FIDAMAT 5E-P, -AP, -G Gas analyzers for Measurement of ......FIDAMAT 5E-G 15 psig FIDAMAT 5E-P 18 psig Position of use Front panel vertical Change in display through influencing variables

FIDAMAT 5E-P, -AP, -G Gas analyzersfor Measurement of Total Hydrocarbon Content7MB1420-...

Instruction Manual

Order no. C79000-B5276-C131-03

Contents Page

1 Introduction 41.1 General 41.2 Staff Qualifications 4

2 Application 5

3 Design 6

4 Mode of Operation 7

5 Technical Data 8

6 Installation 116.1 Mounting 116.2 Gas Supply 116.3 Electric Connections 12

7 Startup, Calibration 157.1 Startup 157.2 Calibration 157.2.1 FIDAMAT 5E-G without zero and calibration gas connections, FIDAMAT 5E-AP 157.2.2 FIDAMAT 5E-P without zero and calibration gas connections 16

8 Operation 178.1 Description of Control Panel 178.2 Input Example 188.3 Coding and Organization of Operating Function Groups 198.4 Organization of Data Storage 20

9 Warnings and Error Messages 219.1 Warnings 219.2 Faults 22

10 Spare Parts and Accessories 2410.1 FIDAMAT 5E-AP 2410.2 FIDAMAT 5E-P 2610.3 FIDAMAT 5E-G 29

11 Appendix A-111.1 Gas Flow Diagrams A-111.2 Layout Diagrams of Important Electronic Components A-411.3 Summary of Operating Functions A-511.4 Special Sheet for Storage of Current Coding A-23

2

Note

Your attention is drawn to the fact that the contents of this Instruction Manual are not part of aprevious or existing agreement, commitment or statutory right and do not change these. Allcommitments on the part of Siemens are contained in the respective sales contract which alsocontains the complete and solely applicable warranty conditions. These warranty conditions in thecontract are neither extended nor limited by the contents of this Instruction Manual.

Also note that for clarity reasons this Instruction Manual cannot describe every possible problem inconjunction with the use in systems. Should you require further information, or should particularproblems occur which are not handled in sufficient depth in this Manual, help can be requestedthrough your local Siemens office or representative.

Terms with the following meanings are used in this Instruction Manual and in the warning informationon the product:

Danger in the sense of this Manual and the warning information on the product itself means thatdeath, severe personal injury and/or substantial damage to property will occur if the appropriatesafety precautions are not observed.

Warning in the sense of this Manual and the warning information on the product itself means thatdeath, severe personal injury and/or substantial damage to property can occur if the appropriatesafety precautions are not observed.

Caution in the sense of this Manual and the warning information on the product itself means thatslight personal injury and/or damage to property can occur if the appropriate safety precautionsare not observed.

A note in the sense of this Manual is important information on the product or the respective part ofthe Manual to which particular attention should be paid.

3

1 Introduction

1.1 General

Warning! Certain parts in this electrical device contain dangerous voltages duringoperation.

Failure to observe the warnings could therefore result in severe personalinjury and/or damage to property.

Only suitably qualified staff should work on this device or in its vicinity. Theseshould be thoroughly familiar with all warnings and maintenance measuresaccording to this Manual.

Correct and safe operation of this device is dependent on proper handling,installation, operation and maintenance.

This device has left the factory in a perfect condition as regards safety. The notes and warnings inthis Manual must be observed by the user if this state is to be maintained and hazard-free operationof the device assured.

1.2 Staff Qualifications

A qualified person in the sense of this Instruction Manual and the warning information is one whois familiar with the installation, construction and operation of the device and who has the appropriatequalifications, e.g.:

– is trained and authorized to energize, de-energize, ground and tag circuits and devices inaccordance with established safety practices;

– is trained in the proper care and use of protective equipment in accordance with establishedsafety practices;

– is trained in first aid.

4

2 Application

The FIDAMAT 5E is an analyzer for measuring the concentration of total hydrocarbons. It operatesaccording to the principle of flame ionization.

The analyzer is suitable for the measurement of all gaseous hydrocarbons. The connection of aheated line is provided in order to prevent condensation and adsorption in the gas supply line.

Caution! Explosive gas mixtures must not be measured using the FIDAMAT. The ana-lyzer must not be used in potentially explosive atmospheres.

Order No. Device type

7MB1420-5.. FIDAMAT 5E-P rack-mounted device for process measurements, combustion gas H2

7MB1420-7.. FIDAMAT 5E-AP rack-mounted device for car exhaust measurements, combustion gas H2/He

7MB1420-8.. FIDAMAT 5E-G rack-mounted or benchtop devices for measurementsof gases of highest-grade purity,combustion gas H2/He

5

3 Design

The device is available for installation in a 19-inch rack or 19-inch cabinet, the FIDAMAT 5E-G alsoals benchtop unit.

The FIDAMAT comprises two main sections, the analyzer section and the electronics with front panelcontrols.

Analyzer section

The analyzer section consists of the oven with detector chamber and various restrictors. The ovenis accessible from the side to enable modifications or repairs to be carried out in the installedcondition without loosening the electric connections or gas piping connections.

The analyzer section also contains pressure regulators, solenoid valves, pressure sensors and aflow sensor.

Electronics

The electronics consist of the input board which is integrated into the front panel, the motherboardwith preamplifier board and the control board.

The motherboard contains the EPROMs for the software, the EEPROM for the parameter sets andthe switch for the write-protected area on the EEPROM.

6

4 Mode of Operation

Electrons are released when hydrocarbons are combusted in a hydrogen flame. These electronsare collected at an electrode by means of an electric field and measured using a highly sensitiveamplifier. The current is proportional to the quantity of organically-bound C atoms in the samplegas.

The sample gas is passed into the measuring chamber via an obstruction-resistant fused silicarestrictor. The sample gas is mixed in the measuring chamber with hydrogen or hydrogen/he-lium (4:6) or hydrogen and a specific amount of air and routed via the nozzle into the combustionchamber.

The hydrogen pressure is held constant by a pressure regulator. The balanced system of restrictorsand pressure regulators ensures that the sample gas pressure is kept constant.

