Instruments and Equipments

Some Important Parameters

Dipole vacuum chamber width is [math] 17 \pm 0.5 [/math] mm

Magnets

Type 1 Quad (also Quad2A )

Measurement on Magnetic field as a function of current dB/dI

Data File: File:Magnet T1Quad data.txt

ROOTSYS file to analyze this data, create figure and fit: File:Magnet T1Quad cpp.C

Figure and Fit:

File:T1Quad.pdf

Type 2 Quad (also Quad2T )

Measurement on Magnetic field as a function of current dB/dI

The thickness of Quad2T (include magnetic shielding) is 15 cm.

Length of the pole face of Quad2T in z direction is 8 cm.

Data File: File:Magnet T2Quad data.txt

ROOTSYS file to analyze this data, create figure and fit: File:Magnet T2Quad cpp.C

Figure and Fit:

File:T2Quad.pdf

Magnet Mappings

Dr. Chouffani's Note

File:Magnet Mappings.pdf

Kiwi Dipole Mappings

Mapping of Quadruple Magnets

Second Mapping of Quadruple Magnets

Power supplies

ZUP

User manuals: File:Zup-user-manual.pdf

Other documents:

File:Zup-2.pdf

File:Zup-3.pdf

GENESYS

File:GenesysTM 750W-1500W-manual.pdf

Flag

Light on the flag

5 VDC. Brown and orange wires are for the light.

Camera on the Flag

12 V. Black and white wires are for the camera.

Air gate on the Flag

Open at 17 V, close at 7 V. Red and green wires are for the air gate.

Red = +17 V and Green = ground?

Green is connected to negative.

Order Power Supplies

Parts	Use	Quantity	Price ($)	Link
18 VDC PS	Flag Air Gate	2-3	$23.5	18V
5 VDC PS	Flag Light	2-3	$14.22/$15.44	5V 1.2A / 5V 2A
12 VDC PS	Flag Camera	1-2	$15.44	12V 0.83A
Female Crimp	Connection	50	$5.80 (for 50)	Female Crimp

Current Camera dimension

Current camera in the flag is placed in the cylindrical tube of the flag. Camera can be slided into the flag, and the distance can be controlled. Camera itself is cylindrical shaped, and placed into a cylindrical tube. The tube has 2 cm of inner diameter and 3 cm of outer diameter. Camera has 2 cm diameter.

JAI Camera

File:CV-A10GE Manual.pdf

http://www.jai.com/SiteCollectionDocuments/Camera_Solutions_Manuals/Guide_JAI-SFNC-CameraSettings.pdf

software download

http://www.jai.com/EN/CameraSolutions/Download/Pages/JAI_SDK_and_control_tool.aspx

http://www.1stvision.com/cameras/gige-camera-accessories.html

Cable

Part Number: CB-AVT-I/O-xx

Color Coding

PIN#               Color
1..................Brown
2..................Red
3..................Orange
4..................Yellow
5..................Green
6..................Blue
7..................Violet
8..................Gray
9..................White
10.................Pink
11.................Light Green
12.................Black
Shell..............Drain Wire

Rev.3 4/6/10

Hardware Triggering The Camera

Pulse signal need to be send to "TTL IN 1" (pin# 6, Blue), "TTL IN 2" (pin# 7, Violet) or "TTL IN 3" (pin# 10, Pink).

At JAI Camera Control Tool, set

c) Acquisition and Trigger COntrol:
"exposure mode" -> "Pulse-width control"

e) Digital I/O:
"Line Selector" -> "Line Source" -> "Hirose TTL In 1" (or In 2 and In3, depending on wich TTL In signal is being sended.)

JAI Camera Control

Controlling the Camera with Labview

169.254.1.106

134.50.203.196

Third Party Software for JAI GigE Vision Cameras:

[1]

National Instruments - JAI GigE Vision cameras are compatible with NI's Vision Acquisition Software and related image processing modules, including integration with the LabVIEW graphical programming environment.

NI Machine Vision Software

[2]

National Instruments has been a leader in machine vision and image processing for nearly a decade and currently supports thousands of different cameras. To acquire, display, save, and monitor images from cameras, use NI Vision Acquisition software, which is included with all NI frame grabbers and sold separately for FireWire and Gigabit Ethernet image acquisition. To process images, NI Vision software comes in two different packages: the Vision Development Module and NI Vision Builder for Automated Inspection (AI). The Vision Development Module is a collection of hundreds of vision functions for programmers using NI LabVIEW, NI LabWindows/CVI, C/C++ or Visual Basic. Vision Builder AI is an interactive software environment for configuring, benchmarking and deploying machine vision applications without programming. Both software packages work with all NI Vision frame grabbers and the NI Compact Vision System.

