true;
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int i = 0;
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while (loop_en && *block_h > 0) {
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left_win->h_size = (*block_h * wnd_num) << ds_awb;
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right_win->h_offs = (left_win->h_size + left_win->h_offs > right_isp_rect_.x) ?
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left_win->h_size + left_win->h_offs - right_isp_rect_.x : 0;
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if (u32(right_win->h_offs + left_win->h_size) > right_isp_rect_.w ) {
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(*block_h)--;
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}
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else {
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loop_en = false;
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//if (*block_h % 2)
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// (*block_h)--;
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left_win->h_size = (*block_h * wnd_num) << ds_awb;
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right_win->h_offs = (left_win->h_size + left_win->h_offs > right_isp_rect_.x) ?
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left_win->h_size + left_win->h_offs - right_isp_rect_.x : 0;
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right_win->h_offs = right_win->h_offs & 0xfffe;
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right_win->h_size = (*block_h * wnd_num) << ds_awb;
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}
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}
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}
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void SplitAwbWin(
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isp2x_window* ori_win,
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isp2x_window* left_win,
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isp2x_window* right_win,
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u8 ds_awb,
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u8 wnd_num,
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IspParamsSplitter::Rectangle left_isp_rect_,
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IspParamsSplitter::Rectangle right_isp_rect_,
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WinSplitMode* mode
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) {
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u16 win_ds_hsize = ori_win->h_size >> ds_awb;
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u16 ori_win_hsize_clip = win_ds_hsize << ds_awb;
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//win only locate in left isp, actually stats of right isp would not be used
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if (ori_win->h_offs + ori_win_hsize_clip <= left_isp_rect_.w) {
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LOG1_AWB("win locate in left isp\n");
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*mode = LEFT_MODE;
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left_win->h_offs = ori_win->h_offs;
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left_win->h_size = ori_win_hsize_clip;
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->h_offs = 0;
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right_win->h_size = ori_win_hsize_clip;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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}
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else if (ori_win->h_offs >= right_isp_rect_.x) {
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LOG1_AWB("win locate in right isp\n");
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*mode = RIGHT_MODE;
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//win only locate in right isp, actually stats of left isp would not be used
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left_win->h_offs = 0;
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left_win->h_size = ori_win->h_size;
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->h_offs = ori_win->h_offs - right_isp_rect_.x;
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right_win->h_size = ori_win->h_size;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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}
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else {
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if ((ori_win->h_offs + ori_win->h_size / 2) <= left_isp_rect_.w
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&& right_isp_rect_.x <= (ori_win->h_offs + ori_win->h_size / 2)) {
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LOG1_AWB(" win locate at left&right isp,and center line locate in overlapping zone!\n");
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*mode = LEFT_AND_RIGHT_MODE;
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//win center locate at overlap zone
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left_win->h_offs = ori_win->h_offs;
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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// u16 block_h = ori_win->h_size / (2 * wnd_num);
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u16 block_h = win_ds_hsize / (2 * wnd_num);
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left_win->h_size = (block_h * wnd_num) << ds_awb;
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right_win->h_offs = (left_win->h_size + left_win->h_offs > right_isp_rect_.x) ?
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left_win->h_size + left_win->h_offs - right_isp_rect_.x : 0;
