Slides and Notes 19-November-2010

Executive summary: There isn't a large vertical shift.

The SLM2/5 is the most nearly vertical, and in it we can look for deviations from a fit to the "radial" CCDs. If one disk shifts, the fit adjusts but that disk should still have the largest deviation.

Station #Name
02ME+3
03ME+2
04ME+1
05MAB+3
06MAB+1
07MAB-1
08MAB-3
09ME-1
10ME-2
11ME-3

These numbers represent the shifts required to get the transfer plates to line up in the local horizontal (tangent) and vertical (radial) directions for each transfer line, where ME+4 and ME-4 are held fixed. (Something has to be fixed--so these are relative displacements).

Some lines have poor profiles at critical locations, which means that the distributions show a wide fuzziness, or even a bifurcation. These correlate within a line: if a position lies within the faint blob at point X, it will also lie within the faint blob at point Y.

The fits are plagued with bifurcations: instabilities in the fit seem most likely. Instabilities in profile position for marginal profiles are generally associated with large errors, which should reduce the contribution.

The orientations should all be similar. Thus, if all lines at one station show roughly the same "horizontal" shift, you may conclude that that station has a rotation of (shift/7250) radians with respect to the ME4 stations. If at a station a line and its opposite number show "vertical" shifts of the same size but opposite sign, that indicates a shift of that station.

In general, I would expect the station with the largest variation to be the one in the line that moved.

For the SLM2/5 line, Transfer Line 2 has unfortunate fit instabilities, and something is causing continuous shifts of the order of 50 microns. This is possibly ME-1, which shows the largest swings. Something else drives a 100 micron shift in the ME1 starting in April, but it isn't clear what. The largest changes are about 100 microns in April.

Transfer Line 5 shows an increase of 100 microns in ME+3/ME+2 (YE+2) in April and everything else is fairly stable, albeit muddy. In short, looking at the most vertical CCDs, I see no evidence for more than about 100 micron shift in disk positions.

Transfer2Vertical02TL 2, ME+350 micron decrease from April to July, 20 micron swings: clear
Transfer5Vertical02TL 5, ME+3Bifurcates, one branch increases 100 microns in April
Transfer2Vertical03TL 2, ME+2bifurcation, 30 micron swings
Transfer5Vertical03TL 5, ME+2increases 100 microns in April
Transfer2Vertical04TL 2, ME+1bifurcation, 100 micron decrease from April to July, 50 micron swings
Transfer5Vertical04TL 5, ME+1stable
Transfer2Vertical05TL 2, MAB+3bifurcation, 50 micron swings
Transfer5Vertical05TL 5, MAB+3stable
Transfer2Vertical06TL 2, MAB+1bifurcation, muddy
Transfer5Vertical06TL 5, MAB+1stable
Transfer2Vertical07TL 2, MAB-3bifurcation, 25 micron swings
Transfer5Vertical07TL 5, MAB-3stable
Transfer2Vertical08TL 2, MAB-3bifurcation, muddy
Transfer5Vertical08TL 5, MAB-3stable
Transfer2Vertical09TL 2, ME-1trifurcation, 100 micron increase from April to July, large swings
Transfer5Vertical09TL 5, ME-1stable
Transfer2Vertical10TL 2, ME-2trifurcation, one branch shows 100 micron increase from April to July
Transfer5Vertical10TL 5, ME-2stable
Transfer2Vertical11TL 2, ME-3trifurcation, muddy, tight branch shows 50 micron decrease from April to July
Transfer5Vertical11TL 5, ME-3stable

There are problems with Transfer Line 3 Horizontal Station 7 (300 micron excursion), with Transfer Line 6 Horizontal station 9 (400 micron excursion), and with Transfer Line 4 Horizontal station 5 (1200 micron excursion).