Labview error message

It looks like the NI software from 2009 was downloaded. There are 2 more recent versions. Perhaps if we use the latest software the error message will go away?

http://joule.ni.com/nidu/cds/view/p/id/2137/lang/en

OTR with Al

File:M.Castellan NIM A357 1995 pp231.pdf

Preferred camera:

http://www.ptgrey.com/products/flea2/flea2.pdf

saves images in ASCI format

OTR

OTR target is 1.25’’ in diameter (31.75 mm). OTR target is 10 [math]\mu m[/math] thick Aluminium.

6 Way Cross

Diameter of the window: 3 inches.

Distance from the 6-way-cross to the floor (Not from the center, but from the bottom window to the floor.): [math]37\frac{1}{4}[/math] inches = 94.615 cm.

The distance from the Center of HRRL beam pipe to the floor is: 106.3 cm

From the center of the 6-way cross to quartz window: 11.685 cm

The distance from the center of the OTR target (also the center of the 6-way cross) to the closest position we place our first lenses is 13 cm.

Edge to edge OTR cone diameter size ([math]4\theta[/math] angle,[math]\theta=\frac{1}{\gamma} = \frac{1}{\frac{10}{0.511}} [/math] ) at this distance is 2.665 cm.

Optics for Emittance Measurement in Feb 2010

Polarizer

Link: [3]

Features

N-BK7 Protective Window AR Coated for Visible Range (400 - 700 nm) High Polarization Efficiency: >99% (see the Plots Tab for Extinction Ratio Data) 0.3 mm Thick Dichroic Polarizing Film Scratch Dig: 40-20

Iris

SM2D25D - Ring-Activated SM2 Iris Diaphragm: [4]

Item #         Minimum Aperture            Maximum Aperture       Mechanism
SM2D25D        Ø1 mm (Ø0.04")              Ø25 mm (Ø0.98")        Ring

Ring actuated Irises are designed for integration into a 60 mm cage assembly, where the movement of a lever actuated iris would be hampered by the cage rods.

Price: $75.50

Lens

Diameter: 5 cm.

We can use 3 lens system to hold image directly at the sensing area of the CCD camera. Sensing are of the JAI CCD camera is 6.49(h) x 4.83 (v) mm and field of view of our interest has a diameter of 1 inch.

Since OTR is placed 45 degree to vertical plane, one of the dimension of the OTR image actually is 1.796 cm. If we put this to vertical dimension of the camera and put the other dimension of image on the horizontal dimension of the camera, the magnifications we need to hold the view of our interest on the 50% of the sensing area of the camera will be:

[math] M_{v} = \frac{d_i}{d_o} = \frac{0.483 \times 0.5}{1.796} = 0.145 [/math]

[math] M_{h} = \frac{d_i}{d_o}= \frac{0.649 \times 0.5 }{2.54} = 0.128 [/math]

HRRL Emittance Optics Lay Out:

In this telescope system magnification will be:

[math] M = \frac{f_2}{f_1} [/math]

So, we need to pick 2 lenses with optical length satisfy above ration. From the lower port of the 6-way cross the the floor is 94.6 cm. So, we have 90 cm place to place our camera system. So, I suggest we order camera with focal lens of 50 cm, 20, and 6, cm. These pieces can produce magnification that is small enough for experiment.

To avoid delay of experiment due to possible miscalculation, it is prudent to order 2 more lenses. One of them should be focusing and other one should be defocusing. In that case we can extend our optics as shown in following 2 figures;

Lenses for Basic Optical System Design:

Code	Quantity	Diameter (inches)	Focal Length (cm)	Coating	Price for Each ($)	link
LB1723-A - N-BK7 Bi-Convex Lens	1	2	6	ARC: 350-700 nm	30	[5]
LB1630-A - N-BK7 Bi-Convex Lens	1	2	10	ARC: 350-700 nm	29	[6]
LB1909-A - N-BK7 Bi-Convex Lens	1	2	50	ARC: 350-700 nm	29	[7]

Sub Total Price: $88

Lenses for Extended Optical System Design (Only for Extended Part):

Code	Quantity	Diameter (inches)	Focal Length (cm)	Price for Each ($)	link
LB1199 - N-BK7 Bi-Convex Lens	1	2	20	29	[8]
LD1613-A - N-BK7 Bi-Concave Lens	1	1	-10	25.90	[9]