The FIDAMAT operates largely automatically. If the parameters (pressures, temperatures) are set,the device starts up automatically when switched on and ignites when the setpoint temperature hasbeen reached. The hydrogen and combustion air pressures are measured when switching on, andthe control panel indicates if they are incorrectly set.

1 Flame2 Quartz nozzle3 Combustion air4 Sample gas5 H2/He or H26 Measuring electrode7 Amplifier

Fig. 4 Principle of flame ionization detector (FID)

-200 V DC

6

7

2

3

4

5

1

7

5 Technical Data

Number of measuring ranges Max. 4, freely parameterizable

Switching ratio Optional

Autoranging SelectableHysteresis:– Switchover to larger range at 90 % of span of

smaller range– Switchover to smaller range at 80 % of span of

smaller range

Output signals At terminal strips X1 and X3.A cable with a plug connector (Order No. W79070-U1610-M25) can be connected to these terminal strips

Analog 0/2/4 to 20 mA, max. resolution 0.1 %, max. load 750 Ω

Digital RS232 serial interface as V.24 or TTY (20 mA)

Programming facilities (for setting of device-specific parameters using control panel) Measuring ranges, measured-value storage, time constant, 3-stage code for protection against

unauthorized and unintentional use etc.

Device output see Section 6.3electrical connections

Measured-value display Digital concentration display (5 digits with floating decimal point)

Resolution of digital display 0.1 % of measured value

Ripple of output signal

Response time (T90 time) with time constant 0 s, set using function 13

FIDAMAT 5E rack-mounted unit

FIDAMAT 5E-G as bench top unit

Fig. 5.1 Dimension drawings

465

146 222

483

4

442

430360

Caution! Only mount FIDAMAT 5E on sliding rails or angled rails

Sample gas connection:

1/4" screw connection

Sample gas outlet:

3/8" PVDF screw connection

Auxiliary gas connections:

1/4" screw connecction

All measures are in millimeters (mm)

493 430

334

10

6 Installation

6.1 Mounting

The FIDAMAT 5E should be installed or mounted in a vibration-free location.

Warning! The device must not be used to measure explosive gases. Operation in poten-tially explosive atmospheres is not permitted. The permissible ambient tem-perature (Section 5, Technical Data) must be observed during operation.

The FIDAMAT 5E must only be mounted on sliding rails or angled rails.See Section 5 for dimensional drawings.

6.2 Gas Supply

Warning! When measuring toxic gases, the exhaust gas must be routed such that thereis no danger to the environment. Gases which may lead to explosive mixturesmust not be measured using the FIDAMAT.

A gas-tight hose or steel piping can be used for the sample gas inlet and outlet depending on theappliction, and must be connected leak-free to the gas connection.

The sample gas must be supplied with a pressure of 10 psig (5E-AP) or 15 psig (5E-P, -G), the supplygases with a pressure of 30 psig. The exhaust line from the FIDAMAT 5E must always be routedwith a downward gradient since water condenses in it.

Fig. 6.1 Rear panel of FIDAMAT 5E-AP

X3

X1

comb. air

Mains120 V

sample gas

H2 - He

11

Fig. 6.2 Rear panel of FIDAMAT 5E-P

Fig. 6.3 Rear panel of FIDAMAT 5E-G

6.3 Electric Connections

Warning! The following must be observed for the electric connections:VDE 0100 “Regulations for the installation of power systems with mainsvoltages below 1000 V”.A mains disconnection device must be provided in the building installation(see rating plate for loading capacity).

– Check that the local power supply agrees with that specified on the rating plate of the device.

– Connect the required signal cables to the 25-pin trapezoidal plugs X1 and X3 (FID 5E-AP) orX1, X2 and X3 (FID 5E-P, -G) according to the pin assignment diagrams.

X2

X1

zero gas

Mains120 V/230 V

sample gas H2

X3

cal. gas 1

comb. air

X2

X1

zero gas

Mains120 V/230 V

sample gas

H2

X3

cal. gas 1

comb. air

12

Pin assignment diagram FIDAMAT 5E-P, -G

Measure

CalibrateStatussignal

VacantMR 3

Ready

Not Ready

Measuring range identificationContact closed = MR active

Statussignal

13

12

13

25

24

23

15

22

21

20

19

17

16

14

Analog current –

MR 4

11

10

9

8

2

7

6

5

4

18

3

1

Connection sideDevice side

Pin


PinAnalog current +

MR 2

MR 4

MR 1

X1

X2

Calibrate span (funct. 8)

Calibrate zero (funct. 5)

Analog current –

12 E2

11

10

9

13


Pin

Valve for hydrogen

E1 closed triggers a single autocalibration

E2 closed = E1 is activated13

25

24

23

15

22

21

20

19

18

16

14

No warning


Pin

Warning17Valve for sample gas

Valve for calibration gas 1

E1

Contactopen =valve closed(whenoff)

Ground

Vacant

8

2

7

6

5

4

3

1 Valve for zero gas

X3

25

RXD–

24

10

9

TXD–

TXD+

RXD+

2

7

3

1

TXD

GND

V24

Screen

TTY

RXD

13

Pin assignment diagram FIDAMAT 5E-AP

Calibrate span

Measure

CalibrateStatussignal

Signal contact “Calibrate” (contactopen = calibration being carried out

Calibrate zero

VacantMR 3

Ready

No warning

Measuring range identificationContact closed = MR active

Statussignal

13

12

13

25

24

23

15

22

21

20

19

17

16

14

Analog current –

MR 4

11

10

9

8

2

7

6

5

4

18

3

1PinPin

Analog current +

MR 2

MR 4

MR 1

X1Device side Connection sideDevice sideConnection side

Not Ready

X3

25

RXD–

24

10

9

TXD–

TXD+

RXD+

2

7

3

1

TXD

GND

V24

Screen

TTY

RXD

14

7 Startup, Calibration

7.1 Startup

You should be acquainted with the operation of the FIDAMAT 5! (see Section 8)

A prerequisite for correct startup is the presence of hydrogen/helium or hydrogen and combustionair with the appropriate inlet pressure of 30 psig and the sample gas with an inlet pressure of 10 psig(5E-AP) or 15 psig (5E-P, -G).

