README.md

@@ -221,14 +221,6 @@ Die so hochgeladenen Daten werden aber noch nicht verwendet.
 > ❗HINWEIS  
 > Damit nicht gitea die SSH-Befehle interpretiert, müssen alle per SSH ausgeführten Commands in der Datei `.ssh/authorized_keys` eingetragen sein.
 
-### Troubleshooting
-
-**F Neues Bild/Tile wird nach dem deploy nicht angezeigt**  
-**A** Kann mehrere Ursachen haben:
-* Dateiname von Bild `<IMAGE>` und Tile `tile_<IMAGE>` stimmen nicht exakt übereinstimmen
-* Dateiname in `gps.csv` stimmt nicht exakt überein
-Passiert schnell, wenn mehrere Bildversionen hochgeladen werden. Dann per SSH aller Bilder mit Zeitstempel löschen und per import den Eintrag erneut erzeugen und hochladen.
-
 ### Hintergrundinfos
 
 #### Datei gps.csv

out/gps.csv

@@ -108,6 +108,4 @@
 20240304-201704-110-X-S10_2.jpg	50.1721638888889 9.11536694444444	Pendel CIIX	Neue Feldstärke
 20241218-170830-1541-X-T50_v1.jpg	50.1192902666667 8.73992721666667	Pendel CIX	Irgendwo am Osthafen
 20250203-210719-1685-X-T50.jpg	50.1328722666667 8.91704896666667	Pendel CX	Ein paar Menschenpaare
-20250212-175748-1692-X-T50(1).jpg	50.1075388888889 8.71126138888889	Pendel CXI	Zwischen Brücken
+20250212-175748-1692-X-T50(1).jpg	50.1075388888889 8.71126138888889	Pendel CX	Zwischen Brücken
-20250409-182840-1896-X-T50.jpg	50.1117265333333 8.70644641666667	Pendel CXII	Passantin mit Buch
-20250602-172821-1999-X-T50(1).jpg	50.1096861111111 8.66920555555556	Pendel CXIII	Trockenraum

site_builder/.gitignore

@@ -1 +0,0 @@
-__pycache__/

site_builder/constants/datafields.py

@@ -1,7 +0,0 @@
-# Field position for data items
-ID = 0
-FILE = 1
-GEO = 2
-TITLE = 3
-DESCRIPTION = 4
-POS = 5

site_builder/constants/pos.py

@@ -1,6 +0,0 @@
-# Universal geo pos tuple
-LAT = 0
-LON = 1
-
-X = 0
-Y = 1

site_builder/main.py

@@ -2,45 +2,19 @@ import argparse
 import csv
 import os.path as path
 import re
-import constants.datafields as F
-import constants.pos as P
 
 importdir = 'images'
 datafile = path.join(importdir, 'gps.csv')
 args = None
 
-# ----------
+# Imported data with appended attributes as list of lists
-# Image data
+# Items: 
-# ----------
-# Based on imported CSV and added with attributes: 
-# data with appended attributes as list of lists. 
-# n: Number of images
-# Items ---> See constants/fields.py <---
-#   - ID: Image ID [0..n-1]
 #   - Image file name
-#   - lon
+#   - lon, lat
-#   - lat
+#   - title, description
-#   - title
+#   - x, y: Default tile position
-#   - description
-#   - pos as (x, y): Default tile position
 data = None
 
-# Default tile positions. Key is the image ID and value is the position as (x, y)
-# Example: { '1': (10,11), '2': (20,22), .... }
-defaultpos = None
-
-# ----------
-# Playbook 
-# ----------
-# List with changes for every single screen.
-# Playbook item:
-# - Screen number [0..n-1]
-# - list of changes:
-#   - Image ID
-#   - pos as (x, y) or, if to hide, None
-playbook = []
-
-
 # Has message in error case
 error = None
 
@@ -73,15 +47,8 @@ def exit_with_error(message):
 
 def read_csv_to_dict(csv_file):
     """
-    Reads a tab-separated CSV file and returns a list of dictionaries, one per row 
+    Reads a CSV file and returns a list of dictionaries, one per row.
-    in the full data item size. Placeholder for unfilled fields is None.
+    Assumes the first row contains headers.
-    Fields:
-    0: ID (integer), ascending starting with '1' <-- not in CSV
-    1: image file name (string)
-    2: latitude and longitude (floats), separated by space.
-    3. title (string)
-    4. description (string)
-    The items must be sorted chronologically. Assumes the first row contains headers.
     In error case, returns None
     """
     global message
@@ -90,7 +57,6 @@ def read_csv_to_dict(csv_file):
         reader = csv.reader(f, skipinitialspace=False, delimiter='\t')
         log(f"Read lines from {csv_file}")
 
