Progress towards stitching a map

- Add gridHeight and gridWidth properties
- Fix the ability of overriding keypress delays
- Fixed/edited debug messages
- Still not sure about map size estimation formula
- Added addToCanvas for created a stitched map
- Create the veritcal part of the loop for stitching together maps

.gitignore

@@ -231,3 +231,4 @@ Thumbs.db
 # experiment garbage
 
 *.png
+src/calib_info.json

src/df_tools/dfwindow.py

@@ -1,3 +1,5 @@
+import json
+import math
 import time
 from pathlib import Path
 
@@ -8,6 +10,8 @@ from loguru import logger
 from .waytools import capActiveWindow, focusWindow, moveMouse
 from .waytools import sendKey as _sendKey
 
+# TODO: Consider type hinting images   from cv2.typing import MatLike
+
 
 class DFWINDOW:
     class TOOLS:
@@ -29,24 +33,24 @@ class DFWINDOW:
         ) -> tuple[int, int]:
             # Check the first (num_rows) rows at the top of the image,
             #   ignoring (ignore_cols) number of pixels at each end of teh line.
-            test_mean = np.mean(
+            test_max = np.max(
                 cv2.cvtColor(image_in[0:num_rows, ignore_cols:-ignore_cols], cv2.COLOR_BGR2GRAY),
                 axis=1,  # get the mean along the x-axis
             )
             # TODO: handle when 0 results return
             # Test the mean darkness, get the first row darker than 4
-            content_y = np.where(test_mean < mean_threshold)[0][0]
+            content_y = np.where(test_max < mean_threshold)[0][0]
 
             _ignore_rows = max(ignore_rows, content_y + 1)
-            test_mean = np.mean(
+            test_max = np.max(
                 cv2.cvtColor(image_in[_ignore_rows:-_ignore_rows, 0:num_cols], cv2.COLOR_BGR2GRAY),
                 axis=0,  # get the mean along the y-axis
             )
-            content_x = np.where(test_mean < mean_threshold)[0][0]
+            content_x = np.where(test_max < mean_threshold)[0][0]
 
             logger.debug(f"Content origin ({content_x}, {content_y})")
 
-            return (content_x, content_y)
+            return (int(content_x), int(content_y))
 
         @staticmethod
         def isRightBorder(img, num_columns=20, border_threshold: int = 10) -> bool:
@@ -58,6 +62,20 @@ class DFWINDOW:
             # Are all pixels in the strip "black"
             return not np.any(thresh)
 
+        @staticmethod
+        def getImageDiff(image1, image2, conversion=cv2.COLOR_BGR2GRAY) -> float:
+            # Diff size, very dif img
+            if image1.shape != image2.shape:
+                return float("inf")
+            grey1 = cv2.cvtColor(image1, conversion)
+            grey2 = cv2.cvtColor(image2, conversion)
+
+            # Apparently this is the Mean Squared Error (MES). Thanks Gemini (LLM)
+            err = np.sum((grey1.astype("float") - grey2.astype("float")) ** 2)
+            err /= float(grey1.shape[0] * grey1.shape[0])
+
+            return float(err)
+
         @staticmethod
         def isLeftBorder(img, num_columns=20, border_threshold: int = 10) -> bool:
             # grab a greyscale strip to look at
@@ -89,20 +107,30 @@ class DFWINDOW:
             return not np.any(thresh)
 
         @staticmethod
-        def firstNotBlackX(img):
+        def firstNotBlackX(img) -> int:
-            first_x = np.where(np.mean(cv2.cvtColor(img, cv2.COLOR_BGR2GRAY), axis=0) > 15)[0][0]
+            first_x = np.where(np.mean(cv2.cvtColor(img, cv2.COLOR_BGR2GRAY), axis=0) > 10)[0][0]
-            return first_x
+            return int(first_x)
 