The settling time differs depending on the previous use of the device. It should be 2 to 3 hours fordevices which have been used normally. The time is longer for the initial startup or with contaminateddevices.

The device indicates the current software version when the power supply is connected. “Start” thenappears in the display. The device is in the status “Not ready”.

The hydrogen/helium and sample gas/combustion air pressures are checked immediately at thebeginning and when the oven temperatures have been reached. If the device has already been usedcorrectly, the startup is usually carried out without readjustment of the pressure regulators (adjus-table screws on front panel).

If the message “H2" appears in the display, the hydrogen pressure must be adjusted to 1000 mbar(980 to 1020 mbar) by means of function 35 and using the adjustable screw on the front panel. Thedevice automatically returns to ”Start" at the end of function 35.

If the message “Air” appears in the display, it must first be made sure, that combustion air (30 psig)and sample gas (10 psig with FID 5E-AP, 15 psig with FID 5E-P and -G) are supplied with the correctpressures. Then the sample gas pressure (combustion air pressure) inside the device must beadjusted to 340 mbar by means of function 36 and using the adjustable screw on the front panel.The device then automatically returns to “Start”.

Once the temperatures have been reached, the device automatically ignites the flame. If there is anappropriate sample gas pressure (10 psig with FID 5E-AP, 15 psig with FID 5E-P and -G) the deviceautomatically switches to the measure mode. If there is no pressure at all or insufficient pressurethe device switches to the stand-by mode and waits until there is sufficient sample gas pressure.

7.2 Calibration

The calibration should be carried out using gases which represent the gas to be measured as closelyas possible. Zero will always be calibrated using function 5, span using function 8.

7.2.1 FIDAMAT 5E-G without zero and calibration gas connections, FIDAMAT 5E-AP

The calibration is carried out via the sample gas line where the calibration gas pressure must be18 psig (FID 5E-AP) or 15 psig (FID 5E-G). The setpoint for the sensitivity (function 7) must be enteredprior to the calibration. This value can be checked using function 6 - one value must always beentered for function 7. Once the contacts have been closed for longer than 1 sec. the calibration isstarted and finished after approx. 20 sec. The adjustment by floating contacts is only possible in the“meas” mode.

15

7.2.2 FIDAMAT 5E-P without zero and calibration gas connections

The sample gas pressure must be lower than the pressures for zero and calibration gas. Duringcalibration the excess zero and calibration gas flows back through the sample gas line.

16

8 Operation

8.1 Description of Control Panel

Fig. 8.1 Control panel of FIDAMAT 5E

(1) Display of selected measuring range 1 to 4

(2) Large display: concentration display, parameter display, fault display, status display

(3) Small display: display of selected function codes; if the small display is dark, the largedisplay outputs the measured value

(4) Clear key to return to basic status or to delete faulty input

(5) Display of operating states and concentration units:"ppm C1“ etc. = display of concentration unit”warning" = common status for warnings"autocal" = the LED lights up when “autocal” is activated,

the LED flashes during the automatic calibration"lim" = limit value exceeded"not ready" = common status for error messages

(6) Function table for the most important functions

(7) Switchover from measurement to calibration mode and simultaneous signalling of thesestatuses via a contact

2

3

4

C

1

1

8

3

Limit No.

not ready

lim

ppm C6

2

36 Display and adjust sample gas pressure

09 Display limit (lim)

08 Calibrate sensitivity to setpoint

07 Set sensitivity setpoint

06 Display sensitivity setpoint

05 Calibrate zero

02 Display measuring range

01 Switch over measuring range

35 Display and adjust H2 pressure

warning

Manual adjustment

Setpoint

Time

MEAS

Identifier

Range No.

Relay No.

5

CAL

Off/On

ENTER

5

2

8

4

1

CL

6

3

9

79

6

0

7

12

1110

4

autocal

mg/m 3

ppm C3

ppm C1

17

(8) Operator prompting: the corresponding LED flashes here if further inputs are required for the entered functions

(9) Every input must be terminated by the “ENTER” key apart from the code number

(10) Flame monitor: The LED lights up when the flame is alight and goes out when the flame is off.

(11) LED “Autoranging” lights up when the corresponding function (20) is active.

(12) Dot key with the following meaning:– Decimal point– Change of sign when entering values– Start point of code entries

8.2 Input Example

You wish to switch over the measuring range

Every input - apart from the codes - must be terminated by “ENTER”. Press the CL key in the event of a faulty input.

The analyzer is in measurement mode. This means:The green LED lights up for “MEAS” next to “MEAS/CAL”.

Input: .111Since the desired function is in function group 1, it is not necessary to enter any further codes.

Input: press the MEAS/CAL keyThe green LED lights up next to “CAL”.The calibration status is thus signalled via pins 24/25 on plug X1.

Input: 1The 1 appears in the small display and thus confirms the input.

Input: ENTERThe measured value disappears in the large display, and a line appears on the right.The green LED lights up in field 6 in front of “Switch over measuring range”.The green LED simultaneously flashes in front of “Range No.” in field 8 and thus requests theinput of the new range number.

Input: 3Measuring range 3 is selected. The input is output in the large display.

Input: ENTERThe measured value appears in the large display.The LED “3” lights up in field 1 and indicates that range 3 is active.

Input: press the MEAS/CAL keyThe green LED lights up next to “MEAS”.If a control panel is present, the status “Measure” is signalled to it.

18

8.3 Coding and Organization of Operating Function Groups

The functions are combined into groups according to their type:

To prevent important parameters from being deleted or modified by mistake, there are severalfunction levels which can only be accessed using special codes. Note that the decimal point keymust be pressed before entering a code.

The factory settings for the codes of the three levels are:

Level 1 .111Level 2 .222Level 3 .333

The codes can be redefined using function 50. Function 50 also enables the device protection bycodes to be switched off for a certain time or permanently.