Sub Total Price: $ 54.9

Optical Test

Code	Quantity	Diameter	Focal Length (mm)	Price for Each ($)	link
AX76654	1	51 mm	50	12.5	[10]
AX76960	1	51 mm	65	13.5	[11]
AX27361 (6 lens)	1	50 mm	+-167,+-200,+500,-333	11.00	[12]
AX937793	1	50 mm	100	4.1	[13]
AX937795	1	50 mm	200	3	[14]

Sub Total: $44.1 ($30.87, if 30% off)

Cage System ($515.7)

Cage Assembly Rod

Code	Quantity	Length (inches)	Length (cm)	Price for Each ($)	link
ER2	4	2	5.08	5.9	[15]
ER12	4	12	30.48	16.1	[16]
ER18	4	18	45.72	25.1	[17]

Sub Total Price: $188.4

60 mm Cage Plates

Code	Quantity	Price for Each ($)	link
LCP01	3	31.3	[18]
LCP01T	3	35.50	[19]

Sub Total Price: $164.9

Dear Sadiq,
The LCP01T can hold 2" lens.  The maximum thickness for the optics would be 17.8mm (the part in contact with the retaining ring).  
You can find the drawing for the part at http://www.thorlabs.com/Thorcat/21400/21473-E0W.pdf
Please let me know if you have any further questions.
Best Regards
Jeremy Low
Technical Support
Polaris Low drift mirror mount, one of 2000 new products in V20!
Get your catalog at www.thorlabs.com/Catalog 
THORLABS Inc.
T (973) 579-7227 | F (973) 300-3600
www.thorlabs.com
- Show quoted text -

LCP02 - 30 mm to 60 mm Cage Plate Adapter

Code	Quantity	Price for Each ($)	link
LCP02	1	37.8	[20]

Sub Total Price: $37.8

LCP03 - 60 mm Blank Cage Plate

Code	Quantity	Price for Each ($)	link
LCP03	1	32.6	[21]

Sub Total Price: $32.6

Cage Assembly Platforms

Code	Quantity	Price for Each ($)	link
LCPM	1	85.10	[22]

Sub Total Price: $85.1

LCPA1 - 60 mm Cage Alignment Plate

Code	Quantity	Price for Each ($)	link
LCPA1	1	15.3	[23]

Sub Total Price: $15.3

Total for Cage System: $524.1

Imaging System Test

Cage system were constructed, and 3 lenses with focal length of 500 mm, 100 mm, and 65 mm used to take image.

Out most ring on the target has a diameter of 27 mm.

Lights and Laser on

Following images are taken within distance of 45 cm (from target to CCD sensor).

Dr. Kim's suggestion:
Dear Sadiq,
Good Job!
If you have some free time, please would you try to improve brightness of the captured image?
As you can see, the captured rings are somewhat dark now.
If it is needed, you may install a small LED illuminator toward the screen and a light-shielding box around the cage.
The bigger lens are also helpful to improve brightness.
Sincerely yours,
Yujong Kim

Following are images in dark, and laser on the target

Lights on,Laser off

Inner most circle has a diameter of 7 mm.

Lights off,Laser off, Blue LED on

Lights on,Laser off, Blue LED on

Optics for Alinement

4 mirrors (with mounts and stand )

Mount for Ø1" Optics with Visible Laser Quality Mirror

Price: $105.35

http://www.thorlabs.com/thorProduct.cfm?partNumber=KM100-E02

Tot for 4: $421.4

4 (at lest, 6 preferably) Irises (with stand )

Post-Mounted Iris Diaphragm, Ø20.0 mm Max Aperture

Price: $44.00

http://www.thorlabs.com/thorProduct.cfm?partNumber=ID20

Tot for 4: $176

1 focus and 1 defocus lens (with mounts and stand )

N-BK7 Bi-Convex Lenses (AR Coating: 350-700 nm)

http://www.thorlabs.com/thorProduct.cfm?partNumber=LB1945-A

N-BK7 and N-SF11 Bi-Concave Lenses

Price: $29.10

LD1464 - N-BK7 Bi-Concave Lens, Ø25.4 mm, f = -50.0 mm, Uncoated

http://www.thorlabs.com/thorProduct.cfm?partNumber=LD1464

Price: $18.90

Tot: 48

2 Translating Lens Mount for Ø1" Optics

http://www.thorlabs.com/thorProduct.cfm?partNumber=LM1XY

Price: $133.70

For 2: $267.4

1 optical Rail

http://www.thorlabs.com/thorProduct.cfm?partNumber=RLA1200

Price: $69.30

Optical Post

Stainless Steel Optical Posts: Ø1/2", Ø12.7 mm, and Ø12 mm

http://www.thorlabs.com/NewGroupPage9.cfm?ObjectGroup_ID=1266

We Want 4: Ø1/2" x 4" Stainless Steel Optical Post

Price: $5.87

http://www.thorlabs.com/thorProduct.cfm?partNumber=TR4

Tot: 23.48

Ø1/2" Utility Post Holders

http://www.thorlabs.com/NewGroupPage9.cfm?ObjectGroup_ID=1268

We want 10: Post Holder, L = 4.00"

