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Size: 1180
Comment:
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Size: 11693
Comment:
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| Deletions are marked like this. | Additions are marked like this. |
| Line 5: | Line 5: |
| === Near ITM === | === ETM === * Suspended beam reducing telescope for transmitted beam. * Vibration isolation requirement TBD * Detection optics for transmitted beam, especially QPD (suspended ? in vacuum ?), CCD |
| Line 7: | Line 10: |
| * Local sensors to monitor the position of the test mass * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) |
* Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended baffles to kill scattered light (suggested by Riccardo) * Suspended beam dumps for killing AR reflected beams. * CCD camera to look at the mirror surface. === ITM === * Optical lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side |
| Line 13: | Line 26: |
| * CCD to look at the mirror surface. === Near ETM === * Suspended beam reducing telescope for transmitted beam. * Vibration isolation requirement TBD * Optical lever * Local sensors to monitor the position of the test mass * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended baffles to kill scattered light (suggested by Riccardo) * Suspended beam dumps for killing AR reflected beams. * CCD to look at the mirror surface. |
* CCD camera to look at the mirror surface. === BS === * Suspended steering mirrors to lead the POX/POY beams out of the vacuum chamber. * Detection optics for POX/POY (2xRFPD, RFPD, DCPD, RF QPD, DC QPD, CCD) * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === PRM === * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === PR2 === * Suspended steering mirror(s) to lead the transmitted beam out of the vacuum chamber. * Detection optics for POP. * Injection/Detection optics for green laser. * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === PR3 === * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === SRM === * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === SR2 === * Suspended steering mirror(s) to lead the green beam into the interferometer. * Injection/Detection optics for green laser. * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === SR3 === * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. ---- === MC1 === * Suspended steering mirrors to lead the MC REFL beams out of the vacuum chamber. * Detection optics for MC REFL (RFPD, DCPD, RF QPD, DC QPD, CCD) * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === MC2 === * Detection optics for transmitted beam (MCT), especially QPD (suspended ? in vacuum ?) * Detection optics for MCT (DCPD, DC QPD, CCD) * CCD to look at the MC transmitted light. * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === MC3 === * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === MMT1 === * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === MMT2 === * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === Faraday === * Detection optics for REFL (RFPD, DCPD, RF QPD, DC QPD, CCD) * CCD cameras to look at the iniput/output of FI. ---- === OMMT1 === * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === OMMT2 === * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the mirror surface. === OMC === * Suspended steering mirrors to lead the DC PD beams in the vacuum chamber. * Suspended steering mirrors to lead the OMC REFL beams out of the vacuum chamber. * Suspended steering mirrors to pickoff RF signals (1%?) out of the vacuum chamber. * Detection optics for In vacuum DC PD. * Detection optics for OMC REFL. (RFPD, DCPD, RF QPD, DC QPD, CCD) * Detection optics for AS RF port (RFPD, DCPD, RF QPD, DC QPD, CCD). * Optical Lever * Local sensors to monitor the position of the mirror and above masses * At least horizontal degrees of freedom (X,Y) * Preferably a vertical sensor (Z) and side * The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts. * Suspended beam dumps for killing auxiliary beams (in vacuum). * CCD to look at the OMC mirror surface. ---- == Total amount == For IFO optics ||Item|| ||ETMX||ETMY||ITMX||ITMY||BS||PRM||PR2||PR3|| ||Total|| || || || || || || || || || || || || || ||CCD|| ||1||1||1||1||1||1||1||1|| ||7|| ||QPD for OL|| ||2||2||2||2||2||2||2||2|| ||14|| ||Laser|| ||2||2||2||2||2||2||2||2|| ||14|| ||Local sensor|| || || || || || || || || || || || ||Beam dump|| || || || || || || || || || || || For input optics: ||Item|| ||MC1||MC2||MC3||MMT1||MMT2||FI|| || || ||Total|| || || || || || || || || || || || || || ||CCD|| ||1||1||1||1||1||2|| || || ||7|| ||QPD for OL|| ||2||2||2||2||2|| || || || ||10|| ||Laser|| ||1||1||1||1||1||1|| || || ||5|| ||Local sensor|| || || || || || || || || || || || ||Beam dump|| || || || || || || || || || || || For output optics: ||Item|| ||OMMT1||OMMT2||OMC|| || || || || || ||Total|| || || || || || || || || || || || || || ||CCD|| ||1||1||2|| || || || || || ||4|| ||QPD for OL|| ||2||2|| || || || || || || ||4|| ||Laser|| ||1||1|| || || || || || || ||2|| ||Local sensor|| || || || || || || || || || || || ||Beam dump|| || || || || || || || || || || || For output ports: ||Item|| ||DC||OMC REFL||AP RF||REFL||POX||POY||TRX||TRY||MC REFL||MCT|| ||Total|| || || || || || || || || || || || || || || || ||CCD|| || ||1||1||1||1||1||1||1||1||1|| ||9|| ||RF PD|| || ||1||1||1||1||1|| || ||1|| || ||6|| ||2xRF PD|| || || || || ||1|| || || || || || ||1|| ||PD for DC readuot|| ||1|| || || || || || || || || || ||1|| ||DC PD|| || ||1||1||1||1||1|| || ||1||1|| ||7|| ||DC PD high/low|| || || || || || || ||1||1|| || || ||2|| ||RF QPD|| || ||2||2||2||2|| || || ||2|| || ||10|| ||DC QPD|| || || || || || || ||1||1|| ||1|| ||3|| ||Beam dump|| || || || || || || || || || || || || || For laser tabel: ||Item|| ||Laser||FSS REFL||FSST||PMC REFL||PMCT||MZT1||MZT2||ISS|| ||Total|| || || || || || || || || || || || || ||CCD|| || || || ||1||1||1||1|| || ||4|| ||RF PD|| || ||1|| ||1|| ||1|| || || ||3|| ||DC PD|| ||2|| ||1||1||1|| ||1||1|| ||5|| ||DC QPD|| || || || || ||1|| ||1|| || || || ||Beam dump|| || || || || || || || || || || || |
Auxiliary Optics Lists
This is a preliminary list of auxiliary optics, sensors and other stuff.
ETM
- Suspended beam reducing telescope for transmitted beam.
- Vibration isolation requirement TBD
- Detection optics for transmitted beam, especially QPD (suspended ? in vacuum ?), CCD
- Optical lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended baffles to kill scattered light (suggested by Riccardo)
- Suspended beam dumps for killing AR reflected beams.
- CCD camera to look at the mirror surface.
ITM
- Optical lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended baffles (suggested by Riccardo)
- Suspended beam dumps for AR reflected beams.
- CCD camera to look at the mirror surface.
BS
- Suspended steering mirrors to lead the POX/POY beams out of the vacuum chamber.
- Detection optics for POX/POY (2xRFPD, RFPD, DCPD, RF QPD, DC QPD, CCD)
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
PRM
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
PR2
- Suspended steering mirror(s) to lead the transmitted beam out of the vacuum chamber.
- Detection optics for POP.
- Injection/Detection optics for green laser.
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
PR3
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
SRM
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
SR2
- Suspended steering mirror(s) to lead the green beam into the interferometer.
- Injection/Detection optics for green laser.
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
SR3
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
MC1
- Suspended steering mirrors to lead the MC REFL beams out of the vacuum chamber.
- Detection optics for MC REFL (RFPD, DCPD, RF QPD, DC QPD, CCD)
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
MC2
- Detection optics for transmitted beam (MCT), especially QPD (suspended ? in vacuum ?)
- Detection optics for MCT (DCPD, DC QPD, CCD)
- CCD to look at the MC transmitted light.
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
MC3
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
MMT1
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
MMT2
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
Faraday
- Detection optics for REFL (RFPD, DCPD, RF QPD, DC QPD, CCD)
- CCD cameras to look at the iniput/output of FI.
OMMT1
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
OMMT2
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the mirror surface.
OMC
- Suspended steering mirrors to lead the DC PD beams in the vacuum chamber.
- Suspended steering mirrors to lead the OMC REFL beams out of the vacuum chamber.
- Suspended steering mirrors to pickoff RF signals (1%?) out of the vacuum chamber.
- Detection optics for In vacuum DC PD.
- Detection optics for OMC REFL. (RFPD, DCPD, RF QPD, DC QPD, CCD)
- Detection optics for AS RF port (RFPD, DCPD, RF QPD, DC QPD, CCD).