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right_win->h_offs = right_win->h_offs & 0xfffe;
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right_win->h_size = (win_ds_hsize - block_h * wnd_num) << ds_awb;
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right_win->h_size = right_win->h_offs + right_win->h_size > right_isp_rect_.w ? (right_isp_rect_.w - right_win->h_offs) : right_win->h_size;
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}
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else {
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LOG1_AWB(" win locate at left&right isp,but center line not locate in overlapping zone!\n");
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if ((ori_win->h_offs + ori_win->h_size / 2) < right_isp_rect_.x) {
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left_win->h_offs = ori_win->h_offs;
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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u16 h_size_tmp1 = left_isp_rect_.w - ori_win->h_offs;
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u16 h_size_tmp2 = (right_isp_rect_.x - ori_win->h_offs) * 2;
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if (abs(ori_win_hsize_clip - h_size_tmp1) < abs(ori_win_hsize_clip - h_size_tmp2)) {
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LOG1_AWB("correct glb.h_size %d to %d\n", ori_win->h_size, h_size_tmp1);
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*mode = LEFT_MODE;
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ori_win->h_size = h_size_tmp1;
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left_win->h_size = ori_win->h_size;
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//actually stats of right isp would not be used
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right_win->h_offs = 0;
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right_win->h_size = ori_win->h_size;
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}
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else {
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LOG1_AWB("correct glb.h_size %d to %d\n", ori_win->h_size, h_size_tmp2);
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*mode = LEFT_AND_RIGHT_MODE;
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ori_win->h_size = h_size_tmp2;
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win_ds_hsize = ori_win->h_size >> ds_awb;
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u16 block_h = win_ds_hsize / (2 * wnd_num);
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SplitAwbCalcBlockSize(left_win, right_win, ds_awb, wnd_num, right_isp_rect_, &block_h);
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}
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}
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else {
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left_win->v_offs = ori_win->v_offs;
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left_win->v_size = ori_win->v_size;
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right_win->v_offs = ori_win->v_offs;
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right_win->v_size = ori_win->v_size;
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u16 h_size_tmp1 = ori_win->h_offs + ori_win->h_size - right_isp_rect_.x;
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u16 h_size_tmp2 = (ori_win->h_offs + ori_win->h_size - left_isp_rect_.w) * 2;
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if (abs(ori_win_hsize_clip - h_size_tmp1) < abs(ori_win_hsize_clip - h_size_tmp2)) {
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LOG1_AWB("correct glb.h_off %d to %d\n", ori_win->h_offs, right_isp_rect_.x);
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LOG1_AWB("correct glb.h_size %d to %d\n", ori_win->h_size, h_size_tmp1);
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*mode = RIGHT_MODE;
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ori_win->h_size = h_size_tmp1;
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ori_win->h_offs = right_isp_rect_.x;
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right_win->h_offs = 0;
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right_win->h_size = ori_win->h_size;
|
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//actually stats of left isp would not be used
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left_win->h_offs = 0;
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left_win->h_size = ori_win->h_size;
|
}
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else {
|
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LOG1_AWB("correct glb.h_off %d to %d\n", ori_win->h_offs,
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ori_win->h_offs + ori_win->h_size - (ori_win->h_offs + ori_win->h_size - left_isp_rect_.w) * 2);
|
LOG1_AWB("correct glb.h_size %d to %d\n", ori_win->h_size, h_size_tmp2);
|
|
*mode = LEFT_AND_RIGHT_MODE;
|
|
ori_win->h_offs = ori_win->h_offs + ori_win->h_size - (ori_win->h_offs + ori_win->h_size - left_isp_rect_.w) * 2;
|
ori_win->h_size = h_size_tmp2;
|
left_win->h_offs = ori_win->h_offs;
|
|
win_ds_hsize = ori_win->h_size >> ds_awb;
|
|
u16 block_h = win_ds_hsize / (2 * wnd_num);
|
|
SplitAwbCalcBlockSize(left_win, right_win, ds_awb, wnd_num, right_isp_rect_, &block_h);
|
}
|
}
|
}
|
}
|
}
|
|
void SplitAwbMultiWin(
|
struct isp2x_window* ori_win,
|
struct isp2x_window* left_win,
|
struct isp2x_window* right_win,
|
struct isp2x_window* main_left_win,
|
struct isp2x_window* main_right_win,
|
IspParamsSplitter::Rectangle left_isp_rect_,
|
IspParamsSplitter::Rectangle right_isp_rect_,
|
WinSplitMode* mode
|
) {
|
if (ori_win->h_offs + ori_win->h_size <= main_left_win->h_offs + main_left_win->h_size) {
