AVANCE DX TWOBAY WIRING - Chemistry · 1997/9/30 · 5. The regulation accuracy of the output need...

AVANCE Wiring

AVANCE 2 Bay ConsoleUser Manual

BRUKER

Version
005

The information in this manual may be altered without notice.

BRUKER accepts no responsibility for actions taken as a resultof use of this manual. BRUKER accepts no liability for any mis-takes contained in the manual, leading to coincidental damage,whether during installation or operation of the instrument. Un-authorised reproduction of manual contents, without writtenpermission from the publishers, or translation into another lan-guage, either in full or in part, is forbidden.

This manual was written by

Francis Durrheimer

Desktop Published by

Stephane Kreiss

© September 30, 1997: Bruker Analytik GmbH

Rheinstetten, Germany

P/N: Z31228DWG-Nr: 899005

Contents

Contents .............................................................. iii

1 Safety Considerations ............................................ 51.1 CE Safety Information ......................................................... 51.2 Power Requirements ........................................................... 51.3 Important Safety Considerations .......................................... 61.4 Switching the Console ON/OFF ........................................... 71.5 Location of the Console Type Shield .................................... 71.6 Bruker Contact .................................................................. 10

2 Declaration of Conformity .....................................11

3 Electrical Power Requirements ............................ 133.1 Introduction ....................................................................... 13

CP MAS .........................................................................143.2 Voltage stabilisers ............................................................. 143.3 UPS .................................................................................. 15

4 Console Configuration ......................................... 17

5 Internal Wiring ...................................................... 21

6 Main Power Wiring................................................ 37

Figures ................................................................ 41

Tables .................................................................. 43

User Manual Version 005 BRUKER iii

Contents

iv BRUKER User Manual Version 005

1Safety Considerations 1

CE Safety Information 1.1

The Spectrometers that are referred to in the Declaration’s of Conformity consistof the following components:

Two Bay Console (refer to figure 4.1 for inside components)

HPPR (preamplifier)

BSMS Keyboard

Shim System and Probehead

These Declaration’s of Conformity do not refer to the following components:

Magnet

NMR Station (Silicon Graphics) with their peripherals.

If present: Temperature Unit (when in it’s own case)

GREAT Unit (when in it’s own case)

MAS Unit

Sample Changer

Power Requirements 1.2

The console can be used with a single phase or triple phase mains supply.

Please refer to the Site Planning Manual for further information.

Details of the wiring for the mains supply can be found in figures 4.2 and 6.1 ofthis manual.

Ò THE CONNECTION OF THE TWO BAY CONSOLE TO THE MAINS POWERSUPPLY MUST BE CARRIED OUT BY SPECIALLY TRAINED TECHNI-CIANS!!!

User Manual Version 005 BRUKER 5 (45)

Safety Considerations

Important Safety Considerations 1.3

Ò ONLY TRAINED PERSONNEL SHOULD POWER AND OPERATE THE IN-STRUMENT!!!

Standard Operation

For standard operation of the console, the console doors and the rear panel mustbe closed to prevent Electromagnetic Interference.

Removing the Rear Panel

To remove the rear panel, loosen the two quick-release screws.

Disconnect the cable to the fan (inside).

Ò Caution: Beware - the fan in the rear panel is still running!!!

Ò Caution: Hold onto the rear panel tightly to prevent it from falling over, or onyour feet!!!

6 (45) BRUKER User Manual Version 005

Switching the Console ON/OFF

Switching the Console ON/OFF 1.4

Figure 1.1. Location of the ON/OFF Switch for the Console

Location of the Console Type Shield 1.5

The shield showing the console type, is located inside the console on the top rightfront corner as you look into the console with the doors open (see the figure be-low).

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Ò IF YOU SHOULD EXPERIENCE ANY PROBLEMS WITH THE CONSOLE, YOUMUST CALL YOUR NEAREST BRUKER SERVICE REPRESENTIVE. DO NOTTRY TO FIX THE PROBLEM YOURSELF!!!



2Declaration of Conformity 2


Declaration of Conformity

DECLARATION OF CONFORMITY

The undermentioned product

conforms to the main requirementsset by the commission for the

Harmonization of Regulations of the EU Member Stateswith regards to electromagnetic compatibility

(EMI 89/336/EWG) and safety (Low Voltage ElectricalEquipment: 72/23/EWG) regulations.

For the assessment the following norms were applied:

EMI: EN 55 011; EN 50 082-1

Safety: EN 61 010-1

Test report UNI KA Documentation: Docu Standard:

Manufacturer’s Name: Bruker Elektronik D-76287 Rheinstetten SADIS F-67166 Wissembourg SAG CH-8117 Fällanden

Declaration approved by:

Dr. Tonio Gianotti Victor Ringeisen Werner Schittenhelm Head of Development Technical Manager Direction

Z350819445 & 9419

AVANCE

NMR Spectrometer AVANCE 2 Bay ConsoleH05130 & H04129

September 1, 1997

3Electrical Power Requirements 3

Introduction 3.1

The power supply for the 750 MHz system is controlled exclusively by the BMPC(Bruker Magnet Pump Control) unit. This unit is described separately in the manu-al entitled “Introduction to site planning for a 750MHz system“.

Table 3.1 lists the power requirements and power consumption of variousAVANCE systems The power consumption quoted, includes the NMR station andgraphics monitor and was measured using 2 amplifiers operating at maximumoutput in cw mode while using the printer plotter. This represents effectively themaximum power consumption possible for a standard AVANCE system. For sys-tems fitted with additional amplifiers allow 300W for each additional amplifier.

A fuse or circuit breaker, 16A slow-blow must be installed on the mains supply(230V/50/60Hz single phase).

When planning the electrical power requirements of your site make provision forextra equipment which you may install e.g. Personal Computers, work stations airconditioning systems, etc.

.