http://www.thorlabs.com/thorProduct.cfm?partNumber=PH4

Price: $9.17

Tot for 8: $91.7

Post Holder Bases

http://www.thorlabs.com/NewGroupPage9.cfm?ObjectGroup_ID=47

2 of BA1 - Mounting Base, 1" x 3" x 3/8" : http://www.thorlabs.com/thorProduct.cfm?partNumber=BA1

Price: $5.60

For 2: $11.2

2 of BA1R - Magnetic Mounting Base, 1" x 3" x 3/8"

Price: $11.20

For 3: $33.6

Total

Element	Quantity	Price ($)	Link
Protected Aluminum Mirror, 3.2 mm Thick	3	$24.90	http://www.thorlabs.us/thorProduct.cfm?partNumber=ME2-G01
Irises	3	$44.00	http://www.thorlabs.com/thorProduct.cfm?partNumber=ID20
Focusing lens	1	29.1	http://www.thorlabs.com/thorProduct.cfm?partNumber=LB1945-A
Defocusing lens	1	18.9	http://www.thorlabs.com/thorProduct.cfm?partNumber=LD1464
Translating Lens Mount	0	133.70	http://www.thorlabs.com/thorProduct.cfm?partNumber=LM1XY
Fixed Ø2" Optical Mount	1	$19.30	http://www.thorlabs.com/thorProduct.cfm?partNumber=FMP2
Optical Rail	1	69.30	http://www.thorlabs.com/thorProduct.cfm?partNumber=RLA1200
Optical Post	7	5.87	http://www.thorlabs.com/thorProduct.cfm?partNumber=TR4
Post Holder	10	9.17	http://www.thorlabs.com/thorProduct.cfm?partNumber=PH4
Post Holder Bases	2	5.60	http://www.thorlabs.com/thorProduct.cfm?partNumber=BA1
Magnetic Mounting Base	4	$11.20	http://www.thorlabs.com/thorProduct.cfm?partNumber=BA1R
Magnetic Base	3	$48.00	http://www.thorlabs.com/thorProduct.cfm?partNumber=MB175

Energy Slit

Danfysik water cooled Slit model 563, document from vendor:

File:DanfysikSlit563 vandor.pdf

Danfysik water cooled Slit model 563:

File:DanfysikSlit563.pdf

Fact Sheet:

File:DanfysikSlit563 FactSheet.pdf

Parts to build control circuit

This list is removed so that Dr. Forest won't get confused.

Slit-Aperture vs. Potentiometer-Resistance

Slits has two side: Copper and White metal. There are resistors connected the bolts on the copper side. White metal side has smaller aperture. Thus white metal side should face up stream of the beam line, since this side define beam aperture.

Copper side - Downstream side

This copper side, this measurement is useless.

Slit aperture size (mm)	Resistance at Potentiometer (k[math] \Omega [/math])
39.78 [math] \pm [/math] 0.1	9.38 [math] \pm [/math] 0.005
37.64 [math] \pm [/math] 0.1	8.97 [math] \pm [/math] 0.005
35.71 [math] \pm [/math] 0.1	8.48 [math] \pm [/math] 0.005
33.76 [math] \pm [/math] 0.1	8.00 [math] \pm [/math] 0.005
31.59 [math] \pm [/math] 0.1	7.49 [math] \pm [/math] 0.005
29.86 [math] \pm [/math] 0.1	7.00 [math] \pm [/math] 0.005
27.62 [math] \pm [/math] 0.1	6.48 [math] \pm [/math] 0.005
25.83 [math] \pm [/math] 0.1	6.00 [math] \pm [/math] 0.005
23.62 [math] \pm [/math] 0.1	5.50 [math] \pm [/math] 0.005
21.57 [math] \pm [/math] 0.1	4.99 [math] \pm [/math] 0.005
19.33 [math] \pm [/math] 0.1	4.50 [math] \pm [/math] 0.005
17.32 [math] \pm [/math] 0.1	3.99 [math] \pm [/math] 0.005
15.22 [math] \pm [/math] 0.1	3.50 [math] \pm [/math] 0.005
12.88 [math] \pm [/math] 0.1	2.99 [math] \pm [/math] 0.005
10.42 [math] \pm [/math] 0.1	2.486 [math] \pm [/math] 0.005
8.66 [math] \pm [/math] 0.1	1.999 [math] \pm [/math] 0.005
This is smallest aperture, yet it is not closed. I don't have tool to measure it.	0.147 [math] \pm [/math] 0.005

White metal side - Upstream side

This side has white metal, has smaller aperture. This aperture closes. This side should face upstream side of the beam line.

