Skip to content

Commit 07ac685

Browse files
authored
Update proj2.html
1 parent c86589e commit 07ac685

File tree

1 file changed

+6
-55
lines changed

1 file changed

+6
-55
lines changed

project-2/proj2.html

Lines changed: 6 additions & 55 deletions
Original file line numberDiff line numberDiff line change
@@ -170,63 +170,14 @@ <h3>Part 2.1: Image "Sharpening"</h3>
170170

171171
<!-- 2.2 -->
172172
<article id="part2-2">
173-
<h3>Part 2.2. Hybrid Images</h3>
173+
<h3>Part 2.2: Hybrid Images</h3>
174174
<p>
175-
<strong>Goal:</strong> Create three hybrid images (including Derek + Nutmeg and two others). For one hybrid, show the full pipeline; for the others, show originals and final hybrid only.
175+
A <strong>hybrid image</strong> is when 2 images, one under a low-pass filter and the other a high-pass filter, are blended to create an illusion where one sees mostly the high-frequency image at a close distance, but only the low-frequency image at a longer distance. This occurs because our vision has a limited spatial frequency resolution, so higher frequencies fall outside of the frequencies visible at a sufficiently far distance. Below is an example of 2 images that we can align and create a hybrid effect:
176176
</p>
177-
<h4>Full Pipeline Hybrid (Detailed)</h4>
178-
<figure>
179-
<img src="images/hybrid1_originalA.png" alt="Original A (aligned)" />
180-
<figcaption>Original A (aligned).</figcaption>
181-
</figure>
182-
<figure>
183-
<img src="images/hybrid1_originalB.png" alt="Original B (aligned)" />
184-
<figcaption>Original B (aligned).</figcaption>
185-
</figure>
186-
<figure>
187-
<img src="images/hybrid1_fftA.png" alt="Fourier transform of A" />
188-
<figcaption>Fourier transform (A).</figcaption>
189-
</figure>
190-
<figure>
191-
<img src="images/hybrid1_fftB.png" alt="Fourier transform of B" />
192-
<figcaption>Fourier transform (B).</figcaption>
193-
</figure>
194-
<figure>
195-
<img src="images/hybrid1_filteredA.png" alt="Filtered A" />
196-
<figcaption>Filtered result (A).</figcaption>
197-
</figure>
198-
<figure>
199-
<img src="images/hybrid1_filteredB.png" alt="Filtered B" />
200-
<figcaption>Filtered result (B).</figcaption>
201-
</figure>
202-
<figure>
203-
<img src="images/hybrid1_cutoff.png" alt="Cutoff frequency visualization/justification" />
204-
<figcaption>Cutoff frequency choice and justification.</figcaption>
205-
</figure>
206-
<figure>
207-
<img src="images/hybrid1_final.png" alt="Final hybrid image" />
208-
<figcaption>Final hybrid image (detailed pipeline).</figcaption>
209-
</figure>
210-
211-
<h4>Additional Hybrids (Brief)</h4>
212-
<figure>
213-
<img src="images/hybrid2_originals.png" alt="Originals for Hybrid 2" />
214-
<figcaption>Original images for Hybrid 2.</figcaption>
215-
</figure>
216-
<figure>
217-
<img src="images/hybrid2_final.png" alt="Hybrid 2 final" />
218-
<figcaption>Hybrid 2 — final result.</figcaption>
219-
</figure>
220-
<figure>
221-
<img src="images/hybrid3_originals.png" alt="Originals for Hybrid 3" />
222-
<figcaption>Original images for Hybrid 3.</figcaption>
223-
</figure>
224-
<figure>
225-
<img src="images/hybrid3_final.png" alt="Hybrid 3 final" />
226-
<figcaption>Hybrid 3 — final result.</figcaption>
227-
</figure>
228-
</article>
229-
177+
<div align="center">
178+
<img src="images/lowhigh.png" alt="lowhigh.png" width="50%">
179+
</div>
180+
To find the optimal &sigma; for each image to create the Gaussian & impulse filter with, a good starting point
230181
<!-- 2.3 + 2.4 -->
231182
<article id="part2-3">
232183
<h3>Part 2.3 &amp; 2.4. Gaussian/Laplacian Stacks; Figure 3.42(a–l); Custom Blends</h3>

0 commit comments

Comments
 (0)