         @staticmethod
-        def firstNotBlackY(img):
+        def lastNotBlackX(img) -> int:
-            first_y = np.where(np.mean(cv2.cvtColor(img, cv2.COLOR_BGR2GRAY), axis=1) > 15)[0][0]
+            first_x = np.where(np.mean(cv2.cvtColor(img, cv2.COLOR_BGR2GRAY), axis=0) > 10)[0][-1]
-            return first_y
+            return int(first_x)
 
-    bottom_to_ignore = 120
+        @staticmethod
-    sleep_after_mouse = 0.2
+        def firstNotBlackY(img) -> int:
-    sleep_after_key = 0.08
+            first_y = np.where(np.mean(cv2.cvtColor(img, cv2.COLOR_BGR2GRAY), axis=1) > 10)[0][0]
-    sleep_after_focus = 0.3
+            return int(first_y)
-    sleep_after_panning = 0.3
+
+        @staticmethod
+        def lastNotBlackY(img) -> int:
+            first_y = np.where(np.mean(cv2.cvtColor(img, cv2.COLOR_BGR2GRAY), axis=1) > 10)[0][-1]
+            return int(first_y)
+
+    bottom_to_ignore = 160
+    sleep_after_mouse = 0.2  # 2
+    sleep_after_key = 0.08  # 08
+    sleep_after_focus = 0.2  # 3
+    sleep_after_panning = 0.2  # 3
     query_for_window = "dwarfort"
 
     def __init__(self) -> None:
@@ -137,6 +165,22 @@ class DFWINDOW:
     def maxGridY(self) -> int:
         return self._gridy_max
     
+    @property
+    def gridHeight(self) -> int:
+        return int(self._gridy_max + 1)
+    
+    @property
+    def gridWidth(self) -> int:
+        return int(self._gridx_max + 1)
+
+    @property
+    def stepSizeX(self) -> int:
+        return int(self._step_size_x)
+
+    @property
+    def stepSizeY(self) -> int:
+        return int(self._step_size_y)
+
     @property
     def contentWidth(self) -> int:
         return int(self._content_right - self._content_left)
@@ -176,16 +220,17 @@ class DFWINDOW:
         thekey: str | int,
         count: int = 1,
         modifier: str | int | list[str | int] | None = None,
-        cycle_delay: float = 0.1,
+        cycle_delay: float = 9999,
         sub_cycle_delay: float = 0.05,
         custom_lookup: dict[str, int] | None = None,
     ):
+        _cycle_delay = cycle_delay if cycle_delay != 9999 else self.sleep_after_key
         self.focusWindow()
         _sendKey(
             thekey=thekey,
             count=count,
             modifier=modifier,
-            cycle_delay=self.sleep_after_key,
+            cycle_delay=_cycle_delay,
             sub_cycle_delay=sub_cycle_delay,
             custom_lookup=custom_lookup,
         )
@@ -220,13 +265,30 @@ class DFWINDOW:
         time.sleep(self.sleep_after_mouse)
         self.focusWindow()
         time.sleep(self.sleep_after_focus)
-        self.sendKeys("w", 30)
+
-        self.sendKeys("a", 30)
+        img = self.capWindow()
+
+        # Improved seeking upper left
+        self.sendKeys("w", 2)
+        self.sendKeys("a", 2)
+
+        old_img = img
+        img = self.capWindow()
+
+        while self.TOOLS.getImageDiff(old_img, img) > 3:
+            self.sendKeys("w", 4)
+            self.sendKeys("a", 4)
+            old_img = img
+            img = self.capWindow()
+        self.sendKeys("w", 4)
+        self.sendKeys("a", 4)
+
         img = self.capWindow()
         self._content_left, self._content_top = self.TOOLS.find_content_origin(img)
-        self._content_right = img.shape[1] - self._content_left
+        self._content_right = int(img.shape[1] - self._content_left)
-        self._content_bottom = img.shape[0] - self.bottom_to_ignore
+        self._content_bottom = int(img.shape[0] - self.bottom_to_ignore)
         img = img[self._content_top : self._content_bottom, self._content_left : self._content_right]  # pyright: ignore[reportOptionalSubscript]
+
         logger.debug(f"Content width {self.contentWidth}. Content height {self.contentHeight}.")
 