Measurement

Slit aperture size (mm)	Resistance at Potentiometer (k[math] \Omega [/math])
37.60 [math] \pm [/math] 0.1	9.40 [math] \pm [/math] 0.01
35.80 [math] \pm [/math] 0.1	9.20 [math] \pm [/math] 0.01
34.95 [math] \pm [/math] 0.1	9.00 [math] \pm [/math] 0.01
34.25 [math] \pm [/math] 0.1	8.80 [math] \pm [/math] 0.01
33.38 [math] \pm [/math] 0.1	8.60 [math] \pm [/math] 0.01
32.49 [math] \pm [/math] 0.1	8.40 [math] \pm [/math] 0.01
31.80 [math] \pm [/math] 0.1	8.20 [math] \pm [/math] 0.01
31.03 [math] \pm [/math] 0.1	8.00 [math] \pm [/math] 0.01
30.37 [math] \pm [/math] 0.1	7.80 [math] \pm [/math] 0.01
29.31 [math] \pm [/math] 0.1	7.60 [math] \pm [/math] 0.01
28.55 [math] \pm [/math] 0.1	7.40 [math] \pm [/math] 0.01
27.69 [math] \pm [/math] 0.1	7.20 [math] \pm [/math] 0.01
26.94 [math] \pm [/math] 0.1	7.00 [math] \pm [/math] 0.01
26.10 [math] \pm [/math] 0.1	6.80 [math] \pm [/math] 0.01
25.33 [math] \pm [/math] 0.1	6.60 [math] \pm [/math] 0.01
24.51 [math] \pm [/math] 0.1	6.40 [math] \pm [/math] 0.01
23.48 [math] \pm [/math] 0.1	6.20 [math] \pm [/math] 0.01
22.66 [math] \pm [/math] 0.1	6.00 [math] \pm [/math] 0.01
(21.91+21.86+21.92,21.99+22.01+21.85+21.87+21.94)/8 = 21.92 [math] \pm [/math] 0.1	5.80 [math] \pm [/math] 0.01
21.43 [math] \pm [/math] 0.1	5.70 [math] \pm [/math] 0.01
21.02 [math] \pm [/math] 0.1	5.60 [math] \pm [/math] 0.01
20.56 [math] \pm [/math] 0.1	5.50 [math] \pm [/math] 0.01
20.26 [math] \pm [/math] 0.1	5.40 [math] \pm [/math] 0.01
19.72 [math] \pm [/math] 0.1	5.30 [math] \pm [/math] 0.01
19.35 [math] \pm [/math] 0.1	5.20 [math] \pm [/math] 0.01
18.91 [math] \pm [/math] 0.1	5.10 [math] \pm [/math] 0.01
18.68 [math] \pm [/math] 0.1	5.00 [math] \pm [/math] 0.01
18.09 [math] \pm [/math] 0.1	4.90 [math] \pm [/math] 0.01
17.83 [math] \pm [/math] 0.1	4.80 [math] \pm [/math] 0.01
17.42 [math] \pm [/math] 0.1	4.70 [math] \pm [/math] 0.01
16.93 [math] \pm [/math] 0.1	4.60 [math] \pm [/math] 0.01
16.47 [math] \pm [/math] 0.1	4.50 [math] \pm [/math] 0.01
16.06 [math] \pm [/math] 0.1	4.40 [math] \pm [/math] 0.01
15.60 [math] \pm [/math] 0.1	4.30 [math] \pm [/math] 0.01
15.23 [math] \pm [/math] 0.1	4.20 [math] \pm [/math] 0.01
14.96 [math] \pm [/math] 0.1	4.10 [math] \pm [/math] 0.01
14.47 [math] \pm [/math] 0.1	4.00 [math] \pm [/math] 0.01