|
|
LOG1_AWB("win locate in left isp\n");
|
|
*mode = LEFT_MODE;
|
|
left_win->h_offs = ori_win->h_offs;
|
left_win->h_size = ori_win->h_size;
|
left_win->v_offs = ori_win->v_offs;
|
left_win->v_size = ori_win->v_size;
|
|
right_win->h_offs = 0;
|
right_win->h_size = 0;
|
right_win->v_offs = 0;
|
right_win->v_size = 0;
|
}
|
else if (ori_win->h_offs >= right_isp_rect_.x + main_right_win->h_offs) {
|
|
LOG1_AWB("win locate in right isp\n");
|
|
*mode = RIGHT_MODE;
|
|
//win only locate in right isp, actually stats of left isp would not be used
|
left_win->h_offs = 0;
|
left_win->h_size = 0;
|
left_win->v_offs = 0;
|
left_win->v_size = 0;
|
|
right_win->h_offs = MAX(main_right_win->h_offs, ori_win->h_offs - right_isp_rect_.x);
|
right_win->h_size = ori_win->h_size;
|
right_win->v_offs = ori_win->v_offs;
|
right_win->v_size = ori_win->v_size;
|
|
}
|
else {
|
|
LOG1_AWB(" win locate at left&right isp\n");
|
|
*mode = LEFT_AND_RIGHT_MODE;
|
|
left_win->h_offs = ori_win->h_offs;
|
left_win->h_size = MAX(0, main_left_win->h_offs + main_left_win->h_size - left_win->h_offs);
|
left_win->v_offs = ori_win->v_offs;
|
left_win->v_size = ori_win->v_size;
|
|
|
right_win->h_offs = MAX(main_right_win->h_offs, left_win->h_offs + left_win->h_size - right_isp_rect_.x);
|
right_win->h_size = MAX(0, ori_win->h_size - left_win->h_size);
|
right_win->v_offs = ori_win->v_offs;
|
right_win->v_size = ori_win->v_size;
|
}
|
}
|
|
};
|
|
template <>
|
XCamReturn IspParamsSplitter::SplitRawAeLiteParams<struct isp2x_rawaelite_meas_cfg>(
|
struct isp2x_rawaelite_meas_cfg* ori, struct isp2x_rawaelite_meas_cfg* left,
|
struct isp2x_rawaelite_meas_cfg* right) {
|
|
u8 wnd_num = 0;
|
if (ori->wnd_num == 0)
|
wnd_num = 1;
|
else
|
wnd_num = 5;
|
|
WinSplitMode mode = LEFT_AND_RIGHT_MODE;
|
WinSplitMode sub_mode[4] = {LEFT_AND_RIGHT_MODE};
|
|
SplitAecWin(&ori->win, &left->win, &right->win, wnd_num, left_isp_rect_, right_isp_rect_, &mode);
|
|
#ifdef DEBUG
|
printf("AeLite left=%d-%d-%d-%d, right=%d-%d-%d-%d\n", left->win.h_offs, left->win.v_offs,
|
left->win.h_size, left->win.v_size, right->win.h_offs, right->win.v_offs,
|
right->win.h_size, right->win.v_size);
|
#endif
|
|
return XCAM_RETURN_NO_ERROR;
|
}
|
|
template <>
|
XCamReturn IspParamsSplitter::SplitRawAeBigParams<struct isp2x_rawaebig_meas_cfg>(
|
struct isp2x_rawaebig_meas_cfg* ori, struct isp2x_rawaebig_meas_cfg* left,
|
struct isp2x_rawaebig_meas_cfg* right) {
|
|
u8 wnd_num = 0;
|
|
if (ori->wnd_num == 0)
|
wnd_num = 1;
|
else if (ori->wnd_num == 1)
|
wnd_num = 5;
|
else
|
wnd_num = 15;
|
|
WinSplitMode mode = LEFT_AND_RIGHT_MODE;
|
WinSplitMode sub_mode[4] = {LEFT_AND_RIGHT_MODE};
|
|
SplitAecWin(&ori->win, &left->win, &right->win, wnd_num, left_isp_rect_, right_isp_rect_, &mode);
|
SplitAecSubWin(ori->subwin_en, ori->subwin, left->subwin, right->subwin, left_isp_rect_, right_isp_rect_, sub_mode);
|
|
for (int i = 0; i < ISP2X_RAWAEBIG_SUBWIN_NUM; i++) {
|
if (ori->subwin_en[i]) {
|
switch (sub_mode[i]) {
|
case LEFT_AND_RIGHT_MODE:
|
left->subwin_en[i] = true;
|
right->subwin_en[i] = true;
|
break;
|
case LEFT_MODE:
|
left->subwin_en[i] = true;
|
right->subwin_en[i] = false;
|
break;
|
case RIGHT_MODE:
|
left->subwin_en[i] = false;
|
right->subwin_en[i] = true;
|
break;
|
|
}
|
}
|
}
|
|
#ifdef DEBUG
|
printf("AeBig left=%d-%d-%d-%d, right=%d-%d-%d-%d\n", left->win.h_offs, left->win.v_offs,
|
left->win.h_size, left->win.v_size, right->win.h_offs, right->win.v_offs,
|
right->win.h_size, right->win.v_size);
|
#endif
|
|
return XCAM_RETURN_NO_ERROR;
|
|
}
|
|
|
template <>
|
XCamReturn IspParamsSplitter::SplitRawHistLiteParams<struct isp2x_rawhistlite_cfg>(
|
struct isp2x_rawhistlite_cfg* ori, struct isp2x_rawhistlite_cfg* left,
|
struct isp2x_rawhistlite_cfg* right) {
|
|
u8 wnd_num = 0;
|
wnd_num = 5;
|
|
WinSplitMode mode = LEFT_AND_RIGHT_MODE;
|
|
SplitAecWin(&ori->win, &left->win, &right->win, wnd_num, left_isp_rect_, right_isp_rect_, &mode);
|
SplitAecWeight(ori->weight, left->weight, right->weight, mode, wnd_num);
|
|
#ifdef DEBUG
|
printf("HistLite left=%d-%d-%d-%d, right=%d-%d-%d-%d\n", left->win.h_offs, left->win.v_offs,
|
left->win.h_size, left->win.v_size, right->win.h_offs, right->win.v_offs,
|
right->win.h_size, right->win.v_size);
|
|
for (int i = 0; i < wnd_num; i++) {
|
for (int j = 0; j < wnd_num; j++)
|
printf("%d ", left->weight[i * wnd_num + j]);
|
printf("\n");
|
}
|
for (int i = 0; i < wnd_num; i++) {
|
for (int j = 0; j < wnd_num; j++)
|
printf("%d ", right->weight[i * wnd_num + j]);
|
printf("\n");
|
}
|
#endif
|
|
return XCAM_RETURN_NO_ERROR;
|
|
}
|
|
template <>
|
XCamReturn IspParamsSplitter::SplitRawHistBigParams<struct isp2x_rawhistbig_cfg>(
|
struct isp2x_rawhistbig_cfg* ori, struct isp2x_rawhistbig_cfg* left,
|
struct isp2x_rawhistbig_cfg* right) {
|
|
u8 wnd_num = 0;
|
|
if (ori->wnd_num <= 1)
|
wnd_num = 5;
|
else
|
wnd_num = 15;
|
|
|
WinSplitMode mode = LEFT_AND_RIGHT_MODE;
|
|
SplitAecWin(&ori->win, &left->win, &right->win, wnd_num, left_isp_rect_, right_isp_rect_, &mode);
|
SplitAecWeight(ori->weight, left->weight, right->weight, mode, wnd_num);
|
|
#ifdef DEBUG
|
printf("HistBig left=%d-%d-%d-%d, right=%d-%d-%d-%d\n", left->win.h_offs, left->win.v_offs,
|
left->win.h_size, left->win.v_size, right->win.h_offs, right->win.v_offs,
|
right->win.h_size, right->win.v_size);
|
|
for (int i = 0; i < wnd_num; i++) {
|
for (int j = 0; j < wnd_num; j++)
|
printf("%d ", left->weight[i * wnd_num + j]);
|
printf("\n");
|
}
|
for (int i = 0; i < wnd_num; i++) {
|
for (int j = 0; j < wnd_num; j++)
|
printf("%d ", right->weight[i * wnd_num + j]);
|
printf("\n");
|
}
|
|
#endif
|
|
return XCAM_RETURN_NO_ERROR;
|
|
}
|
|
|
template <>