Code 1 can also be set to zero so that it is omitted. The CAL key must be pressed to signal anintervention on the device to the control room if applicable.

The device is automatically recoded by pressing the MEAS key.

All operations permissible for a level can be carried out if you are in level 1, 2 or 3. Higher functionlevels also include the lower function levels. For example, from function level 3 you can execute alloperations of levels 0 to 3, and from level 2 all operations of levels 0 to 2.

A description of the operation functions is provided in the appendix.

Function groups

0

1

2

3

Types of function

Display functions

Calibration and adjustment functions

Functions for input of application parameters

Functions for input of device parameters

19

8.4 Organization of Data Storage

The EPROM and the EEPROM contain three parameter sets:Basic factory-set dataUser-specific dataCurrent data.

All parameters required to operate the FIDAMAT 5E are stored in the EPROM and are protected byhardware (basic factory-set data). These data can be loaded into the current parameter memoryusing function 53. The user-specific data set is overwritten in the process, however. The basicfactory-set data can only be overwritten by a hardware intervention.

A second parameter set (user-specific data) is present in an area of the EEPROM which can beoverwritten. The user can store a standard parameter set for his application here (see functions 55and 57).

The third data set (current data) is the set which is automatically loaded when the analyzer isswitched on. This data set is modified according to the inputs. Note therefore when switching offthe analyzer and restarting that it is the current data set which was parameterized when the analyzerwas switched off which is loaded and not the user-specific data set.

Fig. 8.2 Organization of data storage

User-specificdata

EEPROM

Program

RAMEPROM

Basic factory-set data

Currentdata

Currentdata

Function 57

Automaticallywhen required

Restart

Function 53

Function 55

20

9 Warnings and Error Messages

9.1 Warnings

The symbol precedes each warning.

The LED “warning” flashes on the control panel. The cause of the warning can be scanned using“ENTER”. Further measurements are possible in this state. The analyzer may fail if the cause of thewarning is not eliminated.

Number in display

71

73

77

78

79

80

81

82

83

84

86

88

Cause of warning

Pt100 temperature of physical section faultyor outside the limits

Temperature of electronics section outsidethe limits (0 to 80 ˚C) or sensor faulty

Control air flow too low

Temperature of physical section outside thelimits (0 to 80 ̊ C)

Hydrogen pressure outside the limits

Sample gas pressure outside the limits

Flame out

Difference between actual and former zeroadjustment >6 % of full-scale value

Output current 1 used for internal value

Measured value exceeds full-scale value oflargest measuring range

Incorrect device configuration (’autocal’ only)

Incorrect measured value

Causes, notes

The limits defined in function 37have been violated.Hydrogen input pressure is toohigh or too low; this warning mayalso be produced if the limits aretoo close and there are extremevariations in atmosph. pressure.

The limits defined in function 38have been violated.Combustion (control) air press-ure is too high or too low; sam-ple gas inlet faulty (filter lines);this warning may also be pro-duced if the limits are too closeand there are extreme variationsin atmospheric pressure.

See function 62.

Call function 96 to eliminate war-ning.

define full-scale value (funct. 12).

Inform service.

Recalibrate device usingfunction(s) 5 and/or 8.

21

9.2 Faults

The symbol precedes each fault.

The LED “not ready” flashes on the control panel. One of the following error messages appearswhen you press “ENTER”.

Number in display

1

2

3

4

8

9

19

40

44

47

48

49

50

53

57

60

Error message

Slave faulty

Hardware fault

Heating has switched off

EEPROM jumper must be set

Parameter storage test not carried out

EPROM faulty

Sensitivity too low

Oven temperature outside limits or Pt100faulty

Flame monitor faulty

Sample gas pressure too high or too low orpressure sensor faulty

Hydrogen pressure too high or too low orpressure sensor faulty

High-voltage outside limits

Operating voltages outside setpoints

Oven temperature setpoint exceeded orfallen below

Combustion air/sample gas pressure too low

Flame does not ignite (30 min)

Comment

Pull mains plug immediately,inform service

Inform service

RESET

Inform service

See u8, next page

Order replacement from manufacturer

Incorrect calibration gas, incorrect measuring range, see functions 2 and 6

Check contacts

Check contacts

Check cylinder pressure, readjust, check pressure sensor

Check cylinder pressure, readjust, check pressure sensor

Check whether high-voltage lineis connected

Check power supply and con-nections on transformer

Combustion air line interrupted

Check gas flows

22

Number in display

8

234

5

11

12

1516

1718

20

21

22

37

38

200

201

202

203

204

Cause of error

Parameter storage test not carried out

A: Analyzer does not react to ENTER

B: One of the following error numbers is dis-played when you press ENTER. A further num-ber may be displayed when the error has beeneliminated.

Cause

Code 1Code 2Code 3

Assignment of current output 1

Number of measuring ranges

Measuring range

Sensitivity adjustmentSensitivity setpoint

Start-of-scale valueFull-scale value

Limits

Zero

Sensitivity

Limits of time constant T90

Dynamic noise rejection

Baud rate

Transmission procedure

Start, end, don’t care characters

Calibration of analog current

Adjustment of preamplifier

Comment

Press dot key for 30 sec untilfunction 50 appears in the smalldisplay; recode the analyzer.Then reload basic data into RAMusing function 53 or 55.

Correct the value in the corrre-sponding function using the fol-lowing table.

Check/input using function No.

505050

62, identifier 0

51

1

17 7

1112

18 / 19

5

17 / 7 / 8

13

14

80

81

82

Contact service

Contact service

23

10 Spare Parts and Accessories

10.1 FIDAMAT 5E-AP

Order No.