- Optical Lever
- Local sensors to monitor the position of the mirror and above masses
- At least horizontal degrees of freedom (X,Y)
- Preferably a vertical sensor (Z) and side
- The sensors have to be rigidly mounted on the ground so that these are useful for remembering the position of the mirror and recording the drifts.
- Suspended beam dumps for killing auxiliary beams (in vacuum).
- CCD to look at the OMC mirror surface.
Total amount
For IFO optics
Item |
|
ETMX |
ETMY |
ITMX |
ITMY |
BS |
PRM |
PR2 |
PR3 |
|
Total |
|
|
|
|
|
|
|
|
|
|
|
|
CCD |
|
1 |
1 |
1 |
1 |
1 |
1 |
1 |
1 |
|
7 |
QPD for OL |
|
2 |
2 |
2 |
2 |
2 |
2 |
2 |
2 |
|
14 |
Laser |
|
2 |
2 |
2 |
2 |
2 |
2 |
2 |
2 |
|
14 |
Local sensor |
|
|
|
|
|
|
|
|
|
|
|
Beam dump |
|
|
|
|
|
|
|
|
|
|
|
For input optics:
Item |
|
MC1 |
MC2 |
MC3 |
MMT1 |
MMT2 |
FI |
|
|
|
Total |
|
|
|
|
|
|
|
|
|
|
|
|
CCD |
|
1 |
1 |
1 |
1 |
1 |
2 |
|
|
|
7 |
QPD for OL |
|
2 |
2 |
2 |
2 |
2 |
|
|
|
|
10 |
Laser |
|
1 |
1 |
1 |
1 |
1 |
1 |
|
|
|
5 |
Local sensor |
|
|
|
|
|
|
|
|
|
|
|
Beam dump |
|
|
|
|
|
|
|
|
|
|
|
For output optics:
Item |
|
OMMT1 |
OMMT2 |
OMC |
|
|
|
|
|
|
Total |
|
|
|
|
|
|
|
|
|
|
|
|
CCD |
|
1 |
1 |
2 |
|
|
|
|
|
|
4 |
QPD for OL |
|
2 |
2 |
|
|
|
|
|
|
|
4 |
Laser |
|
1 |
1 |
|
|
|
|
|
|
|
2 |
Local sensor |
|
|
|
|
|
|
|
|
|
|
|
Beam dump |
|
|
|
|
|
|
|
|
|
|
|
For output ports:
Item |
|
DC |
OMC REFL |
AP RF |
REFL |
POX |
POY |
TRX |
TRY |
MC REFL |
MCT |
|
Total |
|
|
|
|
|
|
|
|
|
|
|
|
|
|
CCD |
|
|
1 |
1 |
1 |
1 |
1 |
1 |
1 |
1 |
1 |
|
9 |
RF PD |
|
|
1 |
1 |
1 |
1 |
1 |
|
|
1 |
|
|
6 |
2xRF PD |
|
|
|
|
|
1 |
|
|
|
|
|
|
1 |
PD for DC readuot |
|
1 |
|
|
|
|
|
|
|
|
|
|
1 |
DC PD |
|
|
1 |
1 |
1 |
1 |
1 |
|
|
1 |
1 |
|
7 |
DC PD high/low |
|
|
|
|
|
|
|
1 |
1 |
|
|
|
2 |
RF QPD |
|
|
2 |
2 |
2 |
2 |
|
|
|
2 |
|
|
10 |
DC QPD |
|
|
|
|
|
|
|
1 |
1 |
|
1 |
|
3 |
Beam dump |
|
|
|
|
|
|
|
|
|
|
|
|
|
For laser tabel:
Item |
|
Laser |
FSS REFL |
FSST |
PMC REFL |
PMCT |
MZT1 |
MZT2 |
ISS |
|
Total |
|
|
|
|
|
|
|
|
|
|
|
|
CCD |
|
|
|
|
1 |
1 |
1 |
1 |
|
|
4 |
RF PD |
|
|
1 |
|
1 |
|
1 |
|
|
|
3 |
DC PD |
|
2 |
|
1 |
1 |
1 |
|
1 |
1 |
|
5 |
DC QPD |
|
|
|
|
|
1 |
|
1 |
|
|
|
Beam dump |
|
|
|
|
|
|
|
|
|
|
|