Measurement Data

File:Energy Slit Size-vs-PotReistance.txt

Slit aperture  Resistance at 
size (mm) 	Potentiometer (kΩ)
with error     with error
---------------------------
37.60  0.1 	9.40  0.01
35.80 	0.1 	9.20  0.01
34.95 	0.1 	9.00  0.01
34.25 	0.1 	8.80  0.01
33.38 	0.1 	8.60  0.01
32.49 	0.1 	8.40  0.01
31.80 	0.1 	8.20  0.01
31.03 	0.1 	8.00  0.01
30.37 	0.1 	7.80  0.01
29.31 	0.1 	7.60  0.01
28.55  0.1 	7.40  0.01
27.69 	0.1 	7.20  0.01
26.94 	0.1 	7.00  0.01
26.10 	0.1 	6.80  0.01
25.33  0.1 	6.60  0.01
24.51  0.1 	6.40  0.01
23.48  0.1 	6.20  0.01
22.66  0.1 	6.00  0.01
21.92  0.1 	5.80  0.01
21.43  0.1 	5.70  0.01
21.02  0.1 	5.60  0.01
20.56  0.1 	5.50  0.01
20.26  0.1 	5.40  0.01
19.72  0.1 	5.30  0.01
19.35  0.1 	5.20  0.01
18.91  0.1 	5.10  0.01
18.68  0.1 	5.00  0.01
18.09  0.1 	4.90  0.01
17.83  0.1 	4.80  0.01
17.42  0.1 	4.70  0.01
16.93 	0.1 	4.60  0.01
16.47  0.1 	4.50  0.01
16.06  0.1 	4.40  0.01
15.60 	0.1 	4.30  0.01
15.23  0.1 	4.20  0.01
14.96 	0.1 	4.10  0.01
14.47  0.1 	4.00  0.01

Slit aperture   with their 
size (mm) 	 errors
with 
Resistance at
Potentiometer 
(kΩ)
S(mm)  R(kΩ)  er_S(mm) er_R(kΩ) 
----------------------------   
37.6	9.4	0.1	0.01
35.8	9.2	0.1	0.01
34.95	9	0.1	0.01
34.25	8.8	0.1	0.01
33.38	8.6	0.1	0.01
32.49	8.4	0.1	0.01
31.8	8.2	0.1	0.01
31.03	8	0.1	0.01
30.37	7.8	0.1	0.01
29.31	7.6	0.1	0.01
28.55	7.4	0.1	0.01
27.69	7.2	0.1	0.01
26.94	7	0.1	0.01
26.1	6.8	0.1	0.01
25.33	6.6	0.1	0.01
24.51	6.4	0.1	0.01
23.48	6.2	0.1	0.01
22.66	6	0.1	0.01
21.92	5.8	0.1	0.01
21.43	5.7	0.1	0.01
21.02	5.6	0.1	0.01
20.56	5.5	0.1	0.01
20.26	5.4	0.1	0.01
19.72	5.3	0.1	0.01
19.35	5.2	0.1	0.01
18.91	5.1	0.1	0.01
18.68	5	0.1	0.01
18.09	4.9	0.1	0.01
17.83	4.8	0.1	0.01
17.42	4.7	0.1	0.01
16.93	4.6	0.1	0.01
16.47	4.5	0.1	0.01
16.06	4.4	0.1	0.01
15.6	4.3	0.1	0.01
15.23	4.2	0.1	0.01
14.96	4.1	0.1	0.01
14.47	4	0.1	0.01

Linear Fit for Data

Data for 37.6 mm aperture was excluded from fit because it is far off from the straight line (manufacture claims biggest aperture is 35 mm, could be we are exceeded this value).

S(mm)  R(kΩ)  er_S(mm) er_R(kΩ)   
37.6	9.4	0.1	0.01

Pot resistance vs Aperture size

The fit is:

[math] y = (-2.049 \pm 0.034) + (4.1265 \pm 0.0053)x [/math]

When units are mm for Slitize (S), k[math]\Omega [/math] Resistance (R)

[math] S = (-2.049 \pm 0.034) + (4.1265 \pm 0.0053)R [/math]

Aperture size vs Pot resistance

The fit is:

[math] y = (0.498 \pm 0.031) + (0.2423 \pm 0.0013)x [/math]

or, when units are mm for Slitize (S), k[math]\Omega [/math] Resistance (R)

[math] R = (0.498 \pm 0.031) + (0.2423 \pm 0.0013)S [/math]

LED Display for Aperture Size

[math] S = (-2.049 \pm 0.034) + (4.1265 \pm 0.0053)R [/math]

[math] R_p = (0.498 \pm 0.031) + (0.2423 \pm 0.0013)S [/math]

[math] R_p = 498 + 242.3S [/math]

[math] R_p [/math]: Resistance in the Potentiometer on the Energy Slit.

[math] R_d [/math]: Resistance in the LED display circut.