Flame ionization detector, complete C79451-A3405-B578

FID cover complete with thermocouple line C79451-A3405-B501

Quartz nozzle for FIDAMAT 5E-AP C79402-Z1282-C2

Clamping screw in the FID C79211-A3003-C15

Nut for M5 connection C79451-A3040-D126

Outer ring for M5 connection C79451-A3040-D121

Graphite gasket for M5 connection C79451-A3040-D102

Clamping ring for M5 connection C79451-A3040-D112

Nut for M7 x 0.75 connection, tube 1.5 to 3.0 C79451-A3040-D127

Outer ring for M7 x 0.75 connection, tube 1.5 to 3.0 C79451-A3040-D122

Graphite gasket for M7 x 0.75 connection, pipe 1.5 C79451-A3040-D103

Clamping ring for M7 x 0.75 connection, pipe 1.5 C79451-A3040-D113



Coarse filter C79451-A3405-C169

Sample gas restrictor (fused silica), complete, 5E-AP C79451-A3405-B190

Crimp restrictor 1, hydrogen, 5E-AP C79451-A3405-C163

Crimp restrictor 2, combustion air, 5E-AP C79451-A3405-C226

Crimp restrictor 3, auxiliary air, 5E-AP C79451-A3405-C224

Crimp restrictor 4, exhaust, 5E-AP C79451-A3405-C227

Crimp restrictor 5, sample gas, 5E-AP C79451-A3405-C192

Temperature sensor, complete, FID oven and physical section C79451-A3405-B103

Flat heater element, FID oven, top C79451-A3405-B102

Flat heater element, FID oven, bottom C79451-A3405-B101

Cable connector for input signal C79451-A3405-B109

Cable connector for FID voltage C79451-A3405-B110

24

Order No.

Cable connector for pressure sensor for combustion air C79451-A3405-B105

Cable connector for pressure sensor for hydrogen C79451-A3405-B106

Solenoid valve for combustion air, complete C79451-A3040-B210

Solenoid valve for H2, sample gas, combustion air complete C79451-A3040-B206

Solenoid valve for control air, combustion air, H2 C79402-Z871-A5

Gasket, diameter 4 mm C79451-A3040-C331



O-ring, diameter 10 mm F79402-E871-A1

Pressure controller, hydrogen, combustion air/sample gas C79451-A3405-B20

PTFE gasket for M7 x 0.75 connection, tube 1.5 C79451-A3040-D101

Elbow compression gland C75304-Z1209-C2

Union nut for pipe R1/4" available only as set Clamping ring, front, pipe R1/4" of parts, order no.Clamping ring, rear, pipe R1/4" C79451-A3405-D62

Analyzer fuse, T 6.3 A/120 V W79054-L1011-T630

Motherboard C79451-A3405-B507

Preamplifier board C79451-A3405-B508

Control board C79451-A3405-B509

ROM, motherboard position D3, 5E-AP, master S79610-G152-A901

ROM, motherboard position D4, 5E-AP, slave S79610-G152-A902

Display board (front panel) C79451-A3210-A502

Touch pad keyboard with labels, German C79451-A3405-D52

Touch pad keyboard with labels, English C79451-A3405-D53

Touch pad keyboard with labels, French C79451-A3405-D54

Touch pad keyboard with labels, Spanish C79451-A3405-D55

Touch pad keyboard with labels, Italian C79451-A3405-D56

25

10.2 FIDAMAT 5E-P

Order No.



Quartz nozzle for FIDAMAT 5E-P C79402-Z1282-C1










Sample gas filter, complete C79451-A3405-B21

Gasket, sample gas filter C79451-A3405-C43

Gasket, sample gas filter C79451-A3405-C44

Filter cylinder 3 µm C79127-Z970-C1

Spring washer for sample gas filter C79451-A3405-C47

Sample gas restrictor (fused silica), complete, 5E-P C79451-A3405-B173

Crimp restrictor 1, hydrogen, 5E-P C79451-A3405-C152

Crimp restrictor 2, combustion air, 5E-P C79451-A3405-C153

Crimp restrictor 3, auxiliary air, 5E-P C79451-A3405-C154

Crimp restrictor 4, exhaust, 5E-P C79451-A3405-C155

Crimp restrictor 5, zero gas, calibration gas(es), 5E-P C79451-A3405-C223




26

Order No.





Flow monitor C79451-A3407-B53

Solenoid valve for control air, complete C79451-A3405-B210

Solenoid valve for H2, combustion air, complete C79451-A3040-B206

Solenoid valve for zero gas/calibration gas, complete C79451-A3405-B37

Solenoid valve for control air, H2, combustion air C79402-Z871-A5

Solenoid valve for for zero gas, calibration gas C79402-Z871-A7





Pressure controller, hydrogen, combustion air/sample gas C79451-A3405-B20

Union nut for pipe 6 available only as set Clamping ring, front, pipe 6 of parts, order no.Clamping ring, rear, pipe 6 C79451-A3405-D60






27

Order No.




ROM, motherboard D3, 5E-P S79610-G142-A901

ROM, motherboard D4, 5E-P S79610-G142-A902







28

10.3 FIDAMAT 5E-G

Order No.



Quartz nozzle for FIDAMAT 5E-G C79402-Z1282-C1












Coarse filter C79451-A3405-C169

Sample gas restrictor (fused silica), complete, 5E-G C79451-A3405-B174

Crimp restrictor 1, hydrogen, 5E-G C79451-A3405-C152

Crimp restrictor 2, combustion air, 5E-G C79451-A3405-C153

Crimp restrictor 3, auxiliary air, 5E-G C79451-A3405-C222

Crimp restrictor 4, exhaust, 5E-G C79451-A3405-C155

Crimp restrictor 5, sample gas, 5E-G C79451-A3405-C223







29

Order No.


Flow monitor C79451-A3407-B53

Solenoid valve for H2, combustion air, complete C79451-A3040-B206

Solenoid valve for zero gas, calibration gas, sample gas, compl. C79451-A3405-B38

Solenoid valve for control air, H2, C79402-Z871-A5

Solenoid valve for for zero gas, calibration gas, sample gas C79402-Z871-A7





Pressure controller, hydrogen, combustion air, sample gas C79451-A3405-B20


Elbow compression gland, 5E-G C79304-Z1209-C2








ROM, motherboard D3, 5E-G S79610-G168-A901

ROM, motherboard D4, 5E-G S79610-G168-A902


30

Order No.






