This is a tentative schedule for CSC 532 and is subject to change without notice elsewhere. Please bookmark it in your browser and refer to it at least weekly during the semester.
Week/Dates |
Work |
Notes |
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1/ 12 January |
1) Basic search and optimizationsa) Enumerationi) Permutation Generator(1) Permute
ii) Logic Value Table Generator (LVTG)(1) Allow an arbitrary number of
independent variables
(2) Permit
multi-valued, discrete, logic variables
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Problem 1Due: 24 JanuaryGenerate a histogram of all
solutions and find the basic descriptive statistics (mean, median, mode,
maximum, minimum, range, standard deviation, and variance) for a capacitated,
weighted assignment problem. How do the statistics of the distribution of
solutions compare with a distribution obtained by generating 100,000
compliant, random assignments and noting the cost of each assignment to
obtain distribution statistics?
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2/ 17, 19 January |
b)
Random
c)
Greedy
d)
Some examples
i)
Resource Allocation
ii)
Warehouse Location
iii)
Quadratic Assignment
iv) Cost-based
Abduction
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3/ 24, 26 January |
Reports of findings
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Problem 2Due: 7 FebruaryGiven adjacency table
representations for two graphs, create a method that will determine whether
or not the corresponding graphs are isomorphic.
Here is a file with test
data that includes eleven examples of isomorphic graphs and four graph
pairs for which the relationship has not been stated. Determine whether the
unclassified graph pairs are isomorphic. Contrast the graph isomorphism
problem with the concentrator assignment problem. Compare their computational
complexities, run times, objectives, the potential and performance of
heuristic solutions, programming complexities, and common or similar
elements. What are some applications of the graph isomorphism problem? What
heuristics were you able to use to facilitate finding solutions?
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4/ 31 January, 2 February |
2) Constraint Satisfaction Problemsa) Satisfiabilityb) Graph Isomorphismc) Knight’s Tour |
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5/ 7, 9 February |
3) Discrete Domain Transformationsa) Algorithariumi)
RGB space
ii)
HSB space
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Problem 3Due: 21 FebruaryUse the Algoritharium
to implement and demonstrate: 1.
Color-to-gray-scale
conversion. Is this an invertible operation? 2.
Convert an
image to its negative. Is this an invertible operation? 3.
Find and
“enhance” boundary contours. 4.
Fading from one
image to another. 5.
Rotating parts of
an image. 6.
Warping parts
of an image. 7.
Implement image
filters for smoothing and sharpening, as well as removing speckle 8.
Use a method,
possibly as a “template,” to locate features (such as, eyes in a portrait or
heads in a family group photo) automatically. 9.
Contrast
enhancement (Is this an invertible operation?) and compare the results
obtained via the histogram equalization method using: ·
RGB space Find
histograms in the red, green, and blue color spaces and use the histograms to
remap the RGB levels. Use the remapped values to assign pixel values in a
contrast enhanced image. How would you describe the qualitative differences
between the original image and the contrast enhanced image? ·
HSB space Transform
the RGB values into HSB values (Hue, Saturation, and Brightness) to enhance
an image using histogram equalizations over seven subsets HSB values (H, S,
or B only, H and S, H and B, S and B, and HSB). ·
What
qualitative differences do you observe among the resultant images ·
How do the
images compare with the results obtained by RGB equalization? 10.
Some test
images: a.
Who b.
Boom c.
Mars face e.
Towers f.
Tanks |
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6/ 14, 16 February |
b) Fourier (DFT or FFT)i) A framework in vector projectionsii) Digital Signal Processingiii) Image Filtering |
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7/ 21, 23 February |
Reports of findings
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Problem 4Due: 17 AprilSelect a data set from one
of the following areas (or similar): ·
Physical,
climatological or meteorological data ·
Audio data ·
Stock market
data ·
RF/Sonar ·
Digital imagery Identify and interpret any
spectral behavior indicated by the data. |
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8/ 28 February, 1 March (SIG CSE. No class
meeting this date.) |
iv) Wavelet (DWT) |
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9/ 6, 8 March |
8 March:
Mid-term exam |
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10/ 13, 15 March |
No classes Spring Break, 10-18 March
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DRAFT VALID TO HERE
6 January 2012 |
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11/ 20, 22 March (Visiting speaker on one
date this week.) |
4) Encryption/Data Compressiona) Run length encodingb) Quantizationc) Entropy-based encodingd)
Steganography
and paper
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12/ 27, 29 March |
5) Classifying/Clusteringa) Supervised (Bayesian Classification)b) Unsupervised (C-Means) |
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13/ 3 April No class 5 April |
6) Linear Principal Component Analysis (PCA)a) Vector and Matrix Arithmeticb) Covariancec) Eigenvectors and eigenvalues |
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14/ 10-12 April |
7) Finite Difference Modelinga) Life (John H. Conway) |
Problem 5-6Student selected problem… Due: 24 April |
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15/ 17, 19 April |
8) Markov Modelsa) Language generatorb) Shopper’s aid |
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16/ 24, 26 April |
Reports of findings |
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17/ 1 May |
Reading Day,
Tuesday, 1 May Exams begin 2 May |
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18/ 8 May, Final Exam |
CSC 532 Final
Exam, 3:00-6:00 PM, Tuesday, 8 May,
CIS 1006 |
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CSC 532-001, Spring 2012 Schedule Ends Here |
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Errata |
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Vvvvvvvvvvvvvvvvvvvvvvvvvv |
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Previous problems
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Comparison-based Sorting Reports of findings
Results of previously
assigned exercises AC2 |
Comparing Sorting MethodsFor 30 lists containing
50,000 uniformly distributed and for 30 lists containing 50,000 normally
distributed integers in the range [-100,000, 100,000] compare the numbers of
comparisons and average run times of:
·
Insertion sort; ·
Selection sort; ·
Bubble sort; ·
Quick sort; ·
Merge sort; ·
Heap sort; and ·
Bucket sort. |
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Knights TourA knight’s tour is a sequence of knight’s moves that allow a knight to visit each
square on a board exactly once. If the starting square is under attack from
the final position of the knight, the tour is said to be closed; otherwise
the tour is open. Create a program that will:
·
Integers M, N,
P, and Q that represent the number of squares per side of an MxN board and a
starting location (row P, column Q) for the knight; ·
Determine
whether or not a knight’s tour exists for a given board and starting
location; ·
Find all tours
from a given starting point; and ·
Report any tour
that is found, classifying it as open or closed |
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Traveling SalespersonGenerate a histogram of all solutions
and find the basic descriptive statistics (mean, median, mode maximum,
minimum, range, standard deviation, and variance) for a 14-city travelling
sales-person problem with all cities distributed uniformly randomly within a
unit square. How do the statistics of the distribution of solutions compare
with a distribution obtained by 100,000 times, randomly riffle shuffling a
list of city labels and noting the length of the associated trips to obtain
distribution statistics?
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Two-set Partition ProblemCreate a method that will
generate a table of all possible combinations binary logic values {0, 1} for n independent logic variables. Demonstrate the algorithm by
determining whether a set A ={ x| 0 < x < 100} of n randomly selected integers contains a subset that sums exactly to an
integer value k.
1789. For demonstration purposes, let n = 35 and k = 1789. Be sure to show A and every subset that sums to 1789.
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General Set PartitioningExtend the LVTG method to
permit n-ary
logic values {0, 1,…,
(n-1)}. Demonstrate the algorithm by determining whether there exists a
partition |