Page of 4 ZOOM B. Second Methodology: R/Q 1. Draw and measure the long and short axes of 20 ooids with variable orientations. Then measure the axial ratio (R.:) and the orientation (o) of each ooid (you may want to record data in excel) (3 pls). 2. Plot your data on the Rx = 1 graph (Fig. 2) (you will want to use tracing paper) (1 pt). 3. Compare the resulting point distribution with the provided analytical curves (Fig. 3) and determine the best finite strain ellipse by finding the closest match (2 pts). 4. Plot your axial ratios and Don Fig. 2. Using tracing paper, compare these plotted values to the analytical curves on the Fig. 3. Once you have found the best fit, record the R; value. (5 pts) 1 C. Compare the strain ellipses calculated by these two different methods, then discuss the reasons for the differences. Which is the most accurate method and why do you think this is the case? (3 pts) Figure 1: Page of 4 ZOOM B. Second Methodology: R/Q 1. Draw and measure the long and short axes of 20 ooids with variable orientations. Then measure the axial ratio (R.:) and the orientation (o) of each ooid (you may want to record data in excel) (3 pls). 2. Plot your data on the Rx = 1 graph (Fig. 2) (you will want to use tracing paper) (1 pt). 3. Compare the resulting point distribution with the provided analytical curves (Fig. 3) and determine the best finite strain ellipse by finding the closest match (2 pts). 4. Plot your axial ratios and Don Fig. 2. Using tracing paper, compare these plotted values to the analytical curves on the Fig. 3. Once you have found the best fit, record the R; value. (5 pts) 1 C. Compare the strain ellipses calculated by these two different methods, then discuss the reasons for the differences. Which is the most accurate method and why do you think this is the case? (3 pts) Figure 1