31

11 Appendix

11.1 Gas Flow Diagram

Fig. 11.1 FIDAMAT 5E-P for process measurements

Measuringchamber

RestrictorFused silica

Pressuresensor

optional

Pressure regulator

Flowmonitor

outlet(atmosphericpressure)

external solenoid valve,controllable viapins 3 and 4 of plug X2

zero gas, inlet pressure 18 psig

Solenoidvalve

Combustion gas(H2/He), inletpressure 30 psig

Solenoid valve

Pressureregulastor

1

2

Solenoid valve

Pressuresensor

combustion air,inlet pressure 30 psig

Restrtictors

calibration gas 1,inlet pressure 18 psig

sample gas,inlet pressure 15 psig

Coarse filter

A-1

Fig. 11.2 FIDAMAT 5E-AP for car exhaust measurements

Measuringchamber


Pressuresensor

Restrtictors

191 ˚C

Pressure regulator

Pressuresensor




Solenoidvalve

Combustion gasinlet pressure 30 psig

Solenoid valve

Pressureregulastor

1

3

2

Solenoid valve

A-2

Fig. 11.3 FIDAMAT 5E-G for measurements of gases of highest-grade purity

Measuringchamber


Pressuresensor

Pressure regulator

Flowmonitor


zero gas, inlet pressure 15 psig

Solenoidvalve

Combustion gas(H2/He), inletpressure 30 psig

Solenoid valve

Pressureregulastor

1

2

Pressuresensor


Restrtictors

calibration gas 1,inlet pressure 15 psig


Coarse filter

A-3

11.2 Layout Diagrams of Important Electronic Components

Fig. 11.4 Motherboard (top) and control board

Control board

Heat sink Potentiometer foradjustment of flow sensor

Terminal strips

Motherboard

Slave

EEPROM protection switch

Master

Cooling rail

A-4

11.3 Summary of Operating Functions

Symbols in the sequence diagrams

Display of set value and possible adjustmnet for a new value.When entering values make sure to enter the sign first!

ENTER key (importing of numbers)

Display output in large display (the measured value is displayed again after approx. 3 s)

Input

Function protected by code 1 (function level 1)

Function protected by codes 1 and 2 (function level 2)

Function protected by codes 1, 2 and 3 (function level 3)

Symbols in the display

Enter identifier

The MEAS/CAL key must be pressed

Illegal code, illegal identifier, non-existent function number entered

Enter code according to function level

Error message

Warning

Remarks

The input can be interrupted at any time using the CL key; the old values are then retained and thesystem returns to the start of the function or partial function.

******

CAL

ILL

cod

A-5

Survey of operating functions

* 96 Switch over between mg/m3 and ppm


* 1 Switch over measuring range

Display and switch over measuring ranges, switch over displayA

* 8 Calibrate sensitivity to setpoint

* 7 Adjust sensiitivity setpoint


* 5 Calibrate zero

Calibration of measuring rangesB

Temperatures, pressures, flow, limits D

* 36 Display, set sample gas pressure

* 35 Display, set H2 or H2/He pressure

** 34 Display, set max. temperature deviation

* 38 Enter tolerance for sample gas pressure

* 37 Enter tolerance for hydrogen or hydrogen/helium pressure

** 20 Autoranging “on/off”

A-6

Time constantsE

Adjustment and calibration functions

*** 73 Compensation of temperature influence on measured value

*** 71 Compensation of temperature influence on zero

** 14 Set dynamic time constant TD (dynamic noise rejection)

** 13 Set time constant T90

Measured-value memory, current output

** 24 Set current output

** 21 Measured-value memory on/off

Redefine measuring ranges

** 12 Define full-scale values of measuring ranges

** 11 Define start-of-scale values of measuring ranges

** 51 Select number of valid measuring ranges

Further display functions

60 Display internal values

15 Display compensated background current (zero calibration)

61 Display measured variables

F

G

I

K

A-7

Reprogram, activate, deactivate codes

*** 78 Suppression of negative measured values

*** 77 Suppression of brief noise signals

69 LED check, software no.

*** 68 RESET

*** 99 Switch analyzer on/off

* 92 Display warnings and brief errors

*** 67 Ignite flame

*** 62 Reproduce internal values on analog signal, channel 1

*** 50 Reprogram, activate/deactivate codes

Test functions, RESET, switch-off

*** 57 Store user-specific data

M

L

*** 53 Load basic factory-set data

** 49 Switch valves individually

* 29 Measure during warm-up phase

*** 55 Load user-specific data


A-8

* 5 Calibrate zero



A

B

A

** 12 Define full-scale values of measuring ranges G

** 11 Define start-of-scale values of measuring ranges G

* 8 Calibrate sensitivity to setpoint B

* 7 Adjust sensitivity setpoint B

6 Display sensitivity setpoint B

D

* 29 Measure during warm-up phase L

** 24 Set current output F

** 21 Measured-value memory on/off F

** 20 Autoranging on/off A

15 Display compensated background current (zero calibration) I

** 14 Set dynamic time constant TD (dynamic noise rejection) E

** 13 Set time constant T90 E


* 35 Display, set H2 or H2/He pressure



* 37 Enter tolerance for hydrogen or hydrogen/helium pressure

D

M

D

G** 51 Select number of valid measuring ranges



D

L

D

A-9



60 Display internal values




*** 73 Compensation of temperature influence on measured value

*** 71 Compensation of temperature influence on zero

*** 67 Ignite flame





69 LED check, software no.

*** 68 RESET

L

L

L

L

L

L

I

I

L

L

L

L

K

K

L

96 Display ∆ zero adjustment

L

* 94 Switch over between mg/m3 and ppm A

A-10

AA Display and switch over measuring ranges

The start-of-scale and full-scale values of the measuring range are output in succession in thedisplay.

There are four measuring ranges. The measu-ring range which is switched on is indicated tothe right of the display. The number of activemeasuring ranges can be defined using function51.The start-of-scale and full-scale values of themeasuring range can be freely selected.

Factory setting: 1


Measuring range No.

CL

1


Display

Measuring range No.

CL

2

This function only applies to the recorder output(see plug connector X1). The current measuredvalue is always output on the display even if itexceeds the current measuring range.The displayed value flashes when the measuringrange(s) is exceeded.