Table 3.1. Power Requirements of Basic System (2 Channels)

System and Amplifiers

Mains SupplyPower

Consumption (kW)

No. of Spare Electrical Outlets

Length of Mains Cable

Avance 2 baywith SE451BLARH100 + BLAX300

230V 50/60 Hz / 16 A single phase or 230V/400V 50/60 Hz / 10 A triple phase

2.6 2 5,5m

Avance 2 baywith solide acc.BLAX1000 + BLAH1000

230V 50/60 / 16A triple phase 5,0 2 5,5 m

Avance 2 bayBLAXH50/100

230V 50/60 Hz / 16 A single phase

2.2 2 5.5 m

Imaging Cabinet 230 V / 50/60 Hz / 16 A single phase Power from AVANCE supply

2.1


Electrical Power Requirements

Each AVANCE cabinet comes supplied with four electrical outlets (230V/10A)which can be used to power standard ancillary equipment. Two outlets are de-signed for the work table (i.e NMR Station) and (optional) accessory cabinet. Theother two outlets are then free. Table 3.2 lists the standard equipment and corre-sponding power source.

The NMR Station and accessory cabinet units should be powered directly fromthe AVANCE cabinet as this minimises grounding problems which might other-wise lead to artifacts. “Optional “means that the unit may be powered either fromthe AVANCE cabinet or from a separate supply.Table 3.3 lists the power require-ments of other equipment which, because of their large power consumption, re-quire power sources separate to that of the AVANCE cabinet.

CP MAS 3.1.1

The power requirements of this unit will depend on the amplifiers that areused.The control unit itself will not use more than 100W.

Voltage stabilisers 3.2

If line voltage fluctuations exceed -10% to +5% a voltage stabiliser must be used.Even if the fluctuations are well within these limits, the purchase of a line condi-tioner may prove to be a good investment. The lifetime of the various electricalcomponents in the spectrometer will be lengthened when the supply is stabilised.When deciding on a stabiliser you should take note of the following:

1. Power Requirement: The stabiliser must be capable of delivering the totalpower requirements of the various units you wish to protect. A surplus capacityof at least 10% is recommended.

2. Remember to take consideration of future equipment that you may decide toinstall.

Table 3.2. Console Powered Units

Unit Power Source

NMR Station/Graphics Monitor AVANCE Cabinet

Micro Imaging Cabinet AVANCE Cabinet

Printer Plotter Optional

Automatic Sample Changer Optional

Table 3.3. Units That Require Separate Power Units

Unit Mains SupplyMaximum

Power Consumption

BCU 05 230V / 50/60 Hz / 16 A single phase 0.45 KW


UPS

3. The stabiliser must of course be compatible with the input voltage, number ofphases and A.C. frequency. Typically the stabilisers can cope with input fluctu-ations of 20%.

4. Output: The NMR units described in this manual normally use 230V/50-60Hz/single phase with the exception of the High Power Cabinet which uses 400V/50-60Hz/triple phase.

5. The regulation accuracy of the output need be no greater than 1% for singlephase and 2% for three phase.

6. Single phase stabilisers use saturated transformers to regulate the voltage andshould have fast response times, typically 10-20 msec. Three phase stabilisershowever use motors and have slower response times.A regulation speed of15V/s is usually sufficient to overcome mains fluctuations in most countries.

7. Other considerations are lifetime, size, noise output and maintenance require-ments.

Ò Contact your local Bruker/Spectrospin office for advice on a voltage stabi-liser suited to your particular system.

If ordering a stabiliser you should specify:

Input voltages.

Number of phases.

Special requirements e.g. output connectors, meters, housing etc.

Details of units and accessories that require protection.

UPS 3.3

Where total interruption of supply occurs frequently, then the customer shouldconsider installing a UPS (Uninterruptable Power Supply) linked to an automaticcut-in generator. This is particularly advisable when long-time experiments are tobe run. While a total loss of power will not damage the spectrometer hardware,NMR data acquired immediately prior to a power cut and which has not beenstored on the computer hard disk may be lost. The difference between UPS sys-tems and a voltage stabiliser is that the UPS system contains a battery back-uppack which will maintain the power supply to the spectrometer for a limited periodafter a total loss of mains supply. Typically the battery back-up will last for up to 10minutes at the rated power. This gives time for a generator to replace the mainspower or for the spectrometer computer to be shut down according to the correctprocedures. Additional battery packs which extend the back-up period to 30 min-utes at the rated power are also available. As well as maintaining supply, the UPSsystem also serves as a line conditioner. Typical output voltages stability are 2%static and dynamic with frequency stability of 1%.

The current requirements of the UPS when recharging batteries (e.g. after a sup-ply failure) is greater the normal. Typically a 7KWA UPS needs 45A during re-charge and the supply must be able to cope with this size of current.

Contact your local Bruker/Spectrospin office for advice on a UPS system suited toyour particular system.


Electrical Power Requirements

NOTE:

1. The power supply to the spectrometer should be "clean" i.e. it should not sharewith air conditioners etc.

2. All mains earths in the lab should be connected together to avoid differences inearth potential. This will avoid problems when, for example, a P.C. poweredexternally is connected to the spectrometer via a RS232 link.

3. Some customers fit RCCB (residual current circuit breakers) to the spectrome-ter supply.These are designed to switch off the supply if there is an imbalancein the current in the live and neutral lines. If these are fitted to an AVANCE se-ries spectrometer then they should be rated at 100mA. The lower value of30mA commonly used is to sensitive for these spectrometers.