|
XCamReturn IspParamsSplitter::SplitAecParams<struct isp3x_isp_params_cfg>(
|
struct isp3x_isp_params_cfg* ori,
|
struct isp3x_isp_params_cfg* left,
|
struct isp3x_isp_params_cfg* right) {
|
|
XCamReturn ret = XCAM_RETURN_NO_ERROR;
|
|
//RAWAE
|
|
ret = SplitRawAeLiteParams(&ori->meas.rawae0, &left->meas.rawae0, &right->meas.rawae0);
|
ret = SplitRawAeBigParams(&ori->meas.rawae1, &left->meas.rawae1, &right->meas.rawae1);
|
ret = SplitRawAeBigParams(&ori->meas.rawae2, &left->meas.rawae2, &right->meas.rawae2);
|
ret = SplitRawAeBigParams(&ori->meas.rawae3, &left->meas.rawae3, &right->meas.rawae3);
|
|
//RAWHIST
|
|
ret = SplitRawHistLiteParams(&ori->meas.rawhist0, &left->meas.rawhist0, &right->meas.rawhist0);
|
ret = SplitRawHistBigParams(&ori->meas.rawhist1, &left->meas.rawhist1, &right->meas.rawhist1);
|
ret = SplitRawHistBigParams(&ori->meas.rawhist2, &left->meas.rawhist2, &right->meas.rawhist2);
|
ret = SplitRawHistBigParams(&ori->meas.rawhist3, &left->meas.rawhist3, &right->meas.rawhist3);
|
|
|
return XCAM_RETURN_NO_ERROR;
|
}
|
|
// split Awb param
|
|
template <>
|
XCamReturn IspParamsSplitter::SplitAwbParams<struct isp3x_isp_params_cfg>(
|
struct isp3x_isp_params_cfg* ori,
|
struct isp3x_isp_params_cfg* left,
|
struct isp3x_isp_params_cfg* right) {
|
|
XCamReturn ret = XCAM_RETURN_NO_ERROR;
|
|
isp2x_window ori_win;
|
isp2x_window left_win;
|
isp2x_window right_win;
|
WinSplitMode mode = LEFT_AND_RIGHT_MODE;
|
u8 wnd_num = 15;
|
|
ori_win.h_offs = ori->meas.rawawb.sw_rawawb_h_offs;
|
ori_win.h_size = ori->meas.rawawb.sw_rawawb_h_size;
|
ori_win.v_offs = ori->meas.rawawb.sw_rawawb_v_offs;
|
ori_win.v_size = ori->meas.rawawb.sw_rawawb_v_size;
|
|
memcpy(&left_win, &ori_win, sizeof(ori_win));
|
memcpy(&right_win, &ori_win, sizeof(ori_win));
|
|
// Awb measure window
|
u8 awb_ds;
|
if (ori->meas.rawawb.sw_rawawb_wind_size == 0)
|
awb_ds = 2;
|
else
|
awb_ds = 3;
|
u16 min_hsize = wnd_num << awb_ds;
|
|
SplitAwbWin(&ori_win, &left_win, &right_win, awb_ds, wnd_num, left_isp_rect_, right_isp_rect_, &mode);
|
if (ori_win.h_size < min_hsize) {
|
ori->meas.rawawb.sw_rawawb_blk_measure_enable = 0;
|
left->meas.rawawb.sw_rawawb_blk_measure_enable = 0;
|
right->meas.rawawb.sw_rawawb_blk_measure_enable = 0;
|
}
|
else {
|
if (mode == LEFT_AND_RIGHT_MODE) {
|
if (left_win.h_size < min_hsize)
|
left->meas.rawawb.sw_rawawb_blk_measure_enable = 0;
|
if (right_win.h_size < min_hsize)
|
right->meas.rawawb.sw_rawawb_blk_measure_enable = 0;
|
}
|
}
|
|
// Awb blk_wei_w
|
//SplitAwbWeight(&ori_win, &left_win, &right_win, ori->meas.rawawb.sw_rawawb_wp_blk_wei_w, left->meas.rawawb.sw_rawawb_wp_blk_wei_w, right->meas.rawawb.sw_rawawb_wp_blk_wei_w, mode, wnd_num);
|
SplitAecWeight(ori->meas.rawawb.sw_rawawb_wp_blk_wei_w, left->meas.rawawb.sw_rawawb_wp_blk_wei_w, right->meas.rawawb.sw_rawawb_wp_blk_wei_w, mode, wnd_num);
|
|
left->meas.rawawb.sw_rawawb_h_offs = left_win.h_offs;
|
left->meas.rawawb.sw_rawawb_h_size = left_win.h_size;
|
left->meas.rawawb.sw_rawawb_v_offs = left_win.v_offs;
|
left->meas.rawawb.sw_rawawb_v_size = left_win.v_size;
|
|
right->meas.rawawb.sw_rawawb_h_offs = right_win.h_offs;
|
right->meas.rawawb.sw_rawawb_h_size = right_win.h_size;
|
right->meas.rawawb.sw_rawawb_v_offs = right_win.v_offs;
|
right->meas.rawawb.sw_rawawb_v_size = right_win.v_size;
|
|
LOGD_AWB("Awb measure window left=%d-%d-%d-%d, right=%d-%d-%d-%d\n", left_win.h_offs, left_win.v_offs,
|
left_win.h_size, left_win.v_size, right_win.h_offs, right_win.v_offs,
|
right_win.h_size, right_win.v_size);
|
|
LOGV_AWB("Awb block weight: \n LEFT = { \n");
|
|
for (int i = 0; i < wnd_num; i++) {
|
for (int j = 0; j < wnd_num; j++)
|
LOGV_AWB("%d ", left->meas.rawawb.sw_rawawb_wp_blk_wei_w[i * wnd_num + j]);
|
LOGV_AWB("\n");
|
}
|
LOGV_AWB("} \n RIGHT = { \n");
|
|
for (int i = 0; i < wnd_num; i++) {
|
for (int j = 0; j < wnd_num; j++)
|
LOGV_AWB("%d ", right->meas.rawawb.sw_rawawb_wp_blk_wei_w[i * wnd_num + j]);
|
LOGV_AWB("\n");
|
}
|
LOGV_AWB("} \n");
|
|
// Awb Multi Window
|
isp2x_window sub_ori_win;
|
isp2x_window sub_left_win;
|
isp2x_window sub_right_win;
|
u16 sub_win_st = 0;
|
u16 sub_win_ed = 0;
|
u16 main_win_st = 0;
|
u16 main_win_ed = 0;
|
|
if (ori->meas.rawawb.sw_rawawb_multiwindow_en) {
|
// Awb Multi window 0
|
sub_ori_win.h_offs = ori->meas.rawawb.sw_rawawb_multiwindow0_h_offs;
|
sub_ori_win.h_size = ori->meas.rawawb.sw_rawawb_multiwindow0_h_size-ori->meas.rawawb.sw_rawawb_multiwindow0_h_offs;
|
sub_ori_win.v_offs = ori->meas.rawawb.sw_rawawb_multiwindow0_v_offs;
|
sub_ori_win.v_size = ori->meas.rawawb.sw_rawawb_multiwindow0_v_size-ori->meas.rawawb.sw_rawawb_multiwindow0_v_offs;
|
|
sub_win_st = left_isp_rect_.x + sub_ori_win.h_offs;
|
sub_win_ed = sub_win_st + sub_ori_win.h_size;
|
main_win_st = left_isp_rect_.x + ori_win.h_offs;
|
main_win_ed = main_win_st + ori_win.h_size;
|
|
if ((sub_win_ed <= main_win_st) || (sub_win_st >= main_win_ed)) {
|
LOGW_AWB("multiwindow_0 [hoffs(%d) hsize(%d)] reset to [0 0] \n", sub_ori_win.h_offs, sub_ori_win.h_size);
|
sub_ori_win.h_offs = 0;
|
sub_ori_win.h_size = 0;
|
} else if ((sub_win_st < main_win_st) && (sub_win_ed <= main_win_ed)) {
|
LOGW_AWB("multiwindow_0 hoffs(%d) reset as same as main window offs(%d) \n", sub_ori_win.h_offs, ori_win.h_offs);
|
sub_ori_win.h_offs = left_isp_rect_.x + ori_win.h_offs;
|
} else if ((sub_win_st < main_win_st) && (sub_win_ed > main_win_ed)) {
|
LOGW_AWB("multiwindow_0 [hoffs(%d) hsize(%d)] reset as same as main window [%d %d] \n", sub_ori_win.h_offs, sub_ori_win.h_size, ori_win.h_offs, ori_win.h_size);
|
sub_ori_win.h_offs = ori_win.h_offs;
|
sub_ori_win.h_size = ori_win.h_size;
|
} else if ((sub_win_st >= main_win_st) && (sub_win_ed > main_win_ed)) {
|
