| 17 | | 2. LION Simulations |
| 18 | | - Show that for a ~330T/m the precision to cause unusual beam shapes is: |
| 19 | | - microns in transverse offsets |
| 20 | | - millimeters in longitudinal offsets |
| 21 | | - microradians in rotation about the x- and y-axes |
| 22 | | - milliradians in rotation about the z-axis |
| 23 | | - Check the resolution of the positioning of PMQs at SCAPA |
| | 20 | 3. In-Beam Diagnostic |
| | 21 | Updates: |
| | 22 | - General? |
| | 23 | Actions: |
| | 24 | - **RW, CD**: Study correlation between laser diagnostics and mean dose |
| | 25 | - **CD, TP**: Refine evaluations of LET in the cells with the RCF in front |
| | 26 | - **CD**: Predict the cell dish dose from the RCF in front of it |
| | 27 | - **PH**: Investigate how to get the light out of the vacuum chamber |
| | 28 | - Investigate how a phosphor sheet could be incorporated into the design |
| | 29 | - Acquire a glass sheet |
| | 43 | In-Beam Diagnostics |
| | 44 | - **RW, CD**: Study correlation between laser diagnostics and mean dose |
| | 45 | - **CD, TP**: Refine evaluations of LET in the cells with the RCF in front |
| | 46 | - **CD**: Predict the cell dish dose from the RCF in front of it |
| | 47 | - **PH**: Investigate how to get the light out of the vacuum chamber |
| | 48 | - Investigate how a phosphor sheet could be incorporated into the design |
| | 49 | - Acquire a glass sheet |
| | 50 | |
| | 51 | Bio Next Steps |
| | 52 | - **EM**: Write up a biology plan |
| | 53 | - Decide whether to use Marie's lab and whether to stick with HeLa |
| | 54 | - **EM, MB, JP, RA**: Meet to finalise details |
| | 55 | - **Unassigned**: Obtain an inverted microscope |
| | 56 | |
| | 57 | Improve the spatial variation |
| | 58 | - **CD, JMcG**: Investigate how to achieve uniformity without a scatterer in place |
| | 59 | |