4Console Configuration 4


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5Internal Wiring 5


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1234567891011121314151617181920212223242526272829303132333435363738394041424344454647484950

(Standard) (Option)

T NMR2<0> !LOCK HOLD SMA L. Hold

V NMR2<1> !HOMOSPOIL SMB Homospoil Pulse

SMA 2H LO J3SMA J3

SMA CHA HZ03804SMA CHA

SMA CHB HZ03804SMA CHBSMB DDSCH1 4 F1 IN 1 SMA HZ3395

SMB DDSCH2 8 F3 IN 1 SMA HZ3395

SMA LTI1 SYNCH1 5 F1 OUT 1 SMA HZ04057SMA LTI2 SYNCH2 9 F3 OUT 1 SMA HZ04057

SMA LTI01

SMA LTI02

AI1 I HZ03425

AI2 I HZ03425

Z12256 BNCZ12257 N Type

SMA J2

SMA J4

FSMA J7 TGPF0 (SPF0)

80 MHz SMB 80 MHz 80 MHz SMA HZ3395

X NMR<2> SEL !H/F BNC

Z NMR<2> SEL !X/F BNC

SMA RF RF Signal FT Z12256 BNC

NN NMR2<7> RCP PASWITCH D

N RG214N

TRANSM FX N RG214N

TRANSM F19 N RG214N

BB NMR2<4> !Z0 COMP ENABLE SMB

A BLKTR1 (X) (NMR0<0>) BNC

K BLKTR2 (H high) (NMR0<1>) BNCU BLKTR3 (H low) (NMR0<2>) BNCJJ BLKGDX (NMR0<32>) CLL BLKGDY (NMR0<33>) HNN BLKGDZ (NMR0<34>) M

RI1I HZ03804A01I ASCH1

RI2I HZ03804 A02I ASCH2X INRO1I RO1I/TR1 HZ03805

H HIGHRO2I RO2I/TR2 HZ03805

H LOWRO3I RO3I/TR3 HZ03805

H MEDRO4I RO4I/TR4 HZ03805

LO1/2 HZ03425LO J2

BNCFTUNE SMA Z12256

22 MHz SMA HZ04057IF REF

GRGP

10/4 SMA HZ3805SMA J2 10 MHz

SMB FemaleTRIG1 SMB Scan Trigger

44 F1 IN 2 SMASMB DDSCH3

8 F3 IN 2 SMASMB DDSCH4

5 F1 OUT SMAAI1 II FCH3

5 F1 OUT SMAAI2 II FCH4

1 SMA HZ0380410/5

FTUNE

HZ3395

HZ3395

HZ04057

HZ04057

Z1740

EE

RGP ADC1 Only with HADC2C SMB

Only with HADC2 & RX22 EP not connected EP SMA

etof

12

22
R
X
ec.
R
A
M
A
GR

She

DI

NG

10

IRI

EC

L:

W
D
C

2.02.97

KS

T HF

.07.96

KS

T

1
9.95
ST

01
.95
01.0K

fication

27.03

ES

H

Modi

24.10.94

ES

H

Draw

n

27.07.93

FD

U

r lyF1

-No. fo

ing on

NC

E H

artawA

TRANS.

BLAXH50 P

BACKPANEL

Y

TRANS.

26 (4 PDr

AQX AQR

AV

2H LOCK

5)B

RU

KE

RU

ser Man

ual V

ersion

005

POS.

Figure 5.5.

Avance 2 bay R

X22 H

F W

iring Diagram

Page 2

SMB

R01 II HZ03804

MM

}

AS CH3

RC

U

TC

U T

3

TC

U T

4

TC

U T

5

FC

U1

FC

U2

FC

U3

(Opt

ion)

FC

U4

(Opt

ion)

FC

U’s

(O

ptio

n)

RX

22

AS

U1

AS

U2

(Opt

ion)

AS

U’s

(Opt

ion)

RO

UT

ER

1

RO

UT

ER

2(O

ptio

n)

RO

UT

ER

(Opt

ion)

PS

B

SY

NT

HC

H1

SY

NT

HC

H2

BLA

RH

100

1H

(Opt

ion)

BLA

X30

0X

-BB

(Opt

ion)

BLA

X30

0

PE

RIP

H

BU

RN

DY

1

BU

RN

DY

2

SY

NT

H

(Opt

ion)

AM

PLI

FIE

R(O

ptio

n)

TO

P P

AN

EL

(Standard) (Option)

PR

EA

MH

PP

R

TRIGO SMB TRIGO NN

C SMB !TGPCH1 (SP_F1 In)

A SMB BPCH1 (BLNK_F1)

V !TGPPA1 (!SPPAH) R

FCU5 SMB DDSCH5 V

FCH5AI1 III FCH5

FCH6AI2 III FCH6

FCH7AI1 IV FCH7

FCH8AI2 IV FCH8

SWITCH

51525354555657585960616263646566676869707172737475767778798081828384858687888990919293949596979899100

RI3 I RI1 IIA01 II

AS CH4 RI2 IIA02 II

R01 IIRI3 I

R05 I

H SMB !TGPCH2 (SP_F2 In)

E SMB BPCH2 (BLNK_F2)

M SMB !TGPCH3 (SP_F3 In)

!TGPCH1

BPCH1

!TGPCH2

BPCH2

K SMB BPCH3 (BLNK_F3)

!TGPCH3

BPCH3

S SMB !TGPCH4 (SP_F4 In)

P SMB BPCH4 (BLNK_F4)

!TGPCH4

BPCH4

}HZ03428

HZ03428

X !TGPPA2 (!SPPAX) E

Z !TGPPA3 (!SPPAF19) J

FCU6 SMB DDSCH6 BFCU7 SMB DDSCH7 FFCU8 SMB DDSCH8 L

SMA X IN

R10/3 10MHz

Y BLKTR4 (NMR0<3>) (H Med) BNCCC BLKTR5 (NMR0<4>) BNC

BLKTR6 (NMR0<5>) B

J BLKTR7 (NMR0<6>) F

N BLKTR8 (NMR0<7>) L

X BLKTR9 (NMR4<1>) R

Z BLKTR10 (NMR4<2>) V

BB BLKTR11 (NMR4<3>) Z

DD BLKTR12 (NMR4<4>) DD

FF BLKTR13 (NMR4<5>) JJ

JJ BLKTR14 (NMR4<6>) S

MM BLKTR15 (NMR4<7>) W

ASCH5A01 III RI3 II HZ03804

ASCH6A02 III RI1 III HZ03804

ASCH7A01 IV RI2 III HZ03804

ASCH8A02 IV RI3 III HZ03804

RFTR5R05 I

RFTR6R02 II

RFTR7R01 III

RFTR8R02 III

R05 I / TR5

R01 II / TR6

R01 III / TR7

R02 III / TR8

RI1 I

N EXT DWSMB

R EXT EP

SMA SEL 2H/DECL SEL 2H / ! DEC

R04 I / TR4

HZ03804

HZ03804

HZ03804

HZ03806

HZ04057

HZ04057

HZ04057

HZ04057

H5700

H5700

H5700

H5700

etof

22

22
R
X
ec.
R
A
M
A
GR

She

DI

NG

10

IRI

EC

L:

W
D
C

2.02.97

KS

T HF

.09.95

KS

T

1
3.95
U

01
.94
27.0FD

fication

24.10

ES

H

Modi

26.09.94

FD

U

Draw

n

27.07.93

FD

U

r ly2

-No. fo

ing on

NC

EH

F

artawA

Figure 5.6. Backpanel Burndy1 & Burndy2 (RX22)

Table 5.1. Signal Name Burndy1 & Burndy2 (RX22)

COAX CONNECTIONS DC CONNECTIONS

PIN BURNDY 1 BURNDY 2 PIN BURNDY 1 BURNDY 2

B BLKTR6(NMR0<5>) DDSCH6 D

F BLKTR7(NMR0<6>) DDSCH7 J

L BLKTR8(NMR0<7>) DDSCH8 N

R BLKTR9(NMR4<1>) 10MHz T

V BLKTR10(NMR4<2>) DDSCH5 X

Z BLKTR11(NMR4<3>) BB NMR2<8>(FXA)

DD BLKTR12(NMR4<4>) FF NMR2<9>(FXB)

JJ BLKTR13(NMR4<5>) LL

NN TRIG0 A

C BLKGDX(MNR0<32>) E

H BLKGDY(NMR0<33>) K

M BLKGDZ(NMR0<34>) P

S BLKTR14(NMR4<6>) U

W BLKTR15(NMR4<7>) Y

AA MIXCC(option) CC AGND HPPR

HH DGND HPPR

MM

EE

KK +19V HPPR

X

U

AA

Y

BB

CCEEFF

HHKKLL

MM

V

Z

DD

JJ

NN

B

R

L

F

T

N

J

D

P

K

E

C

H

A

M

S

W X

U

AA

Y

BB

CC

EEFF

HHKKLL

MM

V

Z

DD

JJ

NN

B

R

L

F

T

N

J

D

P

K

E

C

H

A

M

S

W

Burndy 1 Burndy 2

HF Contact

DC Contact


Internal Wiring

Figure 5.7. Backpanel Periph. HPPR (RX22)

Table 5.2. Signal Name Periph. HPPR (RX22)

PINCOAX

ConnectionsPIN

DCConnections

D NMR2<7> RCP Paswitch A +19V HPPR

E TGPPA2 (SPPAX) B AGND HPPR

F TGPF0 (SPFO) C +19V HPPR

G RGP H AGND HPPR

J TGPPA3(SPPAF19) K

R TGPA1(SPPAH) L -19V HPPR

M DGND HPPR

N +9V HPPR

U +9V X

V GND X

U V

B

R

L

F

T

N

J

D

P

K

E

C

H

AM

S

G

HF Contact

DC Contact


User M

anu

al Versio

n 005

BR

UK

ER

29 (45)

POS.

Figure 4.3.

AV

AN

CE

2 bay SE

451 DC

Wiring D

iagram P

age 1

123456789

1011121314151617181920212223242526272829303132333435363738394041424344454647484950

AQX

RC

U

TC

U T

2

TC

U T

4

TC

U T

5

FC

U1

F2

FC

U2

F2

FC

U3

F2

(Opt

ion)

FC

U4

F2

(Opt

ion)

FC

U5

F2

(Opt

ion)

FA

DC

BC

133

SE

451

SC

H C

ontr

ol

4 P

hase

Mod

. Co

ntro

l

RX

CC

ont

rol

SM

A’s

BN

C’s

SA

DC

HA

DC

FIL

P/4

M

RX

C

AS

U2

CH

1&

2

AS

U2

CH

3&

4

RO

UT

ER

1

RO

UT

ER

2

AC

B

PS

B

PR

EA

MP

PE

RIP

HH

PP

R

SY

NT

H1

PT

S 6

20

SY

NT

H2

PT

S 6

20

BA

CK

PA

NE

LB

UR

ND

Y 1

DD

FF

+19V HPPR

AGND HPPR

-19V HPPR

DGND HPPR

+9V X

+9V HPPR

GND X

AGND

+19V RX

-19V RX

NMR2<8> (FXA)

NMR2<9> (FXB)

25,13

24,12

23,11

21,9

8

22,10

20

16,4,18,6

17,5

15,3

A,C

B,H

L

M

U

N

V

KK

CC

HH

BB

FF

CC

AQR

19,7+9V RX

FDBL

1 MHz

2 MHz

4 MHz

8 MHz

10 MHz

20 MHz

40 MHz

80 MHz

REN F1 (GND) REMOTE ENABLE

100 MHz

200 MHz

400 MHz

800 MHz

GND F1

FDBL

1 MHz

2 MHz

4 MHz

8 MHz

10 MHz

20 MHz

40 MHz

80 MHz


100 MHz

200 MHz

400 MHz

800 MHz

GND F3

1

23

4

56

7

8

9

10

1112

13

14

15

1

2

3

4

5

6

7

8

9

10

11

12

13

14

15

42

5

6

30

31

50

34

35

7

8

32

33

49

45

50

13

9

10

16

40

41

42

43

44

19

20

15

39

17

18

H5564

if 2 router Z002814

H436

H5570 with 1 Router

67491

67491

HH,MM

J

Y

K

FREQUENCY UNITSE451 3CH

etof

13

451
S
E
ec.
R
A
M
A
GR

She

DI

NG

04

IRI

EC

L:

W
D
C

2.02.97

KS

T

.07.96

KS

T

1
9.95
ST

03
.95
05.0K

fication

28.03

FD

U

Modi

28.09.94

ES

H

Draw

n

12.04.94

FD

U

r ly1

-No. fo

ing on

/DS

XD

C

Part

Draw

DM

X

30 (45)B

RU

KE

RU

ser Man

ual V

ersion

005

POS.

Figure 4.3.