LOGW_AWB("multiwindow_0 hsize(%d) reset to %d (main_win_ed %d - sub_win_st %d) \n", sub_ori_win.h_size, main_win_ed-sub_win_st, main_win_ed, sub_win_st);
|
sub_ori_win.h_size = main_win_ed-sub_win_st;
|
}
|
|
memcpy(&sub_left_win, &sub_ori_win, sizeof(sub_ori_win));
|
memcpy(&sub_right_win, &sub_ori_win, sizeof(sub_ori_win));
|
|
SplitAwbMultiWin(&sub_ori_win, &sub_left_win, &sub_right_win, &left_win, &right_win, left_isp_rect_, right_isp_rect_, &mode);
|
left->meas.rawawb.sw_rawawb_multiwindow0_h_offs = sub_left_win.h_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow0_h_size = sub_left_win.h_size + sub_left_win.h_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow0_v_offs = sub_left_win.v_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow0_v_size = sub_left_win.v_size + sub_left_win.v_offs;
|
|
right->meas.rawawb.sw_rawawb_multiwindow0_h_offs = sub_right_win.h_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow0_h_size = sub_right_win.h_size + sub_right_win.h_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow0_v_offs = sub_right_win.v_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow0_v_size = sub_right_win.v_size + sub_right_win.v_offs;
|
|
LOGD_AWB("Awb Multi window 0 left=%d-%d-%d-%d, right=%d-%d-%d-%d\n", sub_left_win.h_offs, sub_left_win.v_offs,
|
sub_left_win.h_size, sub_left_win.v_size, sub_right_win.h_offs, sub_right_win.v_offs,
|
sub_right_win.h_size, sub_right_win.v_size);
|
|
// Awb Multi window 1
|
sub_ori_win.h_offs = ori->meas.rawawb.sw_rawawb_multiwindow1_h_offs;
|
sub_ori_win.h_size = ori->meas.rawawb.sw_rawawb_multiwindow1_h_size - ori->meas.rawawb.sw_rawawb_multiwindow1_h_offs;
|
sub_ori_win.v_offs = ori->meas.rawawb.sw_rawawb_multiwindow1_v_offs;
|
sub_ori_win.v_size = ori->meas.rawawb.sw_rawawb_multiwindow1_v_size - ori->meas.rawawb.sw_rawawb_multiwindow1_v_offs;
|
|
sub_win_st = left_isp_rect_.x + sub_ori_win.h_offs;
|
sub_win_ed = sub_win_st + sub_ori_win.h_size;
|
main_win_st = left_isp_rect_.x + ori_win.h_offs;
|
main_win_ed = main_win_st + ori_win.h_size;
|
|
if ((sub_win_ed <= main_win_st) || (sub_win_st >= main_win_ed)) {
|
LOGW_AWB("multiwindow_1 [hoffs(%d) hsize(%d)] reset to [0 0] \n", sub_ori_win.h_offs, sub_ori_win.h_size);
|
sub_ori_win.h_offs = 0;
|
sub_ori_win.h_size = 0;
|
} else if ((sub_win_st < main_win_st) && (sub_win_ed <= main_win_ed)) {
|
LOGW_AWB("multiwindow_1 hoffs(%d) reset as same as main window offs(%d) \n", sub_ori_win.h_offs, ori_win.h_offs);
|
sub_ori_win.h_offs = left_isp_rect_.x + ori_win.h_offs;
|
} else if ((sub_win_st < main_win_st) && (sub_win_ed > main_win_ed)) {
|
LOGW_AWB("multiwindow_1 [hoffs(%d) hsize(%d)] reset as same as main window [%d %d] \n", sub_ori_win.h_offs, sub_ori_win.h_size, ori_win.h_offs, ori_win.h_size);
|
sub_ori_win.h_offs = ori_win.h_offs;
|
sub_ori_win.h_size = ori_win.h_size;
|
} else if ((sub_win_st >= main_win_st) && (sub_win_ed > main_win_ed)) {
|
LOGW_AWB("multiwindow_1 hsize(%d) reset to %d (main_win_ed %d - sub_win_st %d) \n", sub_ori_win.h_size, main_win_ed-sub_win_st, main_win_ed, sub_win_st);
|
sub_ori_win.h_size = main_win_ed-sub_win_st;
|
}
|
|
|
memcpy(&sub_left_win, &sub_ori_win, sizeof(sub_ori_win));
|
memcpy(&sub_right_win, &sub_ori_win, sizeof(sub_ori_win));
|
|
SplitAwbMultiWin(&sub_ori_win, &sub_left_win, &sub_right_win, &left_win, &right_win, left_isp_rect_, right_isp_rect_, &mode);
|
left->meas.rawawb.sw_rawawb_multiwindow1_h_offs = sub_left_win.h_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow1_h_size = sub_left_win.h_size + sub_left_win.h_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow1_v_offs = sub_left_win.v_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow1_v_size = sub_left_win.v_size + sub_left_win.v_offs;
|
|
right->meas.rawawb.sw_rawawb_multiwindow1_h_offs = sub_right_win.h_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow1_h_size = sub_right_win.h_size + sub_right_win.h_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow1_v_offs = sub_right_win.v_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow1_v_size = sub_right_win.v_size + sub_right_win.v_offs;
|
|
LOGD_AWB("Awb Multi window 1 left=%d-%d-%d-%d, right=%d-%d-%d-%d\n", sub_left_win.h_offs, sub_left_win.v_offs,
|
sub_left_win.h_size, sub_left_win.v_size, sub_right_win.h_offs, sub_right_win.v_offs,
|
sub_right_win.h_size, sub_right_win.v_size);
|
|
// Awb Multi window 2
|
sub_ori_win.h_offs = ori->meas.rawawb.sw_rawawb_multiwindow2_h_offs;
|
sub_ori_win.h_size = ori->meas.rawawb.sw_rawawb_multiwindow2_h_size - ori->meas.rawawb.sw_rawawb_multiwindow2_h_offs;
|
sub_ori_win.v_offs = ori->meas.rawawb.sw_rawawb_multiwindow2_v_offs;
|
sub_ori_win.v_size = ori->meas.rawawb.sw_rawawb_multiwindow2_v_size - ori->meas.rawawb.sw_rawawb_multiwindow2_v_offs;
|
|
sub_win_st = left_isp_rect_.x + sub_ori_win.h_offs;
|
sub_win_ed = sub_win_st + sub_ori_win.h_size;
|
main_win_st = left_isp_rect_.x + ori_win.h_offs;
|
main_win_ed = main_win_st + ori_win.h_size;
|
|
if ((sub_win_ed <= main_win_st) || (sub_win_st >= main_win_ed)) {
|
LOGW_AWB("multiwindow_2 [hoffs(%d) hsize(%d)] reset to [0 0] \n", sub_ori_win.h_offs, sub_ori_win.h_size);
|
sub_ori_win.h_offs = 0;
|
sub_ori_win.h_size = 0;
|
} else if ((sub_win_st < main_win_st) && (sub_win_ed <= main_win_ed)) {
|
LOGW_AWB("multiwindow_2 hoffs(%d) reset as same as main window offs(%d) \n", sub_ori_win.h_offs, ori_win.h_offs);
|
sub_ori_win.h_offs = left_isp_rect_.x + ori_win.h_offs;
|
} else if ((sub_win_st < main_win_st) && (sub_win_ed > main_win_ed)) {
|
LOGW_AWB("multiwindow_2 [hoffs(%d) hsize(%d)] reset as same as main window [%d %d] \n", sub_ori_win.h_offs, sub_ori_win.h_size, ori_win.h_offs, ori_win.h_size);
|
sub_ori_win.h_offs = ori_win.h_offs;
|
sub_ori_win.h_size = ori_win.h_size;