[math] I = \frac{U}{R_p + R_d} [/math]

[math] R_p + R_d = \frac{U}{I} [/math]

[math] R_p = \frac{U}{I} - R_d [/math]

[math] \frac{U}{I} - 498 - R_d = 242.3 S [/math]

[math] S = \frac{\frac{U}{I} - 498 - R_d}{242.3} [/math]

Voltage Divider

Consider the two resistors in series below

What is the ratio of [math]V_{out}[/math] to [math]V_{in}[/math]

Ohm's Law [math]\Rightarrow[/math]

[math]V_{in} = I{R_1+R_2}[/math]

[math]V_{out} = IR_2[/math]

so

[math]\frac{V_{out}}{V_{in}} = \frac{R_2}{R_1+R_2}[/math]

[math] R_t = R_1 + R_2 [/math]

[math]\frac{V_{out}}{V_{in}} = \frac{R_2}{R_t}[/math]

[math] R_t [/math] is measure: [math]9.30 k \Omega,~ 9.31k \Omega~, 9.28k \Omega [/math]

[math] R_t = 9.296 \pm 0.016[/math]

[math]\frac{V_{out}}{V_{in}} = \frac{R_2}{9.926}[/math]

[math] V_{out} = \frac{R_2}{9.926} V_{in}[/math]

[math] V_{out} = \frac{R_2}{9.926} V_{in}[/math]

[math] R_{p} = 498 + 242.3S [/math]

[math] R_p = R_{2} [/math]

[math] V_{out} = \frac{ 498 + 242.3S }{9926} V_{in}[/math]

Control Circuit

Design:

Old PS

Old Power Supply: Max Current = 0.83 A: This PS does not have sufficient current supply. When we drive motor, we need current of 1 Amp. When the motor just started, current can go up as 1.7~1.8 Amp. So, we need PS with 12 VDC and Max current around 1.7~1.8 Amp.

New PS

Option 1

Price: $16.64.

Input:90 ~ 264VAC.

Output - 1 @ Current (Max): 12 VDC @ 1.67A

Size / Dimension: 3.5" L x 2" W x 0.85" H (89.1mm x 51mm x 21.6mm)

Power (Watts) - Max: 20 W

[24]

Option 2

http://search.digikey.com/us/en/products/ZPSA20-12/285-1747-ND/1766384

Price: $21.93.

Voltage - Output 12V

Number of Outputs 1

Power (Watts) 20W

Applications Commercial

Power Supply Type Switching (Open Frame)

Voltage - Input 85 ~ 264VAC

Mounting Type Chassis Mount

Output - 1 @ Current (Max) 12 VDC @ 1.8A

Size / Dimension 3.5" L x 2" W x 0.79" H (88.9mm x 50.8mm x 20mm)

Original Design:

Digikey order

part	number	link
power supply	1	[25]
12 vdc relay	1	[26]
LED	10	[27]

part	number	link
circuit breaker chip	5	[28]
MOSFET N-channel	5	[29]
zener 5V	10	[30]
capacitor 10uF	5	[31]
capacitor .22uF	5	[32]
resistor 51kohm	5	[33]
resistor 100ohm	5	[34]
resistor 1ohm 5W	5	[35]
resistor 0.036ohm	3	[36]
zener 15 V	5	[37]
diode	5	[38]
MOSFET 70 mohm	5	[39]
solenoid 12V	1	[40]

Final Test

1. When fully closed, shows 0.17-0.18 cm (1.7-1.8 mm). Slit does not close fully, there is very little gap that I couldn't measure. I estimate that is around 1 mm. So, I estimate my error on the energy slit to be 2 mm at maximum.

When switch to close, "Full clos" light is on.

2. Turn the switch to open. Then the reading is getting bigger.

3. When fully opened, the "Full open" light is on. Then we need to put turn the toggle switch to center. The reading shows 3.47 - 3.52 cm (34.7 - 35.2 mm). I measured the distance between two slits. It was 3.5 cm.

I would record my readings with 2 mm error. So, biggest gap between slits would be 3.5 +- 0.2 cm.

Beam Pipe for Quad7

Need to order 2 flanges from Duniway (www.duniway.com):

1. F450-200 R

2. F458-000 N

3rd JLab Flag

The third Jlab flag does not have switch. We can not control remotely with electronically.

Applying pressure to upper gas inlet of the flag will push target holder into the 3-way cross. Without pressure, holder goes back.

We can control by gas pressure. If we have long enough pipe for gas, we can control it remotely.

JLab flag is missing one 458 (10 hole) flange. We need buy it, if we are using it.