         # Try to measure steps
@@ -239,8 +301,8 @@ class DFWINDOW:
         img = self.capContent()
         mx2 = self.TOOLS.firstNotBlackX(img)
         my2 = self.TOOLS.firstNotBlackY(img)
-        self._step_size_x = mx2 - mx1
+        self._step_size_x = mx1 - mx2
-        self._step_size_y = my2 - my1
+        self._step_size_y = my1 - my2
         logger.info(f"Step sizes calculated: x={self._step_size_x} and y={self._step_size_y}")
         self.sendKeys("w")
         self.sendKeys("a")
@@ -272,7 +334,7 @@ class DFWINDOW:
 
         # We now know how many steps the map is vertically
         steps_vertical = steps_down
-        logger.debug(f"Map is about {steps_vertical} steps vertical. Current step is {steps_down}")
+        logger.debug(f"Map is about {steps_vertical+1} steps vertical. Current index is {steps_down}")
 
         # go right until the left map edge disappears
         while self.TOOLS.isLeftBorder(img):
@@ -296,20 +358,13 @@ class DFWINDOW:
         # And those are the horrizontal steps
 
         steps_horrizontal = steps_right
-        logger.debug(f"Map is about {steps_horrizontal} steps horrizontal. Current step is {steps_right}")
+        logger.debug(f"Map is about {steps_horrizontal+1} steps horrizontal. Current index is {steps_right}")
 
         self._gridx_max = steps_horrizontal
         self._gridy_max = steps_vertical
         self._gridx = steps_right
         self._gridy = steps_down
 
-        # TODO: Use seek tests to calculate mapsize in pixels
-        #   at (0,0) save left_edge_offset and top_edge_offset
-        #   at (max,max) save right_edge_offset and bottom_edge_offset
-        #   width = (contentWidth - l_e_o) + (gridyx_max * _step_size_x) - abs(r_e_o)
-        #   | <==|====|====|==>  |
-        #   (max*size) is too far, so we subract the ofset/border from the right map edge
-
         # Test going to 0,0
         self.setGridPos(0, 0)
         time.sleep(self.sleep_after_panning)
@@ -318,6 +373,9 @@ class DFWINDOW:
             logger.debug("Calibration error. Not at requested upper left of map")
             raise Exception("Calibration error. Not at requested upper left of map")
 
+        cal_left_border = self.TOOLS.firstNotBlackX(img)
+        cal_top_border = self.TOOLS.firstNotBlackY(img)
+
         # Test going to (max,max)
         self.setGridPos(self.maxGridX, self.maxGridY)
         time.sleep(self.sleep_after_panning)
@@ -326,31 +384,225 @@ class DFWINDOW:
             logger.debug("Calibration error. Not at requested lower right of map")
             raise Exception("Calibration error. Not at requested lower right of map")
 
