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Temperature regulation and measurements Temperature regulation and measurements

Temperature regulation and measurements - PowerPoint Presentation

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Temperature regulation and measurements - PPT Presentation

on silicon detectors with red amp infrared laser beams An internship with the SSD Team PHDTDD Annika Altwein 1 agenda Set up Components PID controller Measuring data Further options ID: 286818

annika altwein controller plot altwein annika plot controller temperature pid set case reaction www current red errors side regelung grundlagen present error

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Slide1

Temperature regulation and measurements on silicon detectors with red & infrared laser beams

An internship with the SSD Team (PH-DT-DD)

Annika Altwein

1Slide2

agenda

Set upComponentsPID controllerMeasuring dataFurther optionsTCT measurements

SettingMeasuring datasources

Annika Altwein

2Slide3

Set up

Annika Altwein

3Slide4

Control engineering

Annika Altwein

4Slide5

Inside the box

Annika Altwein

5Slide6

Temperature control system

Annika Altwein

6Slide7

How does it work

Annika Altwein

7Slide8

Peltier element

http://home.arcor.de/glaube.u/spf-modul/images/tem_3.png

Annika Altwein

8Slide9

PID ControllerTemperature controlSet

to the inertia of the systemreach set temperature as fast as possible

compensates disturbances/ errors

Annika Altwein

9Slide10

PID Controller

Three parameters for the controller:P (proportional)–controller  focusses on present variance

Reacts immediately

only reaction in case of present error

I

(

i

ntegral)–controller  eliminating steady-state deviation

Delayed reaction

No impact only in case of constant value without deviation

D

(

d

erivative)–controller  prediction due to current change

Fast reaction

Reacts only to changes, not to deviations in general

Annika Altwein

10Slide11

functioning

Weighting of the parameters specific contributions will be summated

 

P

I

D

Annika Altwein

11Slide12

What it should look like

time

Current value/

Set value

https://sp.yimg.com/ib/th?id=JN.Wvn5%2bDHe%2bNcYiS0EA7aP0w&pid=15.1&P=0

Annika Altwein

12Slide13

How does it look

Annika Altwein

13Slide14

Further optionsFind out specific parameters due to curve tracing

Brute-force-method to find fitting valuesbigger project than expected, needs more time

Annika Altwein

14Slide15

TCT measurementsConnection between fluence and charge

measurements with a set of irradiated sensors and laser beamscomparing the induced current signal caused by charge carriers

Annika Altwein

15Slide16

main idea

Annika Altwein

16Slide17

red laser from both sides

C_Gallrapp_EIRO2013

Annika Altwein

17Slide18

Radiation with infrared

Annika Altwein

18Slide19

Radiated sensors

Name

Fluence (

)

4 (in

the

plot

)

Non-

irradiated

A2B (in

the

plot

)

B2B (in

the

plot

)

C1A

D1 (in

the

plot

)

E1

O1A (in

the

plot

)

Name

4 (in

the

plot

)

Non-

irradiated

A2B (in

the

plot

)

B2B (in

the

plot

)

C1A

D1 (in

the

plot

)

E1

O1A (in

the

plot

)

Proton

irradiated

, PS 24GeV/c

Float

Zone n-in-p

Annika Altwein

19Slide20

Infra-red from front side (1000V)Annika Altwein

20Slide21

Red from back side (1000V)Annika Altwein

21Slide22

Annika Altwein

22Slide23

Infrared from front side

Annika Altwein

23

full

depletionSlide24

Thank you

Sascha

for the

organization and Christian and the SSD group for my

great

internship

Annika Altwein

24Slide25

Sources

https://www.samson.de/pdf_de/l102de.pdf

http://www.chemgapedia.de/vsengine/vlu/vsc/de/ch/7/tc/regelung/grundlagen/regelung_grundlagen.vlu/Page/vsc/de/ch/7/tc/regelung/grundlagen/regler/pid_ctrl.vscml.html

http://www.physik.uni-augsburg.de/~sausemar/FP14/FP14.pdf

http://en.wikipedia.org/wiki/PID_controller

http://www.hephy.at/fileadmin/user_upload/Publikationen/thesis_auzinger.pdf

Christian

Gallrapp

Own measurements

Pictures: own pictures (if not documented differently)

Annika Altwein

25Slide26

P-controllerReaction in case of current error

reacts immediatly

Grave errors – strong reaction,

little errors– little reaction

Annika Altwein

26Slide27

I-Controllerfocusses on preceded errors

delayed reactionStrong reaction in case of short times of integration, long times of integration lead to less reactionOnly put out of the running if measured value constant and no error left

Annika Altwein

27Slide28

D-controllerFocusses only on present change of error, anticipates development

fast reactionHigh rate of change leads to strong counteraction

Responds only to changes, not in case of constant errors (put out of the running)

Annika Altwein

28Slide29

componentssensor

should have certain temperature for measurementSensor of temperature measures temperature on different positionsPeltier

warms up/ cools down copper platecooling cools down one side of the

Peltier

Copper plate

conducts temperature to detector

Annika Altwein

29