|
} else if ((sub_win_st >= main_win_st) && (sub_win_ed > main_win_ed)) {
|
LOGW_AWB("multiwindow_2 hsize(%d) reset to %d (main_win_ed %d - sub_win_st %d) \n", sub_ori_win.h_size, main_win_ed-sub_win_st, main_win_ed, sub_win_st);
|
sub_ori_win.h_size = main_win_ed-sub_win_st;
|
}
|
|
|
memcpy(&sub_left_win, &sub_ori_win, sizeof(sub_ori_win));
|
memcpy(&sub_right_win, &sub_ori_win, sizeof(sub_ori_win));
|
|
SplitAwbMultiWin(&sub_ori_win, &sub_left_win, &sub_right_win, &left_win, &right_win, left_isp_rect_, right_isp_rect_, &mode);
|
left->meas.rawawb.sw_rawawb_multiwindow2_h_offs = sub_left_win.h_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow2_h_size = sub_left_win.h_size + sub_left_win.h_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow2_v_offs = sub_left_win.v_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow2_v_size = sub_left_win.v_size + sub_left_win.v_offs;
|
|
right->meas.rawawb.sw_rawawb_multiwindow2_h_offs = sub_right_win.h_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow2_h_size = sub_right_win.h_size + sub_right_win.h_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow2_v_offs = sub_right_win.v_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow2_v_size = sub_right_win.v_size + sub_right_win.v_offs;
|
|
LOGD_AWB("Awb Multi window 2 left=%d-%d-%d-%d, right=%d-%d-%d-%d\n", sub_left_win.h_offs, sub_left_win.v_offs,
|
sub_left_win.h_size, sub_left_win.v_size, sub_right_win.h_offs, sub_right_win.v_offs,
|
sub_right_win.h_size, sub_right_win.v_size);
|
|
// Awb Multi window 3
|
sub_ori_win.h_offs = ori->meas.rawawb.sw_rawawb_multiwindow3_h_offs;
|
sub_ori_win.h_size = ori->meas.rawawb.sw_rawawb_multiwindow3_h_size - ori->meas.rawawb.sw_rawawb_multiwindow3_h_offs;
|
sub_ori_win.v_offs = ori->meas.rawawb.sw_rawawb_multiwindow3_v_offs;
|
sub_ori_win.v_size = ori->meas.rawawb.sw_rawawb_multiwindow3_v_size -ori->meas.rawawb.sw_rawawb_multiwindow3_v_offs ;
|
|
sub_win_st = left_isp_rect_.x + sub_ori_win.h_offs;
|
sub_win_ed = sub_win_st + sub_ori_win.h_size;
|
main_win_st = left_isp_rect_.x + ori_win.h_offs;
|
main_win_ed = main_win_st + ori_win.h_size;
|
|
if ((sub_win_ed <= main_win_st) || (sub_win_st >= main_win_ed)) {
|
LOGW_AWB("multiwindow_3 [hoffs(%d) hsize(%d)] reset to [0 0] \n", sub_ori_win.h_offs, sub_ori_win.h_size);
|
sub_ori_win.h_offs = 0;
|
sub_ori_win.h_size = 0;
|
} else if ((sub_win_st < main_win_st) && (sub_win_ed <= main_win_ed)) {
|
LOGW_AWB("multiwindow_3 hoffs(%d) reset as same as main window offs(%d) \n", sub_ori_win.h_offs, ori_win.h_offs);
|
sub_ori_win.h_offs = left_isp_rect_.x + ori_win.h_offs;
|
} else if ((sub_win_st < main_win_st) && (sub_win_ed > main_win_ed)) {
|
LOGW_AWB("multiwindow_3 [hoffs(%d) hsize(%d)] reset as same as main window [%d %d] \n", sub_ori_win.h_offs, sub_ori_win.h_size, ori_win.h_offs, ori_win.h_size);
|
sub_ori_win.h_offs = ori_win.h_offs;
|
sub_ori_win.h_size = ori_win.h_size;
|
} else if ((sub_win_st >= main_win_st) && (sub_win_ed > main_win_ed)) {
|
LOGW_AWB("multiwindow_3 hsize(%d) reset to %d (main_win_ed %d - sub_win_st %d) \n", sub_ori_win.h_size, main_win_ed-sub_win_st, main_win_ed, sub_win_st);
|
sub_ori_win.h_size = main_win_ed-sub_win_st;
|
}
|
|
|
memcpy(&sub_left_win, &sub_ori_win, sizeof(sub_ori_win));
|
memcpy(&sub_right_win, &sub_ori_win, sizeof(sub_ori_win));
|
|
SplitAwbMultiWin(&sub_ori_win, &sub_left_win, &sub_right_win, &left_win, &right_win, left_isp_rect_, right_isp_rect_, &mode);
|
left->meas.rawawb.sw_rawawb_multiwindow3_h_offs = sub_left_win.h_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow3_h_size = sub_left_win.h_size + sub_left_win.h_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow3_v_offs = sub_left_win.v_offs;
|
left->meas.rawawb.sw_rawawb_multiwindow3_v_size = sub_left_win.v_size + sub_left_win.v_offs ;
|
|
right->meas.rawawb.sw_rawawb_multiwindow3_h_offs = sub_right_win.h_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow3_h_size = sub_right_win.h_size + sub_right_win.h_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow3_v_offs = sub_right_win.v_offs;
|
right->meas.rawawb.sw_rawawb_multiwindow3_v_size = sub_right_win.v_size + sub_right_win.v_offs;
|
|
LOGD_AWB("Awb Multi window 3 left=%d-%d-%d-%d, right=%d-%d-%d-%d\n", sub_left_win.h_offs, sub_left_win.v_offs,
|
sub_left_win.h_size, sub_left_win.v_size, sub_right_win.h_offs, sub_right_win.v_offs,
|
sub_right_win.h_size, sub_right_win.v_size);
|
}
|
|
return ret;
|
|
}
|
|
template <>
|
XCamReturn IspParamsSplitter::SplitAfParams<struct isp3x_isp_params_cfg>(
|
struct isp3x_isp_params_cfg* ori,
|
struct isp3x_isp_params_cfg* left,
|
struct isp3x_isp_params_cfg* right) {
|
struct isp3x_rawaf_meas_cfg org_af = left->meas.rawaf;
|
struct isp3x_rawaf_meas_cfg* l_af = &left->meas.rawaf;
|
struct isp3x_rawaf_meas_cfg* r_af = &right->meas.rawaf;
|
struct isp2x_rawaebig_meas_cfg org_ae3 = left->meas.rawae3;
|
struct isp2x_rawaebig_meas_cfg* l_ae3 = &left->meas.rawae3;
|
struct isp2x_rawaebig_meas_cfg* r_ae3 = &right->meas.rawae3;
|
int32_t l_isp_st, l_isp_ed, r_isp_st, r_isp_ed;
|
int32_t l_win_st, l_win_ed, r_win_st, r_win_ed;
|
int32_t x_st, x_ed, l_blknum, r_blknum, ov_w, blk_w, r_skip_blknum;
|
|
ov_w = left_isp_rect_.w + left_isp_rect_.x - right_isp_rect_.x;
|
x_st = org_af.win[0].h_offs;
|
x_ed = x_st + org_af.win[0].h_size;
|
l_isp_st = left_isp_rect_.x;
|
l_isp_ed = left_isp_rect_.x + left_isp_rect_.w;
|
r_isp_st = right_isp_rect_.x;
|
r_isp_ed = right_isp_rect_.x + right_isp_rect_.w;
|
LOGD_AF("wina.x_st %d, wina.x_ed %d, l_isp_st %d, l_isp_ed %d, r_isp_st %d, r_isp_ed %d",
|
x_st, x_ed, l_isp_st, l_isp_ed, r_isp_st, r_isp_ed);
|
|
//// winA ////
|
// af win in both side
|
if ((x_st < r_isp_st) && (x_ed > l_isp_ed)) {
|
