A speech acoustics class did a perceptual experiment, listen…

A speech acoustics class did a perceptual experiment, listening to syllables in two levels of masking noise: a less noisy condition (10 dB SNR) and a noisier condition (0 dB SNR). Based on their performance in identifying the syllables, two separate confusion matrices were generated, one for each level of noise. Match each confusion matrix with the noise condition it was most likely to come from. Confusion Matrix 1 Confusion Matrix 2

A*SeachQuestions 1-5 are based on the following information:…

A*SeachQuestions 1-5 are based on the following information: Use a graph over 8 nodes where O is the starting node and G is the goal node. The following is a list of distances between pairs of nodes in the usual linked-list representation for a graph. (O, Z, 7), (O, S, 15), (Z, A, 15), (A, S, 14), (A, R, 16), (S, R, 8), (S, F, 10), (R, P, 10), (F, G, 20), (P, G, 10). Any pair missing here is presumed to have infinite distance, e.g., (O, R, inf).   The heuristic values (h, or line-of-sight distances to G) for the nodes are: (O, 38), (Z, 37), (A, 37), (S, 25), (R, 19), (F, 18), (P, 11), (G, 0). A* search will start by computing f-value for the start-node O as f=0+38=38 and put it in a priority queue. Then, popping O from the queue, A* will compute the f-values of the nodes connected to O, and insert them in the priority queue. Question 1: Which answer below is the priority-queue’s status at the FIRST iteration of A*-search?