diff --git a/apple/appledisplay.cpp b/apple/appledisplay.cpp
index 1494684..ea2c4d5 100644
--- a/apple/appledisplay.cpp
+++ b/apple/appledisplay.cpp
@@ -216,10 +216,13 @@ inline void AppleDisplay::Draw14DoubleHiresPixelsAt(uint16_t addr)
 	drawApplePixel(bitTrain & 0x0F, col+xoff+1,row);
       } else {
 	// Perfect color, B&W, monochrome. Draw an exact version of the pixels, and let 
-	// the physical display figure out if they need to be reduced to B&W or not.
+	// the physical display figure out if they need to be reduced to B&W or not
+	// (for the most part - the m_blackAndWhite piece here allows full-res displays
+	// to give the crispest resolution.)
 
 	uint8_t color = bitTrain & 0x0F;
-	
+	if (g_displayType == m_blackAndWhite) { color = c_white; } 
+
 	g_display->cachePixel((col*2)+(xoff*2), row, 
 			      ((bitTrain & 0x01) ? color : c_black));
 	
diff --git a/teensy/teensy-display.cpp b/teensy/teensy-display.cpp
index 3d38079..e3b916a 100644
--- a/teensy/teensy-display.cpp
+++ b/teensy/teensy-display.cpp
@@ -345,10 +345,14 @@ void TeensyDisplay::cachePixel(uint16_t x, uint16_t y, uint8_t color)
     // with a color between the two.
 
 #if 1
-    // This is straight blending, R/G/B average
+    // This is straight blending, R/G/B average, except in B&W mode
     uint16_t origColor = dmaBuffer[y+VOFFSET][(x>>1)+HOFFSET];
     uint16_t newColor = loresPixelColors[color];
-    cacheDoubleWidePixel(x>>1, y, blendColors(origColor, newColor));
+    if (g_displayType == m_blackAndWhite) {
+      cacheDoubleWidePixel(x>>1, y, (origColor && newColor) ? 0xFFFF : 0x0000);
+    } else {
+      cacheDoubleWidePixel(x>>1, y, blendColors(origColor, newColor));
+    }
 #endif
 
 #if 0