AV

AN

CE

2 bay SE

451 DC

Wiring D

iagram P

age 2

51525354555657585960616263646566676869707172737475767778798081828384858687888990919293949596979899100

AQX

RC

U

TC

U T

2

TC

U T

4

TC

U T

5

FC

U1

F2

FC

U2

F2

FC

U3

F2

(Opt

ion)

FC

U4

F2

(Opt

ion)

FC

U5

F2

(Opt

ion)

BC

133

9 p

ins

cano

nd

aub

SE

451

SC

H C

ontr

ol

4 P

hase

Mod

. Co

ntro

l

RX

CC

ont

rol

SM

A’s

BN

C’s

RX

C2

5 pi

ns c

anon

dau

b

FT

LP/4

M9

pin

s ca

non

dau

b

RX

C

AS

U2

CH

1&

2

AS

U2

CH

3&

4

RO

UT

ER

1

RO

UT

ER

2

AC

B

PS

B

PR

EA

MP

PE

RIP

HH

PP

R

SY

NT

H1

PT

S 6

20

SY

NT

H2

PT

S 6

20(o

ptio

n)

BA

CK

PA

NE

LB

UR

ND

Y 1

AQR

FDBL

1 MHz

2 MHz

4 MHz

8 MHz

10 MHz

20 MHz

40 MHz

80 MHz


100 MHz

200 MHz

400 MHz

800 MHz

GND F4

FDBL

1 MHz

2 MHz

4 MHz

8 MHz

10 MHz

20 MHz

40 MHz

80 MHz


100 MHz

200 MHz

400 MHz

800 MHz

GND F5

1

23

4

56

7

8

9

10

1112

13

14

15

42

5

6

30

31

50

34

35

7

8

32

33

49

45

50

13

9

10

16

40

41

42

43

44

19

20

15

39

17

18

H55641

2

3

4

5

6

7

8

9

10

11

12

13

14

151

2

3

4

5

6

7

8

9

2

15

3

16

4

17

1

22

10

5

2

15

3

16

4

17

1

22

10

5

1

2

3

4

5

6

7

8

9

66750

+19 V

-19 V

AGND

AGND

+9 V

AGND

DGND

DRG1

DRG2

DRG3

DRG4

DRG5

DRG6

DGND

HP/!LP1

HP/!LP2

HP/!LP3

GND

AGND

FREQUENCY UNITSE451 3CH

etof

23

451
S
E
ec.
R
A
M
A
GR

She

DI

NG

04

IRI

EC

L:

W
D
C

2.02.97

KS

T

.09.95

KS

T

1

3.95

U

08
.94
28.0FD

fication

24.10

KS

T

Modi

21.09.94

ES

H

Draw

n

12.04.94

FD

U

r ly2

-No. fo

ing on

DS

XD

C

Part

Draw

DM

X

User M

anu

al Versio

n 005

BR

UK

ER

31 (45)

POS.

Figure 4.3.

AV

AN

CE

2 bay SE

451 DC

Wiring D

iagram P

age 3

101102103104105106107108109110111112113114115116117118119120121122123124125126127128129130131132133134135136137138139140141142143144145146147148149150

SC

SI

Ext

ern

Gra

phic

Con

.

Mou

se P

ort

RS

232

RS

485

10-B

ase

T

AU

I

GIO

Key

bd.

Par

alle

l I/O

Mon

itor

19“

Key

boar

d

Mou

se

Lase

r P

rinte

r

TT

Y00

TT

Y0

1-05

/10

TT

Y06

-09/

20

TT

Y0

1-05

/10

TT

Y06

-09/

20

TT

Y0

2

TT

Y03

TT

Y0

4

TT

Y05

TT

Y0

6

TT

Y07

TT

Y0

8

TT

Y09

RS

485-

TT

Y1

0

RS

485-

TT

Y2

0

RX

C

AC

B

CP

U

LCB

BS

MS

Key

bd.

HP

PR

BV

T 3

000

MA

S

B-H

PC

U

4PH

.MO

D

BG

U2

B-A

CS

Opt

ions

BLA

RH

100(

H)

BLA

X30

0(X

)

BLA

X30

0(Y

)

Bac

kpla

neT

erm

inat

or(H

5167

)

BLA

X30

0

BLA

X30

0

Eth

erne

tN

etw

ork

OptionsAmpl.NMR STATION DESK TOP SGI

ET

H

TT

Y01

AQR BSMS

66137

O00741 (Mouse)

HZ03318HZ04112 Plotter or Terminal

H2606 + 65134 + O00594

67492O00132 (KEYBD.) + O00304 (Adapter)

67492HZ04161 (KERMIT)

Z2742

22885 + 65562

Z12321 + 65562HZ04054

HZ04054

HZ04054

HZ04055 (if no solid)

HZ04050HZ04052 BARCODE PRINTER

22887 + 67589

HZ04460 + H5167 (TERMINATOR)

66138 SCSI DRIVE

H2606 + 65134 + O00594

HZ04459HZ04459 + H5167 (Terminator)

AQXAQX RS232/485 Extension UnitCCU

(use with Solid) HZ04053

H5488 (only with solid)

HZ04055 (only if solid)

HZ04459

HZ04458

etof

33

451
S
E
ec.
R
A
M
A
GR

She

DI

NG

04

IRI

EC

L:

W
D
C

2.02.97

KS

T

.09.95

KS

T

1
3.95
U

08
.94
28.0FD

fication

24.10

ES

H

Modi

28.09.94

ES

H

Draw

n

12.03.94

FD

U

r ly3

-No. fo

ing on

/DS

XD

C

Part

Draw

DM

X

32 (45)B

RU

KE

RU

ser Man

ual V

ersion

005

POS.

Figure 4.3.

AV

AN

CE

2 bay SE

451 HF

Wiring D

iagram P

age 1

Z12256 2H REC

AQX AQR

TC

U T

3

TC

U T

4

TC

U T

5

FC

U1

FC

U2

FC

U3

FC

U4

(Opt

ion)

FC

U5

(op

tion

)

FA

DC

BC

133

SE

451

SC

H C

ontr

ol

4 P

hase

M

OD

. C

ontr

ol.