-        id = 0
         for row in reader:
 
             logvv(f"Processing row: {row}")
@@ -108,21 +74,9 @@ def read_csv_to_dict(csv_file):
             if len(geo) != 2:
                 message = f'Invalid loc/lon: {row[1]}'
 
-            id += 1
+            values = [ row[0], float(geo[0]), float(geo[1]), row[2], row[3] ]
-            # Order and size must match constants.fields
-            # values = [id,  row[0], float(geo[0]), float(geo[1]), row[2], row[3] ]
-            values = []
-            values.insert(F.ID, id)
-            values.insert(F.FILE, row[0])
-            # values.insert(F.LON,  float(geo[0]))
-            # values.insert(F.LAT,  float(geo[1]))
-            values.insert(F.GEO,  (float(geo[0]), float(geo[1])))
-            values.insert(F.TITLE, row[2])
-            values.insert(F.DESCRIPTION, row[3])
-            values.insert(F.POS, None)
             data.append(values)
-            
+            logvv(f"Read row      : {values}")
-            logvv(f"Processed item : {values}")
 
     if len(data) == 0:
         message = f'Empty file: {csv_file}'  
@@ -135,7 +89,7 @@ def read_csv_to_dict(csv_file):
 
 def read_importdata():
     
-    data = None
+    global data
 
     if not path.exists(args.importdir):
         exit_with_error(f"Error: Import directory '{args.importdir}' does not exist.")
@@ -153,8 +107,6 @@ def read_importdata():
 
     log("Read successful")
 
-    return data
-
 
 def find_geo_extrema(data):
     """
@@ -165,24 +117,20 @@ def find_geo_extrema(data):
     if len(data) == 0:
         return None
     
-    lonmin = lonmax = data[0][F.GEO][P.LON]
+    lonmin = lonmax = data[0][1]
-    latmin = latmax = data[0][F.GEO][P.LAT]
+    latmin = latmax = data[0][2]
 
     for entry in data[1:]:
-        if entry[F.GEO][P.LON] < lonmin:
+        if entry[1] < lonmin:
-            lonmin = entry[F.GEO][P.LON]
+            lonmin = entry[1]
-        if entry[F.GEO][P.LON] > lonmax:
+        if entry[1] > lonmax:
-            lonmax = entry[F.GEO][P.LON]
+            lonmax = entry[1]
-        if entry[F.GEO][P.LAT] < latmin:
+        if entry[2] < latmin:
-            latmin = entry[F.GEO][P.LAT]
+            latmin = entry[2]
-        if entry[F.GEO][P.LAT] > latmax:
+        if entry[2] > latmax:
-            latmax = entry[F.GEO][P.LAT]
+            latmax = entry[2]
-
-    ret = (latmin, latmax, lonmin, lonmax)
 
-    log(f'find_geo_extrema={ret}')
+    return (lonmin, lonmax, latmin, latmax)
-
-    return ret
 
 
 def translate_pos(min, max, pos, size):
@@ -190,126 +138,36 @@ def translate_pos(min, max, pos, size):
 
     return round((pos - min) / (max - min) * size)
 
-
+def append_tile_pos(data, geo_extrema, matrixdims):
-def append_tile_pos_DEPTRECATED(data, geo_extrema, matrixdims):
     """
-    Adds one column with (x, y) position (integers) of the tile in the canvas
+    Adds two columns with x and y position (integer) of the tile in the canvas
     """
 
     ret = []
 
     for e in data:
-        x = translate_pos(geo_extrema[2], geo_extrema[3], e[F.GEO][P.LON], matrixdims[0])
+        x = translate_pos(geo_extrema[2], geo_extrema[3], e[2], matrixdims[0])
-        y = translate_pos(geo_extrema[0], geo_extrema[1], e[F.GEO][P.LAT], matrixdims[1])
+        y = translate_pos(geo_extrema[0], geo_extrema[1], e[1], matrixdims[1])
 
-        e.insert(F.POS, (x, y))
+        e.append(x)
+        e.append(y)
 
         ret.append(e)
         logvv(f'Data updated: {e}')
 