-        logger.info(
+        cal_right_border = self.TOOLS.lastNotBlackX(img)
-            f"Grid calibration complete. Grid steps ({self._gridy_max + 1},{self._gridy_max + 1}), step sizes({self._step_size_x},{self._step_size_y})"
+        cal_bottom_border = self.TOOLS.lastNotBlackY(img)
+
+        # TODO: Use seek tests to calculate mapsize in pixels
+        #   at (0,0) save left_edge_offset and top_edge_offset
+        #   at (max,max) save right_edge_offset and bottom_edge_offset
+        #   width = (contentWidth - l_e_o) + (gridyx_max * _step_size_x) - abs(r_e_o)
+        #   | <==|====|====|==>  |
+        #   (max*size) is too far, so we subract the ofset/border from the right map edge
+
+        self._map_width = (
+            (self.contentWidth - cal_left_border)  # Grid x = 0
+            + ((self._gridx_max - 1) * self._step_size_x)  # All the middle
+            + cal_right_border  # grid x = max
         )
+        logger.trace(f"|{self.contentWidth} - {cal_left_border}|({self._gridx_max} - 1) * {self._step_size_x}|{cal_right_border}|")
+        logger.trace(f"{self._map_width} = |{self.contentWidth - cal_left_border}|{(self._gridx_max - 1) * self._step_size_x}|{cal_right_border}|")
+
+        self._map_height = (
+            (img.shape[0] - cal_top_border)  # Grid x = 0
+            + ((self._gridy_max - 1) * self._step_size_y)  # All the middle
+            + cal_bottom_border  # grid x = max
+        )
+
+        self.setGridPos(0, 0)
+
+        logger.debug(f"Map dimensions calculated as {self._map_width} x {self._map_height}")
+
+        logger.debug(
+            f"Grid calibration complete. Grid steps ({self._gridx_max + 1},{self._gridy_max + 1}), step sizes({self._step_size_x},{self._step_size_y})"
+        )
+
+    def test1(self):
+        # rawimg = cv2.imread("./test_img.png")
+        # rawimg = cv2.imread("grid_base_3.png")
+        # img = rawimg[100 : -self.bottom_to_ignore - 70, 65:-65]
+        # tlb = self.TOOLS.firstNotBlackX(img)
+        # ttb = self.TOOLS.firstNotBlackY(img)
+
+        # tt_setup = (
+        #     r"gc.enable() ; import cv2 ; import numpy as np ; timg = cv2.imread('./test_img.png', cv2.IMREAD_UNCHANGED)"
+        # )
+        # tt1 = timeit.Timer(
+        #     "np.where(np.mean(cv2.cvtColor(timg, cv2.COLOR_BGR2GRAY), axis=0) > 15)[0][0]",
+        #     setup=tt_setup,
+        # )
+        # tt2 = timeit.Timer(
+        #     "np.where(np.max(cv2.cvtColor(timg, cv2.COLOR_BGR2GRAY), axis=0) > 25)[0][0]",
+        #     setup=tt_setup,
+        # )
+        # tt3 = timeit.Timer(
+        #     "np.where(np.max(cv2.cvtColor(timg, cv2.COLOR_BGRA2GRAY), axis=0) > 25)[0][0]",
+        #     setup=tt_setup,
+        # )
+
+        # num_tests = 80
+        # r1 = tt1.timeit(number=num_tests)
+        # r2 = tt2.timeit(number=num_tests)
+        # r3 = tt3.timeit(number=num_tests)
+
+        logger.debug("Pause here for testing")
+
+    def test_saveGrids(self):
+        savedir = Path()
+        savefile_base = "cached_grid"
+        savefile_ext = "png"
+        for x in range(0, self._gridx_max + 1):
+            for y in range(0, self._gridy_max):
+                self.setGridPos(x, y)
+                time.sleep(self.sleep_after_panning)
+                img = self.capContent()
+                savefilename = savedir.joinpath(f"{savefile_base}_{x}_{y}.{savefile_ext}")
+                cv2.imwrite(str(savefilename.resolve()), img)
+        calib_info = {
+            "gridx": int(self._gridx),
+            "gridy": int(self._gridy),
+            "gridx_max": int(self._gridx_max),
+            "gridy_max": int(self._gridy_max),
+            "step_size_x": int(self._step_size_x),
+            "step_size_y": int(self._step_size_y),
+            "content_top": int(self._content_top),
+            "content_bottom": int(self._content_bottom),
+            "content_left": int(self._content_left),
+            "content_right": int(self._content_right),
+            "map_height": int(self._map_height),
+            "map_width": int(self._map_width),
+        }
+        with open("./calib_info.json", "w") as fh:
+            json.dump(calib_info, fh)
+
+    def test_loadCalib(self):
+        with open("./calib_info.json") as fh:
+            calib_info = json.load(fh)
+
+        self._gridx = calib_info["gridx"]
+        self._gridy = calib_info["gridy"]
+        self._gridx_max = calib_info["gridx_max"]
+        self._gridy_max = calib_info["gridy_max"]
+        self._step_size_x = calib_info["step_size_x"]
+        self._step_size_y = calib_info["step_size_y"]
+        self._content_top = calib_info["content_top"]
+        self._content_bottom = calib_info["content_bottom"]
+        self._content_left = calib_info["content_left"]
+        self._content_right = calib_info["content_right"]
+        self._map_height = calib_info["map_height"]
+        self._map_width = calib_info["map_width"]
+
+    def addToCanvas(self, tile, x: int, y: int) -> tuple[int, int]:
+        # calculate safe (in bounds) abs pos of far end
+        safe_farx = min(x + tile.shape[1], self.map_canvas.shape[1])
+        safe_fary = min(y + tile.shape[0], self.map_canvas.shape[0])
+
+        safe_width = safe_farx - x
+        safe_height = safe_fary - y
+
+        self.map_canvas[y:safe_fary, x:safe_farx] = tile[: (safe_fary - y), : (safe_farx - x)]
+        logger.trace(f"Added {safe_width}x{safe_height} of tile ({tile.shape[1]}x{tile.shape[0]}) at {x},{y} ")
+
+        return (int(safe_width), int(safe_height))
 