// af win < one isp width
|
if (org_af.win[0].h_size < left_isp_rect_.w) {
|
blk_w = org_af.win[0].h_size / ISP2X_RAWAF_SUMDATA_ROW;
|
l_blknum = (l_isp_ed - x_st + blk_w - 1) / blk_w;
|
r_blknum = ISP2X_RAWAF_SUMDATA_ROW - l_blknum;
|
l_win_ed = l_isp_ed - 2;
|
l_win_st = l_win_ed - blk_w * ISP2X_RAWAF_SUMDATA_ROW;
|
if (blk_w < ov_w) {
|
r_skip_blknum = ov_w / blk_w;
|
r_win_st = ov_w - r_skip_blknum * blk_w;
|
r_win_ed = ov_w + (ISP2X_RAWAF_SUMDATA_ROW - r_skip_blknum) * blk_w;
|
}
|
else {
|
r_skip_blknum = 0;
|
r_win_st = 2;
|
r_win_ed = r_win_st + ISP2X_RAWAF_SUMDATA_ROW * blk_w;
|
}
|
}
|
// af win < one isp width * 1.5
|
else if (org_af.win[0].h_size < left_isp_rect_.w * 3/2) {
|
l_win_st = x_st;
|
l_win_ed = l_isp_ed - 2;
|
blk_w = (l_win_ed - l_win_st) / (ISP2X_RAWAF_SUMDATA_ROW + 1);
|
l_win_st = l_win_ed - blk_w * ISP2X_RAWAF_SUMDATA_ROW;
|
l_blknum = ((l_win_ed - l_win_st) * ISP2X_RAWAF_SUMDATA_ROW + org_af.win[0].h_size - 1) / org_af.win[0].h_size;
|
r_blknum = ISP2X_RAWAF_SUMDATA_ROW - l_blknum;
|
if (blk_w < ov_w) {
|
r_skip_blknum = ov_w / blk_w;
|
r_win_st = ov_w - r_skip_blknum * blk_w;
|
r_win_ed = ov_w + (ISP2X_RAWAF_SUMDATA_ROW - r_skip_blknum) * blk_w;
|
}
|
else {
|
r_skip_blknum = 0;
|
r_win_st = 2;
|
r_win_ed = r_win_st + ISP2X_RAWAF_SUMDATA_ROW * blk_w;
|
}
|
} else {
|
l_win_st = x_st;
|
l_win_ed = l_isp_ed - 2;
|
blk_w = (l_win_ed - l_win_st) / ISP2X_RAWAF_SUMDATA_ROW;
|
l_win_st = l_win_ed - blk_w * ISP2X_RAWAF_SUMDATA_ROW;
|
r_win_st = 2;
|
r_win_ed = r_win_st + blk_w * ISP2X_RAWAF_SUMDATA_ROW;
|
l_blknum = ISP2X_RAWAF_SUMDATA_ROW;
|
r_blknum = ISP2X_RAWAF_SUMDATA_ROW;
|
r_skip_blknum = 0;
|
}
|
LOGD_AF("wina: blk_w %d, ov_w %d, l_blknum %d, r_blknum %d, r_skip_blknum %d",
|
blk_w, ov_w, l_blknum, r_blknum, r_skip_blknum);
|
}
|
// af win in right side
|
else if ((x_st >= r_isp_st) && (x_ed > l_isp_ed)) {
|
l_blknum = 0;
|
r_blknum = ISP2X_RAWAF_SUMDATA_ROW;
|
r_win_st = x_st - right_isp_rect_.x;
|
r_win_ed = x_ed - right_isp_rect_.x;
|
l_win_st = r_win_st;
|
l_win_ed = r_win_ed;
|
}
|
// af win in left side
|
else {
|
l_blknum = ISP2X_RAWAF_SUMDATA_ROW;
|
r_blknum = 0;
|
l_win_st = x_st;
|
l_win_ed = x_ed;
|
r_win_st = l_win_st;
|
r_win_ed = l_win_ed;
|
}
|
|
l_af->win[0].h_offs = l_win_st;
|
l_af->win[0].h_size = l_win_ed - l_win_st;
|
r_af->win[0].h_offs = r_win_st;
|
r_af->win[0].h_size = r_win_ed - r_win_st;
|
|
//// winB ////
|
x_st = org_af.win[1].h_offs;
|
x_ed = x_st + org_af.win[1].h_size;
|
LOGD_AF("winb.x_st %d, winb.x_ed %d, l_isp_st %d, l_isp_ed %d, r_isp_st %d, r_isp_ed %d",
|
x_st, x_ed, l_isp_st, l_isp_ed, r_isp_st, r_isp_ed);
|
|
// af win in both side
|
if ((x_st < r_isp_st) && (x_ed > l_isp_ed)) {
|
l_win_st = x_st;
|
l_win_ed = l_isp_ed - 2;
|
r_win_st = ov_w - 2;
|
r_win_ed = x_ed - right_isp_rect_.x;
|
}
|
// af win in right side
|
else if ((x_st >= r_isp_st) && (x_ed > l_isp_ed)) {
|
r_win_st = x_st - right_isp_rect_.x;
|
r_win_ed = x_ed - right_isp_rect_.x;
|
l_win_st = r_win_st;
|
l_win_ed = r_win_ed;
|
}
|
// af win in left side
|
else {
|
l_win_st = x_st;
|
l_win_ed = x_ed;
|
r_win_st = l_win_st;
|
r_win_ed = l_win_ed;
|
}
|
|
l_af->win[1].h_offs = l_win_st;
|
l_af->win[1].h_size = l_win_ed - l_win_st;
|
r_af->win[1].h_offs = r_win_st;
|
r_af->win[1].h_size = r_win_ed - r_win_st;
|
|
// rawae3 is used by af now!!!
|
if (org_af.ae_mode) {
|
l_ae3->win.h_offs = l_af->win[0].h_offs;
|
l_ae3->win.v_offs = l_af->win[0].v_offs;
|
l_ae3->win.h_size = l_af->win[0].h_size;
|
l_ae3->win.v_size = l_af->win[0].v_size;
|
r_ae3->win.h_offs = r_af->win[0].h_offs;
|
r_ae3->win.v_offs = r_af->win[0].v_offs;
|
r_ae3->win.h_size = r_af->win[0].h_size;
|
r_ae3->win.v_size = r_af->win[0].v_size;
|
}
|
|
LOGD_AF("AfWinA left=%d-%d-%d-%d, right=%d-%d-%d-%d",
|
l_af->win[0].h_offs, l_af->win[0].v_offs,
|
l_af->win[0].h_size, l_af->win[0].v_size,
|
r_af->win[0].h_offs, r_af->win[0].v_offs,
|
r_af->win[0].h_size, r_af->win[0].v_size);
|
|
LOGD_AF("AfWinB left=%d-%d-%d-%d, right=%d-%d-%d-%d",
|
l_af->win[1].h_offs, l_af->win[1].v_offs,
|
l_af->win[1].h_size, l_af->win[1].v_size,
|
r_af->win[1].h_offs, r_af->win[1].v_offs,
|
r_af->win[1].h_size, r_af->win[1].v_size);
|
|
return XCAM_RETURN_NO_ERROR;
|
}
|
|
int AlscMatrixScale(unsigned short ori_matrix[], unsigned short left_matrix[],
|
unsigned short right_matrix[], int cols, int rows) {
|
int ori_col_index = 0;
|
int lef_dst_index = 0;
|
int rht_dst_index = 0;
|
int mid_col = cols / 2;
|
int row_index = 0;
|
|
for (row_index = 0; row_index < rows; row_index++) {
|
for (ori_col_index = 0; ori_col_index < cols;ori_col_index++) {
|
if (ori_col_index < mid_col) {
|
left_matrix[lef_dst_index++] =
|
ori_matrix[row_index * cols + ori_col_index];
|
left_matrix[lef_dst_index++] =
|
(ori_matrix[row_index * cols + ori_col_index] +
|
ori_matrix[row_index * cols + ori_col_index + 1]) / 2;
|
} else if (ori_col_index == mid_col) {
|
left_matrix[lef_dst_index++] =
|
ori_matrix[row_index * cols + ori_col_index];
|
right_matrix[rht_dst_index++] =
|
ori_matrix[row_index * cols + ori_col_index];
|
} else {
|
right_matrix[rht_dst_index++] =
|
(ori_matrix[row_index * cols + ori_col_index] +
|
ori_matrix[row_index * cols + ori_col_index - 1]) / 2;
|
right_matrix[rht_dst_index++] =
|
ori_matrix[row_index * cols + ori_col_index];
|
}
|
}
|
}
|
|
return 0;
|
}
|
|
int AlscMatrixSplit(const unsigned short* ori_matrix, int cols, int rows, unsigned short left[],
|
unsigned short right[]) {
|
int out_cols = cols / 2 + cols % 2;
|
int out_rows = rows;
|
int left_start_addr = 0;
|
int right_start_addr = cols - out_cols;
|
unsigned short* left_index = left;
|
unsigned short* right_index = right;
|
|
while (out_rows--) {
|
memcpy(left_index, ori_matrix + left_start_addr, out_cols * sizeof(unsigned short));