     return ret
 
-def create_default_tile_pos_dict(data, geo_extrema, matrixdims):
+def calculate_orig_pos():
-    """
+    global data
-    Returns dictionary with default position for every image by its ID.
+    geo_extrema = find_geo_extrema(data)
-    """
+    data = append_tile_pos(data, geo_extrema, matrixdims)
-
-    ret = dict()
-
-    for d in data:
-        x = translate_pos(geo_extrema[2], geo_extrema[3], d[F.GEO][P.LON], matrixdims[0])
-        y = translate_pos(geo_extrema[0], geo_extrema[1], d[F.GEO][P.LAT], matrixdims[1])
-
-        ret[d[F.ID]]=(x, y)
-
-    logvv(f'create_default_tile_pos_dict: {ret}')
-
-    return ret
-
-
-def create_playbook(posdict):
-    """
-    Returns list of dict [delta1, delta2, ...] with changes (valid in both direections) for 
-    every single tour. The snapshot holds the complete canvas for the actual step. 
-    The playbook contains exclusively changed values (delta).
-    Rules to process:
-    - Loop over all n default item positions items: start with the first (oldest) item (0)
-    - Copy previous snapshot (to find changes in a later step)
-    - Run recursively over the the snapshot items: Check if there is already an 
-        item at the position of the actual image. If true, change its position 
-        by the displacement rule.
-    - Place the image of the actual item (a) at its default position in the snapshot
-    - Create an item for the following image (a+1) and hide it (for scrolling backwards).
-    - Store all changes betweeen snapshot and previous snapshot in a new delta (a) and append it 
-      to the return dict.
-    In error case, None will be returned.
-    """
-    
-    snapshot = prev_snapshot = []
-    ret = []
-
-    for a in posdict:
-        prev_snapshot = snapshot
-
-        pos = posdict[a]
-
-        snapshot = make_pos_free(pos, snapshot, matrixdims)
-
-
-        
-
-    return ret
-
-
-def make_pos_free(pos, snapshot, matrixdims):
-    """
-    Search for an existing tile in the snapshot at position pos.
-    If exists, the new position will be calculated. With an 
-    recursive call, this new position will be checked, too. 
-    """
-
-    act = pos
-    ret =  snapshot
-  
-    for i in ret:
-        if (ret[i] == act):
-            shifted_pos = shifting(act, matrixdims)
-            ret = make_pos_free(shifted_pos, snapshot, matrixdims)
-            ret[i] = shifted_pos
-            break
-
-    return ret
-
-def shifting(pos, matrixdims):
-    """Strategy to shift for a pos tuple. Above and on the horizontal middle line, the position 
-         will be shifted to the top. Positions below the horizontal middle line, 
-         the position will be shifted in bottom direction. Can result in a shift outside of the canvas.
-         Returns the new position as (x, y) tuple.
-    """
-    
-    if pos[P.Y] > (matrixdims[P.Y] / 2):
-        return (pos[P.X], pos[P.Y] + 1)
-    else:
-        return (pos[P.X], pos[P.Y] - 1)
-    
-
-
-# def add_pos_column_to_data():
-#     """Enhance data with original pos."""
-#     global data
-#     geo_extrema = find_geo_extrema(data)
-#     data = append_tile_pos(data, geo_extrema, matrixdims)
 
 
 def main():
     global args
-    global defaultpos
-    global data
     args=parse_args()
-    data = read_importdata()
+    read_importdata()
-    geo_extrema = find_geo_extrema(data)
+    calculate_orig_pos()
-    log(f'matrixdims={matrixdims}')
-    defaultpos = create_default_tile_pos_dict(data, geo_extrema, matrixdims)
     log("Finished.")
 
 

site_builder/test_find_geo_extrema.py

@@ -10,11 +10,11 @@ def patch_log(monkeypatch):
 
 def test_find_geo_extrama_simpple():
     data = [
-        [0, 'dummy', (50.1, 8.1) ],
+        ['dummy', 50.1, 8.1 ],
-        [1, 'dummy', (50.2, 8.2) ],
+        ['dummy', 50.2, 8.2 ],
-        [2, 'dummy', (50.3, 8.4) ],
+        ['dummy', 50.3, 8.4 ],
-        [3, 'dummy', (49.3, 8.4) ],
+        ['dummy', 49.3, 8.4 ],
-        [4, 'dummy', (49.3, 7.4) ]
+        ['dummy', 49.3, 7.4 ]
     ]
 
     result = main.find_geo_extrema(data)
@@ -24,7 +24,7 @@ def test_find_geo_extrama_simpple():
 
 def test_find_geo_extrama_single():
     data = [
-        [0, 'dummy', (50.1, 8.1) ]
+        ['dummy', 50.1, 8.1 ]
     ]
 
     result = main.find_geo_extrema(data)