     def getPanoramaMap(self):
         self.calibrateGrid()
 
-        # Test getting pieces and stitching
+        # Create the big_map canvas
-        stitcher = cv2.Stitcher.create(cv2.STITCHER_SCANS)
+        canvas_width = self.contentWidth + (self.stepSizeX * (self.maxGridX + 1 + 1))
-        stitcher.setPanoConfidenceThresh(0.1)  # Dont be confident
+        canvas_height = self.contentHeight + (self.stepSizeY * (self.maxGridY + 1 + 1))
 
-        imgs_in_row = []
+        self.map_canvas = np.zeros((canvas_height, canvas_width, 4), dtype=np.uint8)
 
-        # Get a row
+        # We want to cap from the content area, minus and black borders.
+        # starting at canvas_pos of 0,0 Add cap to the canvas
+        #   Then we pan down almost enough to push everything up off the screen
+        #   Then we cap the new stuff, row starting at max(firstNotBlackY, contentHeight - (amount we paned down))
+        #   at canvas_pos add cap to canvas
+        #   increase canvas_pos.y by that new amount
+        #   if we already have a bottom bar, or we are at last grid, break out, otherwise loop
+
+        if 1 == 1:
+            # The initial setup
+            new_x = self.contentWidth
+            new_y = self.contentHeight
+            canvas_pos = [0, 0]
             self.setGridPos(0, 0)
-        time.sleep(self.sleep_after_panning)
-        for x in range(0, self.maxGridX + 1, 3):
-            self.setGridPos(x, self.curGridY)
-            time.sleep(self.sleep_after_panning)
-            img = self.capContent()
-            if img.shape[2] == 4:
-                img = cv2.cvtColor(img, cv2.COLOR_BGRA2BGR)
-            imgs_in_row.append(img)
 