Factory setting: 0

** 20 Autoranging on/off

Manual switchover

Autoranging

0

2 1

CL

0

The LED on the right of the display indicates theconcentration unit of the display.

Factory setting: 0


ppm C3

mg C/m3

3

9

2

CL

4

1

0

ppm C6

ppm C1

A-11

BB Calibration of measuring ranges

Zero gas valve opens after pressing 5 and EN-TER. If there is no such valve, zero gas must befeeded via the sample gas line. After havingpressed the ENTER key once more the calibra-tion will be carried out and the zero gas valve (ifpresent) will be closed.

* 5 Calibrate zero (FIDAMAT 5E-AP only)

5

The setpoint is displayed which was used for thelast calibration. The measuring range in whichthe setpoint is present is output to the right ofthe display.

* 5 Calibrate zero (FIDAMAT 5E-P only)

5 Display

Identifier: 1 = calibration gas 1 for range 1 (to 4)

The setpoint must be reset when the calibrationgas is changed.All four ranges are calibrated using the samecalibration gas.

* 7 Adjust sensitivity setpoint

SetpointIdentifier

7

CL

n

The sequence is analogous to function 5.

A calibration gas is used to calibrate measuringrange 1. The other measuring ranges are alsocalibrated.

* 8 Calibrate sensitivity to setpoint

Prior to the activation of this function zero gasmust be applied via the sample gas input. 20 s.after activation of function 5 the calibration willbe carried out automatically.


Measuring range No.

CL

6 Display

A-12

Temperatures, pressures, flow, limits DD

The entered pressure deviation, usually 30 to100 mbar, specifies the maximum permissibledeviation from the setpoint which has been setusing function 36.A warning is output if the sample gas pressureexceeds or falls below this value.

Factory setting: 30


3

Pressure deviationin mbar (0 - 255)

CL

8

The sample gas pressure is output on the dis-play in mbar and can be adjusted using thebottom screw on the front panel. The technicaldata refer to an overpressure of 340 mbar (FID5E-AP) or 500 mbar (FID 5E-P and 5E-G). The pressures will be less if there is no samplegas or combustion air.


Display 63

The hydrogen/helium pressure is output on thedisplay in mbar and can be adjusted using thetop screw on the front panel. The technical datarefer to an overpressure of 1000 mbar.

* 35 Display, set H2/He or H2 pressure

This function defines how far the oven tempera-tures may deviate upwards or downwards fromthe setpoint temperature. A warning is output ifthe temperature deviates by more than this va-lue for one of the four heaters.

Factory setting: 5


3

temperature deviation in ˚C

2 to 10

CL

4

The entered pressure deviation, usually 50 to100 mbar, specifies the maximum permissibledeviation from the setpoint which has been setusing function 35.A warning is output if the hydrogen pressureexceeds or falls below this value.

Factory setting: 50

* 37 Enter tolerance for hydrogen pressure

3

Pressure deviationin mbar(0 - 255)

CL

7

Display53

A-13

EE

Measured-value memory, current output FF

If the measured-value memory is switched on,the last measured value is stored when the CALkey is pressed. It is then present at the mA outputuntil the analyzer is reset to the measurementstatus by pressing the MEAS key.The measured value is also stored in the displayin the event of an error.

Factory setting: 0

** 21 Measured-value memory on/off

Off

On

0

2 1

CL

1

The time constant TD applies to small changesin signal without a defined range ∆ (in % ofrespective f.s.v.). The time T90 defined infunction 13 applies to larger changes in signal.TD must be larger than T90. In this manner, noiseis optimally suppressed in the case of smallchanges; in the case of larger changes (> ∆ ), the modified signal is recorded faster byautomatic switching over to the time constantT90.

Factory setting: 3.0/1.0

The time constant T90 (0.1 to 100 s) is used toreduce the noise. The signal delay increaseswith increasing T90.

Factory setting: 0.0

** 14 Set dynamic time constant TD (dynamic noiserejection)

** 13 Set time constant T90

4

Identifier ∆ (% of f.s.v.)0.0 to 100.0

CL

1

2

1

TD (0.0 to 100 s)Identifier

Time constants

1

T90 0.0 to 100 seconds

CL

3

Status0 0 to 20 mA1 2 to 20 mA2 4 to 20 mA

Factory setting: 2

CL

4

Status

2

** 24 Set current output

A-14

GG Redefine measuring ranges

The full-scale values can be set as desired. Theonly condition is that the start-of-scale value setusing function 11 is greater than the full-scalevalue set here. The unit displayed when the setting is madeapplies as the unit to the value entered here.

Factory setting: 10/50/200/1000

** 12 Define full-scale values of measuring ranges

CL

Range

21

Full-scale value

The start-of-scale values can be set as desired.The only condition is that the full-scale value setusing function 12 is greater than the start-of-sca-le value set here. The unit displayed when the setting is madeapplies as the unit to the value entered here.

Factory setting: 0

** 11 Define start-of-scale values of measuring ranges

CL

Range

11

Start-of-scale value

The number of valid measuring ranges is se-lected. Autoranging (function 20) only takesplace within the selected ranges.

Identifier:1 = measuring range 12 = measuring ranges 1 and 23 = measuring ranges 1, 2 and 34 = measuring ranges 1, 2, 3 and 4

Factory setting: 4

CL

n

Identifier

5 1

** 51 Select number of valid measuring ranges

A-15

II Further display functions

The current compensated in the zero is display-ed here in pA.

15 Display compensated background current (zero calibration)

Identifier:1 = Oven temperature (100 to 200 ˚C)2 = Physical section temperature

(10 to 60 ˚C)

7 = Flame temperature (230 to 300 ˚C)9 = Temperature of board (10 to 70 ˚C)

11 = Pressure of sample gas/combustion air (mbar abs.)

12 = Hydrogen/helium pressure (~1000 mbar absolute)

14 = FID voltage (200 V)15 = +15 V16 = – 15 V17 = +24 V

Identifier: n =0 = Measured value1 = Raw measured value (pA)2 = Analog current 3 = Current following adjustment of

preamplifier4 = Current following zero adjustment

Terminating this function via CL key sets theidentifier automatically to 0.