Comments

Transfer1Horizontal02.png

Transfer1Horizontal03.png

Transfer1Horizontal04.png

Transfer1Horizontal05.png

Transfer1Horizontal05vs11.png

Transfer1Horizontal06.png

Transfer1Horizontal07.png

Transfer1Horizontal08.png

Transfer1Horizontal09.png

Transfer1Horizontal10.png

Transfer1Horizontal10vs11.png

Transfer1Horizontal11.png

Transfer1Horizontal11A.png

Transfer1Vertical02.png

Transfer1Vertical03.png

Transfer1Vertical03A.png

Transfer1Vertical03vs02.png

Transfer1Vertical04.png

Transfer1Vertical04A.png

Transfer1Vertical04B.png

Transfer1Vertical04vs02.png

Transfer1Vertical05.png

Transfer1Vertical05B.png

Transfer1Vertical06.png

Transfer1Vertical07.png

Transfer1Vertical07vs02.png

Transfer1Vertical08.png

Transfer1Vertical09.png

Transfer1Vertical10.png

Transfer1Vertical11.png

Transfer1Vertical11vs02.png

Transfer2Horizontal02.png

Transfer2Horizontal03.png

Transfer2Horizontal04.png

Transfer2Horizontal05.png

Transfer2Horizontal06.png

Transfer2Horizontal07.png

Transfer2Horizontal08.png

Transfer2Horizontal09.png

Transfer2Horizontal10.png

Transfer2Horizontal11.png

Transfer2Vertical02.png

Transfer2Vertical03.png

Transfer2Vertical03A.png

Transfer2Vertical04.png

Transfer2Vertical04A.png

Transfer2Vertical04vs05.png

Transfer2Vertical05.png

Transfer2Vertical05A.png

Transfer2Vertical06.png

Transfer2Vertical06A.png

Transfer2Vertical07.png

Transfer2Vertical07A.png

Transfer2Vertical08.png

Transfer2Vertical08vs09.png

Transfer2Vertical09.png

Transfer2Vertical09vs10.png

Transfer2Vertical09vs11.png

Transfer2Vertical10.png

Transfer2Vertical10vs11.png

Transfer2Vertical11.png

Transfer3Horizontal02.png

Transfer3Horizontal03.png

Transfer3Horizontal04.png

Transfer3Horizontal05.png

Transfer3Horizontal06.png

Transfer3Horizontal07.png

Transfer3Horizontal07A.png

The value rises by roughly 300 microns here...

Transfer3Horizontal07Profile.png

Transfer3Horizontal07vs08.png

Transfer3Horizontal08.png

Transfer3Horizontal09.png

Transfer3Horizontal10.png

Transfer3Horizontal11.png

Transfer3Vertical02.png

Transfer3Vertical03.png

Transfer3Vertical04.png

Transfer3Vertical05.png

Transfer3Vertical06.png

Transfer3Vertical07.png

Transfer3Vertical08.png

Transfer3Vertical09.png

Transfer3Vertical10.png

Transfer3Vertical11.png

Transfer4Horizontal02.png

Transfer4Horizontal03.png

Transfer4Horizontal04.png

The following one shows quite a large change!

Transfer4Horizontal05.png

Transfer4Horizontal05Profile.png

Transfer4Horizontal05A.png

Transfer4Horizontal05B.png

Transfer4Horizontal05C.png

Transfer4Horizontal06.png

Transfer4Horizontal07.png

Transfer4Horizontal08.png

Transfer4Horizontal09.png

Transfer4Horizontal10.png

Transfer4Horizontal11.png

Transfer4Vertical02.png

Transfer4Vertical03.png

Transfer4Vertical04.png

Transfer4Vertical05.png

Transfer4Vertical06.png

Transfer4Vertical07.png

Transfer4Vertical08.png

Transfer4Vertical09.png

Transfer4Vertical10.png

Transfer4Vertical11.png

Transfer5Horizontal02.png

Transfer5Horizontal03.png

Transfer5Horizontal04.png

Transfer5Horizontal05.png

Transfer5Horizontal06.png

Transfer5Horizontal07.png

Transfer5Horizontal08.png

Transfer5Horizontal09.png

Transfer5Horizontal10.png

Transfer5Horizontal11.png

Transfer5Vertical02.png

Transfer5Vertical03.png

Transfer5Vertical04.png

Transfer5Vertical05.png

Transfer5Vertical06.png

Transfer5Vertical07.png

Transfer5Vertical08.png

Transfer5Vertical09.png

Transfer5Vertical10.png

Transfer5Vertical11.png

Transfer6Horizontal02.png

Transfer6Horizontal03.png

Transfer6Horizontal04.png

Transfer6Horizontal05.png

Transfer6Horizontal06.png

Transfer6Horizontal07.png

Transfer6Horizontal08.png

Transfer6Horizontal09.png

Transfer6Horizontal09ProfileA.png

The upper branch changes by about 400 microns. The lower branch is fairly stable.

Transfer6Horizontal09ProfileUpper.png

Transfer6Horizontal09ProfileLower.png

Transfer6Horizontal10.png

Transfer6Horizontal11.png

Transfer6Vertical02.png

Transfer6Vertical03.png

Transfer6Vertical04.png

Transfer6Vertical05.png

Transfer6Vertical06.png

Transfer6Vertical07.png

Transfer6Vertical08.png

Transfer6Vertical09.png

Transfer6Vertical10.png

Transfer6Vertical11.png

Summary:

Modified 19-November-2010 at 14:01

http://hep.physics.wisc.edu/~jnb/cms/19Nov2010
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