-        status, strip = stitcher.stitch(imgs_in_row)
+            # Never do more than this many loops
-        logger.debug(f"{len(imgs_in_row)} images. {status=}  {strip=} {status == cv2.Stitcher_OK}")
+            sanity_steps_left = self.maxGridY + 1
+            while sanity_steps_left > 0:
+                # Capture a tile
+                img = self.capContent()
+                cap_start_x = max(self.TOOLS.firstNotBlackX(img), self.contentWidth - new_x)
+                cap_start_y = max(self.TOOLS.firstNotBlackY(img), self.contentHeight - new_y)
+
+                # use min with other restriction if needed in the future min(lastNotBlack,Other_limit)
+                cap_end_x = self.TOOLS.lastNotBlackX(img)
+                cap_end_y = self.TOOLS.lastNotBlackY(img)
+
+                pixels_added = self.addToCanvas(
+                    img[cap_start_y : cap_end_y + 1, cap_start_x : cap_end_x + 1], canvas_pos[0], canvas_pos[1]
+                )
+                canvas_pos[1] += pixels_added[1]
+
+                # Reasons to finish this column:
+                #   - pixels_added[1] < cap_height
+                #   - (with cur logic) cap_height < self.contentHeight
+                #   - self.curGridY >= self.maxGridY
+                logger.trace(f"{cap_start_y=} {cap_end_y=} {self.contentHeight=} {pixels_added=} {canvas_pos=}")
+                logger.trace(f"{self.curGridPos=} {self.map_canvas.shape=}")
+
+                sanity_steps_left -= 1  # Prevent runaway loops
+
+                if not (
+                    (cap_end_y + 1 < self.contentHeight)
+                    or (pixels_added[1] < ((cap_end_y + 1) - cap_start_y))
+                    or (self.curGridY >= self.maxGridY)
+                    or (canvas_pos[1] >= self.map_canvas.shape[0])
+                ):
+                    # pan down for more map, but watch limits
+                    steps_to_pan_down = min(self.maxGridY - self.curGridY, math.floor(self.contentHeight / self.stepSizeY))
+                    self.setGridPos(0, self.curGridY + steps_to_pan_down)
+                    new_y = steps_to_pan_down * self.stepSizeY
+                else:
+                    break
+
+            if sanity_steps_left < 1:
+                logger.debug(f"Our loop in the Y axis ran over. {sanity_steps_left=}")
+
+        if self.map_canvas is not None:
+            cv2.imwrite("./test_canvas.png", self.map_canvas)
+
+        # if 1 == 0:
+        #     self.setGridPos(0, 0)
+        #     canvas_x = 0
+        #     canvas_y = 0
+
+        #     img = self.capContent()
+        #     startx = self.TOOLS.firstNotBlackX(img)
+        #     starty = self.TOOLS.firstNotBlackY(img)
+        #     img_ul = img[starty:, startx:]
+        #     # cv2.rectangle(img, (startx, starty), (self.contentWidth, self.contentHeight), (255, 255, 255, 255), 3)
+        #     logger.debug(f"img_ul is {img_ul.shape[1]} x {img_ul.shape[0]}")
+
+        #     last_add = self.addToCanvas(img_ul, 0, 0)
+
+        #     steps_to_pan_down = math.floor(self.contentHeight / self.stepSizeY)
+        #     logger.debug(f"{startx=} {starty=} {steps_to_pan_down=}")
+        #     self.setGridPos(0, steps_to_pan_down)
+        #     time.sleep(self.sleep_after_panning)
+        #     img = self.capContent()
+
+        #     new_starty = self.contentHeight - (steps_to_pan_down * self.stepSizeY)
+        #     img_next = img[new_starty:, startx:]
+        #     logger.debug(f"img_next is {img_next.shape[1]} x {img_next.shape[0]}")
+        #     # cv2.rectangle(img, (startx, new_starty), (self.contentWidth, self.contentHeight), (255, 0, 0), 3)
+
+        #     self.addToCanvas(img_next, 0, last_add[1])
+        #     cv2.imwrite("./test_canvas.png", self.map_canvas)
+        #     a = 1
+        #     logger.debug(f"{new_starty=}")
+
+        logger.debug("place to break")
 
         return None

src/df_tools/imgtools.py

@@ -2,8 +2,6 @@ import json
 import subprocess
 
 import pydantic as pyd
-import cv2
-import numpy as np
 
 from .dfwindow import DFWINDOW
 from .mylogging import logger, setup_logging
@@ -561,6 +559,7 @@ def test5():
 
 
 if __name__ == "__main__":
-    setup_logging(level="DEBUG", enqueue=False, console_show_time=False, console_tracebacks=True)
+    # level 5 is TRACE
+    setup_logging(level=5, enqueue=False, console_show_time=False, console_tracebacks=True)
 
     test5()