SM

A’s

BN

C’s

SA

DC

or

HA

DC

FT

LP/4

M

RX

C

AS

U 2

CH

. 1

& 2

2H

LO

C S

WIT

CH

(op

tion

)

SLC

B

SC

B 1

3R

LC

B

LT

X

LR

X

SY

NT

H 1

PT

S 6

20

SY

NT

H 2

PT

S 6

20 (

optio

n)

BLA

RH

100

PE

RIP

HB

UR

ND

Y

HO

US

ING

BU

RN

DY

1

123456789

1011121314151617181920212223242526272829303132333435363738394041424344454647484950

BSMS PREAMPHPPR

T NMR2<0> !LOCK HOLD SMA L. Hold

V NMR2<1> !HOMOSPOIL SMB Homospoil Pulse

SMA 2H LO J3SMA J3

SMA CHA inHZ03805 SMA CHA BB Out

SMA CHB in

SMB

SMB

SMB

SYNCH2 HZ03808F2 (FH) Synth

10 MHz in

F

SPFO F

X NMR2<2> SEL ! H/F

Z BNC

10MHz in

BNC

BB

TRIG0TRIG0

!Z0 COMP ENABLE

NN

SCAN TRIGGER)

SEL 2H/!DECTGPCH1 SMB TGPCH1 (SP_F1 in)

BackPanel

FREQUENCY UNITSE 451

CHA BB

CHB BB

HZ03805 SMA CHB BB Out

SMA CHA inHZ03805 SMA CHA OutSMA CHB in

CHA

CHB HZ03805 SMA CHB Out

RGPa (EPa) SMB EPA_SE 451

HZ04057

HZ04057

SMA CHA in

SMA CHB in

SMA CHA Out BB

SMA CHB Out BB

RGPb (EPb)

L

SMB EPB_SE 451H

SMB EP_HPPR GRGPc (EPc)

F1 IN I (X) BNC

F2 IN I (H) BNC

F3 IN I (Y) BNC

H5628

H5628

H5628

H5628H5628

SMB

SMB

DDSCH1

DDSCH2

DDSCH3

DDSCH4

DDSCH5F1 IN ii BNC

F3 IN ii BNC

HZ03808

HZ03808

HZ03808

F1 OUT I (X) BNC

F2 OUT I (H) BNC

F3 OUT I (Y) BNCSMA J2

10MHz OUT /5 BNC

SYNCH1

SYNCH3

F1 (FX) Synth

F3 (FY) Synth10MHz

10MHz Ext Ref

SMA J2 BNC

Z12257 2H TR N TypeSMA J4

SMA J7

80 out BNC80MHz SMB

NMR2<3> SEL ! X/F

80MHz H5628

10MHz outH5369

SMB

SMBTRIG1

D

NNSMB

SMB female

NMR2<7> !RCP PASWITCH

SMA SEL 2H/DECL

BPCH1

TGPCH2

BPCH2

TGPCH3

BPCH3

TGPCH4

BPCH4TGPCH5

BPCH5

!TGPCH1a (SPF1a CHX)

!OBS CH1 (CHX)

SMB BPCH1 (BLNK_F1)

M

W

S

R

C

A

H

E

M

K

S

P

W

U

D

J

N

B

ZF

VL

!TGPCH2a (SPF2a CHH)

!TGPCH3a (SPF3a CHY)

!OBS CH2 (CHH)

!OBS CH3 (CHY)

SMB TGPCH2 (SP_F2 in)

SMB BPCH2 (BLNK_F2)

SMB BPCH3 (BLNK_F3)

SMB BPCH4 (BLNK_F4)



SMB BPCH5 (BLNK_F5)


HZ03428

HZ03429

HZ03430

}}

}

EE Only with HADC2 & RX22 EP not Connected

RGP ADC1 Only with HADC2C SMB

etof

13

451
S
E
ec.
R
A
M
A
GR

She

DI

NG

04

IRI

EC

L:

WF

DC

2.02.97

KS

T H

.07.96

KS

T

1
9.95
ST

03
.95
14.0K

fication

28.03

FD

U

Modi

24.10.94

ES

H

Draw

n

12.04.94

FD

U

r ly1

-No. fo

ing on

/DS

XH

F

Part

Draw

DM

X

User M

anu

al Versio

n 005

BR

UK

ER

33 (45)

POS.

Figure 4.3.

AV

AN

CE

2 bay SE

451 HF

Wiring D

iagram P

age 2AQX AQR

TC

U T

3

TC

U T

4

TC

U T

5

FC

U1

FC

U2

FC

U3

RC

U

FA

DC

BC

133

SE

451

SC

H C

ontr

ol

4 P

hase

M

OD

. C

ontr

ol.

SM

A’s

BN

C’s

FT

LP/4

M

AS

U 2

CH

.1&

2

AS

U 2

CH

.3&

4

RO

UT

ER

1

RO

UT

ER

2

4 P

H. M

OD

. IC

ON

T. I

N

4 P

H. M

OD

. II

CO

NT

. OU

T

SY

NT

H1

PT

S 6

20

SY

NT

H2

PT

S 6

20(O

ptio

n)

BLA

X 3

00

X

BLA

RH

100

1H

BLA

X 3

00

Y

PE

RIP

HB

UR

ND

Y

HO

US

ING

BLA

X Z

51525354555657585960616263646566676869707172737475767778798081828384858687888990919293949596979899100

PREAMPHPPR

V ! TGPPA1 (!SPPAH)

X

F1 OUT

FCH1 (FX)

AMPLFREQUENCY UNITSE 451 3CH

PH1CH1

PH(X) CH2

A

BLKTR1 (X) (NMR0<0>) BNC

73506 + HZ03805 F1 (FX) OUT

HZ03808FCH4

SMA

DD

SMB EXT DWNMR8<5> EXT DW

Z

R

E

J

BNC

BNC

BNC

BNC

BNC

B

H

J

P

R

J

M

H

L

U

W

P

T

J

M

H

L

U

W

P

T

PH2CH1

PH1CH2

PH2CH2

PH1CH3

PH2CH3

! TGPPA2 (!SPPAX)

! TGPPA3 (!SPPAF19)

PH(Y) CH2PH(X) CH1

PH(Y) CH1

PH(X) CH3

PH(Y) CH3

SINCOS

SMB PH1

SMB PH1

SMB PH1

SMB PH2

SMB PH2

SMB PH2

A

K

U

Y

CC

BLKTR2 (H high) (NMR0<1>)

BLKTR3 (H low) (NMR0<2>)

BLKTR4 (H med) (NMR0<3>)

BLKTR5 (Y) (NMR0<4>)RF SIGNAL (FT) Z12256

73506 + HZ03805 F2 (FH) OUT

73506 + HZ03805 F3 (FY) OUT

FCH2 (FH)

FCH3 (FY)

AI1

AI2

AI1

5dB att.