Ion Pump

S/N: Z1109053

Model: DSD-020-5125-M

+HV Diode

Ion Pump Connector

Power Supply End

Hv connector power supply end

P/E-10KV

$50

Pump End

Hv connector pump end

V-100-X

$165

FS-105-X Ion Pump High Voltage Connector

Assembly/Connection Instructions

Media:HRRL_Ion_Pump_Connector_Pump-End_Ins.pdf

Power Supply

Varian MiniVac

Model: 929-0191

S/N: 201685

File:Ion pump HV PS Varian MiniVac 929-0191.pdf

HV Cable

We 25 meter (82 feet) long cable from control room to end of beam line the experimental room.

The current cable used on other ion pumps are from Teledyne Reynolds HV Cable.

On the cable it says "Reynolds 169-2269 C Cable". I found the cable from the company, and asked quote for 83 long cable of this kind.

P/N 167-2669 Type“C”
Inner Conductor: 19 strands TPC. AWG 16
Cable Insulation: Clear polyethylene. Dia. 0.118/2.9
Shield: No. 36 AWG.
Jacket: Polyethylene. Dia.: 0.195/4.9
Electrical: Voltage rating: 20 KVDC
Impedance: 31 Ohms
Capacitance: 48.0 PF per ft. nominal
Inductance: 0.061 µH per ft.

Wires

Accelerator side

From control room to the end of the 0 degree beamline, we need about 20 meters of wire.

2 Flags

Each Flag needs 6 wires

2 Flags at accelerator side: There is one wire with 12 small wires inside already.

Energy Slit

Energy slit needs 11 wires: Need to get it from IAC 20 meter long wire.

3rd Flag

Flag at experimental side: Need wire

Experimental Side

From Control room to the where the Annihilation target and ion pump is about 25 meter.

HV Cable

HV Cable for Ion pump.

Annihilation Target Flag

One Flags needs 6 wires.

GigE Vision Camera

GigE Camera

Prosilica GC1290 GigE Vision Camera

S/N: 02-218A-20132

MAC:000F312098

Media:GigE_vision_camera_DataSheet.pdf

Media:GigE_vision_camera_TechMan.pdf

Media:GigE_vision_camera_InstGuide.pdf

Specifications

Start Camera

Start->All Programs-> Allied Vision Technologies

For first time start "GigEIPConfig" to acquire IP addrees.

To use camera start ""GigEViewver".

Triggering

The User Trigger pulse width should be at least three times the width of the Trigger Latency

Trigger latency: 2µs for non-isolated I/O, 10µs for isolated I/O

Trigger jitter: ±20ns for non-isolated I/O, ±0.5µs for isolated I/O

Camera Pin Connections

500 px

Camera In 1 and Camera In 2

Input signals allow the camera to be synchronized to an external event. The camera can be programmed to trigger on the rising edge, falling edge, both edges, or level of this signal. The camera can also be programmed to capture an image at some programmable delay time after the trigger event.

Camera In 1 is isolated and should be used in noisy environments to prevent false triggering due to ground loop noise. Camera In 2 is non-isolated and can be used when a faster trigger is required and when environmental noise is not a problem.

Camera Out 1 and Camera Out 2

These signals only function as outputs and can be configured as follows:

Exposing ----- Corresponds to when camera is integrating light.

Trigger ----- Ready Indicates when the camera will accept a trigger signal.

Trigger ----- Input A relay of the trigger input signal used to “daisy chain” the trigger signal for multiple cameras.

Readout ----- Valid when camera is reading out data. Imaging ----- Valid when camera is exposing or reading out. Strobe ----- Programmable pulse based on one of the above events. GPO ----- User programmable binary output.

Any of the above signals can be set for active high or active low.

Camera Out 1 is isolated and should be used in noisy environments. Camera Out 2 is non- isolated and can be used when environmental noise is not a problem and when faster response is required. Camera Out 1 will require a pull up resistor of greater than 1Kohm to the user’s 5V logic supply. See Trigger Schematics in Addendum for wiring information.

RS-232 RXD and RS-232 TXD

These signals are RS-232 compatible. These signals allow communication from the host system via the Ethernet port to a peripheral device connected to the camera. Note that these signals are not isolated and therefore careful attention should be used when designing cabling in noisy environments. Isolated Ground Isolated Ground must be connected to the user’s external circuit ground if Sync Input 1 or Sync Output 1 is to be used.

Signal Ground

Signal Ground must be connected to the user’s external circuit ground if Camera Input 2 or Camera Output 2 is to be used or if the RS-232 port is to be used. Note that Signal Ground is common with Power Ground however it is good practice to provide a separate ground connection for power and signaling when designing the cabling.

Video Iris

This signal can be used to drive the video input of a video iris lens. See Addendum.

Reserved

These signals are reserved for future use and should be left disconnected.

Positrons