site_builder/test_make_pos_free.py

@@ -1,130 +0,0 @@
-import pytest
-import main 
-
-#########
-#  In order to reduce the dependency of method shifting(),
-#  the position is not explicitly checked.    
-#########
-
-@pytest.fixture(autouse=True)
-def patch_log(monkeypatch):
-    monkeypatch.setattr(main, "log", lambda msg: None)
-    monkeypatch.setattr(main, "logvv", lambda msg: None)
-
-def test_single_item_no_match():
-
-    matrixdims = (6, 3)
-
-    pos = (0,0)
-    before = {1:pos}
-  
-    after = main.make_pos_free((2, 3), before, matrixdims)
-    assert after[1] == pos
-
-
-def test_single_item_match_at_0_0():
-
-    pos = (0,0)
-    before = {1:pos}
-
-    matrixdims = (6, 3)
-    after = main.make_pos_free(pos, before, matrixdims)
-    assert after[1] != pos
-
-
-def test_single_item_match_at_horizont():
-
-    pos = (0, 1)
-    before = {1:pos}
-
-    # Y
-    # 0
-    # 1 <--- Horizon
-    # 2
-    matrixdims = (99, 2)
-    after = main.make_pos_free(pos, before, matrixdims)
-    assert after[1] != pos
-
-
-def test_single_item_match_at_upper():
-
-    pos = (0, 0)
-    before = {1:pos}
-
-    # Y
-    # 0
-    # 1 <--- Horizon
-    # 2
-    matrixdims = (99, 2)
-    after = main.make_pos_free(pos, before, matrixdims)
-    assert after[1] != pos
-
-
-def test_single_item_match_at_lower():
-
-    pos = (0, 2)
-    before = {1:pos}
-
-    # Y
-    # 0                       ^
-    # 1 <--- Horizon | Lower  | Upper
-    # 2              V
-    matrixdims = (99, 2)
-    after = main.make_pos_free(pos, before, matrixdims)
-    assert after[1] != pos
-
-
-def test_first_item():
-
-    pos = (1,1)
-    matrixdims = (6, 3)
-
-    before = []
-    after = main.make_pos_free(pos, before, matrixdims)
-    assert len(after) == 0
-
-
-def test_check_direct_neighbours_upwards():
-
-    matrixdims = (1000, 1000)
-
-    pos = (100,200)
-
-    before = {
-        1:(pos[main.P.X]  , pos[main.P.Y]   ),
-        2:(pos[main.P.X]  , pos[main.P.Y]-1 ),
-              }
-
-    after = main.make_pos_free(pos, before, matrixdims)
-
-    for i in after:
-        for j in after:
-            if i == j:
-                continue
-            assert after[j] != after[i], f"i={i}, j={j}: Two items may not have the same position: {after[i]}"
-
-
-def test_multiple_item_no_match():
-
-    matrixdims = (6, 3)
-
-    pos = (1,1)
-
-    before = {
-        1:(pos[main.P.X]+1, pos[main.P.Y]  ),
-        2:(pos[main.P.X]-1, pos[main.P.Y]  ),
-        3:(pos[main.P.X]  , pos[main.P.Y]+1),
-        4:(pos[main.P.X]  , pos[main.P.Y]-1),
-        5:(pos[main.P.X]+1, pos[main.P.Y]+1),
-        6:(pos[main.P.X]+1, pos[main.P.Y]-1),
-        7:(pos[main.P.X]-1, pos[main.P.Y]+1),
-        8:(pos[main.P.X]-1, pos[main.P.Y]-1),
-              }
-
-    after = main.make_pos_free(pos, before, matrixdims)
-
-    for i in after:
-        for j in after:
-            if i == j:
-                continue
-            assert after[j] != after[i], f"i={i}, j={j}: Two items may not have the same position: {after[i]}"

site_builder/test_read_csv_to_dict.py

@@ -18,8 +18,8 @@ def test_read_csv_to_dict_basic(tmp_path):
 
     result = main.read_csv_to_dict(str(file_path))
     expected = [
-        [1, 'img1', (12.34, 56.78), 'foo', 'bar',  None],
+        ['img1', 12.34, 56.78, 'foo', 'bar'],
-        [2, 'img2', (90.12, 34.56), 'baz', 'qux',  None],
+        ['img2', 90.12, 34.56, 'baz', 'qux'],
     ]
     assert result == expected
 
@@ -39,7 +39,7 @@ def test_read_csv_to_dict_extra_spaces(tmp_path):
     file_path.write_text(content, encoding="utf-8")
 
     result = main.read_csv_to_dict(str(file_path))
-    expected = [[1, 'img3', (3.23, 4.56), 'foo', 'bar', None]]
+    expected = [['img3', 3.23, 4.56, 'foo', 'bar']]
     assert result == expected
 
 

site_builder/test_shifting.py

@@ -1,20 +0,0 @@
-import pytest
-import main 
-
-
-@pytest.fixture(autouse=True)
-def patch_log(monkeypatch):
-    monkeypatch.setattr(main, "log", lambda msg: None)
-    monkeypatch.setattr(main, "logvv", lambda msg: None)
-
-def test_shifting_top():
-
-    assert main.shifting((2,3), (4,5)) == (2,4)
-
-def test_shifting_mid():
-
-    assert main.shifting((20,24), (21,49)) == (20,23)
-
-def test_shifting_botom():
-
-    assert main.shifting((20,26), (21,49)) == (20,27)