AI2

AO1

AO2

AO1

AO2

HZ03804

HZ03804

HZ03804

HZ03804

HZ03804

RI1

RI2

RI1

RI2

RO1

RO1

RO2

RO3

RO4

RO5

RI3

ASCH2

ASCH1

ASCH3

ASCH4

HZ03805

HZ03805

HZ03806

HZ03805

HZ03805

RO1I/TR1

RO2I/TR2

RO3I/TR3

RO4I/TR4

RO5I/TR5

SMA X in

SMA H high

SMA H low

SMA H med

SMA TUNE OUT

SMB EXT EPNMR8<6> EXT EP

NMR2<0> T!0/F (TUNE !ON/OFF)MM

N

R

Z12256

SMA X in

BNC

HPPR X-BB

HPPR 19F

HPPR 1H

HPPR Y

TUNING

AMPL. X

AMPL. 19F

AMPL. 1H

AMPL. Y

N TYPE X BLAN TYPE X out

N TYPE X QNP

N TYPE 19F

N TYPE 1H

N TYPE Y

T990 (Option)

Z2739

Z2739

Z2739

Z2739

etof

2 3

451
S
E
ec.
R
A
M
A
GR

She

DI

NG

04

IRI

EC

L:

W
D
C

2.02.97

KS

T

HF

.09.95

KS

T

1
3.95
U

19
.94
28.0FD

fication

24.10

ES

H

Modi

26.09.94

ES

H

Draw

n

12.04.94

FD

U

r ly2

-No. fo

ing on

/DS

XH

F

Part

Draw

DM

X

34 (45)B

RU

KE

RU

ser Man

ual V

ersion

005

POS.

Figure 4.3.

AV

AN

CE

2 bay SE

451 HF

Wiring D

iagram P

age 3AQX AQR

TC

U T

3

TC

U T

4

TC

U T

5

FC

U1

FC

U2

FC

U’s

RC

U

FA

DC

BC

133

SE

451

SC

H C

ontr

ol

4 P

hase

M

OD

. C

ontr

ol.

RX

CC

ont

rol

BN

C’s

SM

A’s

FT

LP/4

M

AS

U 2

CH

.1&

2

AS

U 2

CH

.3&

4

AS

U’s

(Opt

ion)

RO

UT

ER

1

RO

UT

ER

2

RO

UT

ER

(Opt

ion)

4 P

H. M

OD

. IC

ON

T. I

N

4 P

H. M

OD

. II

CO

NT

. OU

T

SY

NT

H1

PT

S 6

20

SY

NT

H2

PT

S 6

20(O

ptio

n)

PE

RIP

HB

UR

ND

Y

HO

US

ING

BU

RN

DY

1

BU

RN

DY

2

SY

NT

H.

(Opt

ion)

AM

PLI

FIE

R(O

ptio

n)

101102103104105106107108109110111112113114115116117118119120121122123124125126127128129130131132133134135136137138139140141142143144145146147148149150

PREAMPHPPR

JJ BLKGDX (NMR0<32>)

LL

FREQUENCY UNITSE 451 3CH

10MHz

NN

C

H

M

AI1 III

10/3

RFTR6

ASCH6

BLKGDY (NMR0<33>)

BLKGDZ (NMR0<34>)

MM BLKTR6 (NMR0<5>)

J

N

B

F

L

BLKTR7 (NMR0<6>)

BLKTR8 (NMR0<7>)

X BLKTR9 (NMR4<1>)

Z

BB

R

V

DD

BLKTR10 (NMR4<2>)

BLKTR11 (NMR4<3>)

DD BLKTR12 (NMR4<4>)

FF

JJ

JJ

S

W

BLKTR13 (NMR4<5>)

BLKTR14 (NMR4<6>)

MM BLKTR15 (NMR4<7>)

FCU6 SMB

Z

B

F

DDSCH6

L

FCU7 SMB

FCU8 SMB

R

DDSCH7

DDSCH8

FCH6

FCH7

FCH8

AI2 IIIAI1 IV

AO1 III

AO2 III

AO1 IV

HZ04091

HZ04091

HZ04091

FCU6

FCU7

FCU8

ASCH7

ASCH8

RO2 III

RO1 III

RO2 II

RI3 II

RI1 III

RI2 III

HZ03804

HZ03804

HZ03804

RFTR7RFTR8

H5700

H5700

H5700

RO1 II / TR6

RO1 III / TR7

RO2 III / TR8

BACKPANEL

etof

3 3

451
S
E
ec.
R
A
M
A
GR

She

DI

NG

04

IRI

EC

L:

W
D
C

2.02.97

KS

T HF

.09.95

KS

T

1
3.95
U

19
.94
28.0FD

fication

24.10

ES

H

Modi

20.10.94

ES

H

Draw

n

12.04.94

FD

U

r ly3

-No. fo

ing on

/DS

XH

F

Part

Draw

DM

X


Figure 4.3. Backpanel Burndy1 & Burndy2 (SE451)

Table 4.1. Signal Name Burndy1 & Burndy2 (SE451)

COAX CONNECTIONS DC CONNECTIONS

PIN BURNDY 1 BURNDY 2 PIN BURNDY 1 BURNDY 2

B BLKTR6(NMR0<5<) DDSCH6 D

F BLKTR7(NMR0<6>) DDSCH7 J

L BLKTR8(NMR0<7>) DDSCH8 N

R BLKTR9(NMR4<1>) 10MHz T

V BLKTR10(NMR4<2>) X

Z BLKTR11(NMR4<3>) BB NMR2<8> (FXA)