|
memcpy(right_index, ori_matrix + right_start_addr, out_cols * sizeof(unsigned short));
|
left_index += out_cols;
|
right_index += out_cols;
|
left_start_addr += cols;
|
right_start_addr += cols;
|
}
|
|
return 0;
|
}
|
|
int SplitAlscXtable(const unsigned short* in_array, int in_size, int ori_imgw,
|
unsigned short* dst_left, unsigned short* dst_right,
|
int left_w, int right_w) {
|
int in_index = 0;
|
int left_index = 0;
|
int right_index = 0;
|
for (in_index = 0; in_index < in_size; in_index++) {
|
if (in_index < (in_size / 2)) {
|
dst_left[left_index++] =
|
ceil(in_array[in_index] * 1.0 / ori_imgw * left_w);
|
dst_left[left_index++] =
|
floor(in_array[in_index] * 1.0 / ori_imgw * left_w);
|
} else {
|
dst_right[right_index++] =
|
ceil(in_array[in_index] * 1.0 / ori_imgw * right_w);
|
dst_right[right_index++] =
|
floor(in_array[in_index] * 1.0 / ori_imgw * right_w);
|
}
|
}
|
|
return 0;
|
}
|
|
int lscGradUpdate(unsigned short xgrad_tbl[],
|
unsigned short ygrad_tbl[],
|
unsigned short x_sect_tbl[],
|
unsigned short y_sect_tbl[],
|
int x_sect_size,
|
int y_sect_size) {
|
uint32_t x_size = x_sect_size;
|
uint32_t y_size = y_sect_size;
|
|
for (uint32_t i = 0; i < x_size; i++) {
|
if (0 < x_sect_tbl[i]) {
|
xgrad_tbl[i] = (uint16_t)((double)(1UL << 15) / x_sect_tbl[i] + 0.5);
|
} else {
|
return XCAM_RETURN_ERROR_PARAM;
|
}
|
}
|
for (uint32_t i = 0; i < y_size; i++) {
|
if (0 < y_sect_tbl[i]) {
|
ygrad_tbl[i] = (uint16_t)((double)(1UL << 15) / y_sect_tbl[i] + 0.5);
|
} else {
|
return XCAM_RETURN_ERROR_PARAM;
|
}
|
}
|
|
return XCAM_RETURN_NO_ERROR;
|
}
|
|
template <>
|
XCamReturn IspParamsSplitter::SplitAlscParams<struct isp3x_isp_params_cfg>(
|
struct isp3x_isp_params_cfg* ori, struct isp3x_isp_params_cfg* left,
|
struct isp3x_isp_params_cfg* right) {
|
struct isp3x_lsc_cfg* lsc_cfg_ori = &ori->others.lsc_cfg;
|
struct isp3x_lsc_cfg* lsc_cfg_lef = &left->others.lsc_cfg;
|
struct isp3x_lsc_cfg* lsc_cfg_rht = &right->others.lsc_cfg;
|
|
memcpy(lsc_cfg_lef->y_size_tbl, lsc_cfg_ori->y_size_tbl,
|
sizeof(lsc_cfg_ori->y_size_tbl));
|
memcpy(lsc_cfg_rht->y_size_tbl, lsc_cfg_ori->y_size_tbl,
|
sizeof(lsc_cfg_ori->y_size_tbl));
|
|
SplitAlscXtable(lsc_cfg_ori->x_size_tbl, ISP3X_LSC_SIZE_TBL_SIZE,
|
pic_rect_.w,
|
lsc_cfg_lef->x_size_tbl,
|
lsc_cfg_rht->x_size_tbl,
|
left_isp_rect_.w,
|
right_isp_rect_.w);
|
|
AlscMatrixScale(lsc_cfg_ori->r_data_tbl,
|
lsc_cfg_lef->r_data_tbl,
|
lsc_cfg_rht->r_data_tbl,
|
ISP3X_LSC_SIZE_TBL_SIZE + 1,
|
ISP3X_LSC_SIZE_TBL_SIZE + 1);
|
AlscMatrixScale(lsc_cfg_ori->gr_data_tbl,
|
lsc_cfg_lef->gr_data_tbl,
|
lsc_cfg_rht->gr_data_tbl,
|
ISP3X_LSC_SIZE_TBL_SIZE + 1,
|
ISP3X_LSC_SIZE_TBL_SIZE + 1);
|
AlscMatrixScale(lsc_cfg_ori->gb_data_tbl,
|
lsc_cfg_lef->gb_data_tbl,
|
lsc_cfg_rht->gb_data_tbl,
|
ISP3X_LSC_SIZE_TBL_SIZE + 1,
|
ISP3X_LSC_SIZE_TBL_SIZE + 1);
|
AlscMatrixScale(lsc_cfg_ori->b_data_tbl,
|
lsc_cfg_lef->b_data_tbl,
|
lsc_cfg_rht->b_data_tbl,
|
ISP3X_LSC_SIZE_TBL_SIZE + 1,
|
ISP3X_LSC_SIZE_TBL_SIZE + 1);
|
|
lscGradUpdate(lsc_cfg_lef->x_grad_tbl, lsc_cfg_lef->y_grad_tbl,
|
lsc_cfg_lef->x_size_tbl, lsc_cfg_lef->y_size_tbl,
|
ISP3X_LSC_GRAD_TBL_SIZE, ISP3X_LSC_GRAD_TBL_SIZE);
|
|
lscGradUpdate(lsc_cfg_rht->x_grad_tbl, lsc_cfg_rht->y_grad_tbl,
|
lsc_cfg_rht->x_size_tbl, lsc_cfg_rht->y_size_tbl,
|
ISP3X_LSC_GRAD_TBL_SIZE, ISP3X_LSC_GRAD_TBL_SIZE);
|
|
return XCAM_RETURN_NO_ERROR;
|
}
|
|
IspParamsSplitter& IspParamsSplitter::SetPicInfo(IspParamsSplitter::Rectangle&& pic_rect) {
|
pic_rect_ = std::move(pic_rect);
|
return *this;
|
}
|
|
IspParamsSplitter& IspParamsSplitter::SetPicInfo(IspParamsSplitter::Rectangle& pic_rect) {
|
pic_rect_ = pic_rect;
|
return *this;
|
}
|
|
IspParamsSplitter& IspParamsSplitter::SetLeftIspRect(IspParamsSplitter::Rectangle&& left_isp_rect) {
|
left_isp_rect_ = std::move(left_isp_rect);
|
return *this;
|
}
|
|
IspParamsSplitter& IspParamsSplitter::SetLeftIspRect(IspParamsSplitter::Rectangle& left_isp_rect) {
|
left_isp_rect_ = left_isp_rect;
|
return *this;
|
}
|
|
IspParamsSplitter& IspParamsSplitter::SetRightIspRect(
|
IspParamsSplitter::Rectangle&& right_isp_rect) {
|
right_isp_rect_ = std::move(right_isp_rect);
|
return *this;
|
}
|
|
IspParamsSplitter& IspParamsSplitter::SetRightIspRect(
|
IspParamsSplitter::Rectangle& right_isp_rect) {
|
right_isp_rect_ = right_isp_rect;
|
return *this;
|
}
|
|
const IspParamsSplitter::Rectangle& IspParamsSplitter::GetPicInfo() const {
|
return pic_rect_;
|
}
|
|
const IspParamsSplitter::Rectangle& IspParamsSplitter::GetLeftIspRect() const {
|
return left_isp_rect_;
|
}
|
|
const IspParamsSplitter::Rectangle& IspParamsSplitter::GetRightIspRect() const {
|
return right_isp_rect_;
|
}
|
|
template <>
|
XCamReturn IspParamsSplitter::SplitIspParams<struct isp3x_isp_params_cfg>(
|
struct isp3x_isp_params_cfg* orig_isp_params,
|
struct isp3x_isp_params_cfg* isp_params) {
|
XCamReturn ret = XCAM_RETURN_NO_ERROR;
|
|
struct isp3x_isp_params_cfg* left_isp_params = isp_params;
|
struct isp3x_isp_params_cfg* right_isp_params = isp_params + 1;
|
|
// Modules that use the same params for both left and right isp
|
// will not need to implent split function
|
memcpy(right_isp_params, left_isp_params, sizeof(struct isp3x_isp_params_cfg));
|
|
ret = SplitAecParams(orig_isp_params, left_isp_params, right_isp_params);
|
// Should return failure ?
|
ret = SplitAwbParams(orig_isp_params, left_isp_params, right_isp_params);
|
ret = SplitAfParams(orig_isp_params, left_isp_params, right_isp_params);
|
ret = SplitAlscParams(orig_isp_params, left_isp_params, right_isp_params);
|
|
LOGD_CAMHW("Split ISP Params: left %p right %p size %d",
|
left_isp_params,
|
right_isp_params,
|
sizeof(*left_isp_params));
|
|
return ret;
|
}
|