DD BLKTR12(NMR4<4>) FF NMR2<9> (FXB)

JJ BLKTR13(NMR4<5>) LL

NN TRIG0 A

C BLKGDX(MNR0<32>) E

H BLKGDY(NMR0<33>) K

M BLKGDZ(NMR0<34>) P

S BLKTR14(NMR4<6>) U

W BLKTR15(NMR4<7>) Y

AA MIXCC(option) CC AGND HPPR

HH DGND HPPR

MM

EE

KK +19V HPPR

X

U

AA

Y

BB

CCEEFF

HHKKLL

MM

V

Z

DD

JJ

NN

B

R

L

F

T

N

J

D

P

K

E

C

H

A

M

S

W X

U

AA

Y

BB

CC

EEFF

HHKKLL

MM

V

Z

DD

JJ

NN

B

R

L

F

T

N

J

D

P

K

E

C

H

A

M

S

W

Burndy 1 Burndy 2

HF Contact

DC Contact


Internal Wiring

Figure 4.3. Backpanel Periph. HPPR (SE451)

Table 4.1. Signal Name Periph. HPPR (SE451)

PINCOAX

ConnectionsPIN

DCConnections

D NMR2<7> RCP Paswitch A +19V HPPR

E TGPPA2 (SPPAX) B AGND HPPR

F SPFO C +19V HPPR

G RGPc (EPc) H AGND HPPR

J TGPPA3(SPPAF19) K

R TGPPA1 (SPPAH) L -19V HPPR

M DGND HPPR

N +9V HPPR

U +9V X

V GND X

U V

B

R

L

F

T

N

J

D

P

K

E

C

H

AM

S

G

HF Contact

DC Contact

6Main Power Wiring 6


38 (4

Figure 6.1.

Avance 2 bay console M

ain Pow

er Wiring

7RS�&RQVROH�&DELQHW

HU�&DEOH

3RZHU�&DEOH

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ser Man

ual V

ersion

005

/

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��$� ��

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11 � �

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7UDQVIRUPHU

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'HOD\�6ZLWFK

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6ZLWFK

6RFNHWV

3URWHFWLYH

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7

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0DLQ�3URWHFWLYH�

&LUFXW�%UHDNHU

�

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AC

230V AC

3x230V

��$

��[��$

:

R

U

N

�

7

D

E

O

H

6

S

D

U

H

6

S

D

U

H

$

F

F

H

V

V

R

U

\

�

�

�

�

�

�

�

�

5

D

F

N

Figure 6.2. Avance 2 bay console Power Distribution 230V

NE

UT

RA

LP

HA

SE

Socket

Line

Filter

KST 30.09.97 DIST230V.ds4

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N

LVD

N VD L

NEUTRAL

PHASE

VD

N L

POWER INCABLE 3x2.5 (Shielded )

N VD L

Top Console Cabinet

Console Cabinet

From Protecting Power Avance Console

VD


Main Power Wiring


Figures

1 Safety Considerations 5Figure 1.1. Location of the ON/OFF Switch for the Console .....................7Figure 1.2. Location of Console Type Shield ............................................8Figure 1.3. Location of the Fuses in the Console .....................................9

2 Declaration of Conformity 11

3 Electrical Power Requirements 13

4 Console Configuration 17Figure 4.1. Avance 2 bay console Front View ........................................18Figure 4.2. Avance 2 bay console Rear View .........................................19

5 Internal Wiring 21Figure 5.1. Avance 2 bay RX22 DC Wiring Diagram Page 1 ..................22Figure 5.2. Avance 2 bay RX22 DC Wiring Diagram Page 2 ..................23Figure 5.3. Avance 2 bay RX22 DC Wiring Diagram Page 3 ..................24Figure 5.4. Avance 2 bay RX22 HF Wiring Diagram Page 1 ...................25Figure 5.5. Avance 2 bay RX22 HF Wiring Diagram Page 2 ...................26Figure 5.6. Backpanel Burndy1 & Burndy2 (RX22) ................................27Figure 5.7. Backpanel Periph. HPPR (RX22) .........................................28Figure 4.3. AVANCE 2 bay SE451 DC Wiring Diagram Page 1 ...............29Figure 4.3. AVANCE 2 bay SE451 DC Wiring Diagram Page 2 ...............30Figure 4.3. AVANCE 2 bay SE451 DC Wiring Diagram Page 3 ...............31Figure 4.3. AVANCE 2 bay SE451 HF Wiring Diagram Page 1 ...............32Figure 4.3. AVANCE 2 bay SE451 HF Wiring Diagram Page 2 ...............33Figure 4.3. AVANCE 2 bay SE451 HF Wiring Diagram Page 3 ...............34Figure 4.3. Backpanel Burndy1 & Burndy2 (SE451) ...............................35Figure 4.3. Backpanel Periph. HPPR (SE451) .......................................36

6 Main Power Wiring 37Figure 6.1. Avance 2 bay console Main Power Wiring ............................38Figure 6.2. Avance 2 bay console Power Distribution 230V ...................39


Figures


Tables

1 Safety Considerations 5

2 Declaration of Conformity 11

3 Electrical Power Requirements 13Table 3.1. Power Requirements of Basic System (2 Channels) ....... 13Table 3.2. Console Powered Units .................................................. 14Table 3.3. Units That Require Separate Power Units ...................... 14

4 Console Configuration 17

5 Internal Wiring 21Table 5.1. Signal Name Burndy1 & Burndy2 (RX22) ...................... 27Table 5.2. Signal Name Periph. HPPR (RX22) ................................ 28Table 4.1. Signal Name Burndy1 & Burndy2 (SE451) .................... 35Table 4.1. Signal Name Periph. HPPR (SE451) .............................. 36

6 Main Power Wiring 37


Tables



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AVANCE DX TWOBAY WIRING - Chemistry · 1997/9/30 · 5. The regulation accuracy of the output need...

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Transcript of AVANCE DX TWOBAY WIRING - Chemistry · 1997/9/30 · 5. The regulation accuracy of the output need...