Identifier n notequal to 0

6

CL

n

1

Identifier

n


6

CL

Display0

Identifier

* 60 Display internal values

Display51

A-16

KK Adjustment and calibration functions

Iden-tifier Value

1 Basic temperature(Temperature 0)

(Value 2 - Value 0)2 * 1000

(Temp. 2 – Temp. 0)

(Value 0 - Value 1)3 * 1000


Service staff only!

Iden- Setpointtifier

1 Temperature of analyzer section withaverage ambient temperature (in ˚C;see function 60, identifier 2)

2 Change in display with increase in temperature (function 61, identifier 4)

3 Change in display with reduction in temperature (function 61, identifier 4)

Procedure

1. Calibrate zero of basic temperature(function 5)

2. Switch on measuring range 13. Select function 71 and enter a value of

zero for identifiers 2 and 34. Measure (see example)5. Enter identifier and setpoints under

function 71

Caution! Function 71 might influence zero!

*** 71 Compensation of temperature influence onzero

CL

7 1

Identifier value

n

Example:Value 1 with Temp. 1 < Temp. 0

Value 0, 1, 2 is the measured value (asindicated under function 61, identifier 4)

Value 0 with Temp. 0

Value 2 with Temp. 2 > Temp. 0

Zero at average ambient temperature(e. g. 25 ˚C)

A-17

KK Adjustment and calibration functions

Iden-tifier Value

1 Basic temperature(Temperature 0)

(Value 2 - Value 0)2 * 1000


(Value 0 - Value 1)3 * 1000


Service staff only!

Iden- Setpointtifier

1 Temperature of analyzer section withaverage ambient temperature (in ˚C;see function 60, identifier 2)

2 Change in display with increase in temperature

3 Change in display with reduction in temperature

Procedure

1. Calibrate sensitivity at basic temperature (function 8)

2. Switch on measuring range matching the calibration gas used

3. Select function 73 and enter a value of zero for identifiers 2 and 3

4. Measure (see example)5. Enter identifier and setpoints under

function 73

*** 73 Compensation of temperature influence onmeasured value

CL

7 3

Identifier value

n

Example:Value 1 with Temp. 1 < Temp. 0

Value 0 with Temp. 0

Value 2 with Temp. 2 > Temp. 0

Zero at average ambient temperature(e. g. 25 ˚C)

Value 0, 1, 2 is the measured value

A-18

LL


55


75


35


The measured signal can be observed duringthe warming-up phase.

Factory setting: 0

** 29 Measure during warming-up phase

Off

On

0

2 1

CL

9

The various gas valves can be switched indivi-dually independent of the operating mode “au-tocal”.

Identifier:1 = hydrogen/helium or hydrogen2 = combustion air/control air supply3 = control air valve (FID 5E-P, -AP)

sample gas valve (FID 5E-G)4 = zero gas valve (FID 5E-P, -G)5 = calibration gas valve (FID 5E-P, -G)

Note that all valves are closed when off. Thismeans that purging is possible in the switched-off status. It is also possible that a small quantityof air might flow back through the sample gasline.


4

Open

CL

n

Identifier Closed

0

1

9

The application parameters present in the basicdata memory can be transferred to the mainmemory.The device carries out a restart when thisfunction is triggered.

A parameter configuration defined by the usercan be held in the memory. This data set isloaded automatically each time the device isswitched on.

Programming with original data (status whendelivered from factory).Servicing function!The device carries out a restart when thisfunction is triggered.

Identifier: n =

0 = Measured value (depends on actualmeasuring range)

1 = Oven temperature (0 – 300 ˚C)7 = Flame temperature (0 – 800 ˚C)9 = Temperature of board (0 – 80 ˚C)

11 = Pressure of sample gas/combustion air (0 – 3000 mbar abs.)

12 = Hydrogen pressure (0 – 3000 mbar abs.)

14 = FID voltage (0 – 1500 V)15 = +15 V (14 – 16 V)16 = –15 V (–14 – –16 V)17 = +24 V (22 – 26 V)

18/19/20/21/22/23= –1/0/4/10/20/21 mA

24 = raw current (depends on actual measuring range)

Display

CL

6 2Identifier


A-19

LL LL

*** 68 RESET

86

*** 69 LED check, software no.

96

The analyzer attempts to ignite the flame forapprox. 20 minutes.

The ignition process can be terminated by ente-ring “0".

The procedure is terminated automatically whenthe flame is ignited.

Factory setting: 0

*** 67 Ignite flame

Ignition on

Ignition off

1

6 0

CL

7

This function must be used in the event of faultsin the program sequence. The analyzer is set tothe status of the warming-up phase.

The entered time corresponds to a dead timewhich will be effective only if the measured valueexceeds the value entered under function 14,identifier 2. The originally entered value remainsuntil the measured value falls below the valueentered under function 14, identifier 1. If thevalue is 0, the dynamic time constant enteredunder function 14, identifier 2, is active (normaloperation)

Factory setting: 0

CL

7 7

Time in seconds (0.0 to 10.0 s)


All LEDs light up. After 5 seconds, the two soft-ware versions appear in succession in thedisplay.

The display and output of negative values canbe suppressed using this function. The analyzerthen displays a value of 0.00 in these cases.

Factory setting: 0


Negative values are alsodisplayed

No negative values

0

7 1

CL

8


The measured value is displayed if function 92is switched on. The function number 92 appearsin the small display. The measured value isdeleted in the large display when an error oc-curs, and the error code is displayed.

No other function can be called when function92 is active.


Display measured value or

error/warning if present

9

CL

2

A-20

Test functions, RESET, switch-off LL

Identifier 1 switches off the device in a controlledmanner. The hydrogen and sample gas suppliesare interrupted. Combustion air is supplied for afurther 30 seconds.

The device startup is initiated using identifier 0.

Factory setting: 0


Switch off

On

1

9 0

CL

9

This function can be used to automatically com-pare the previous and new zero and sensitivitycalibrations. A warning is output if the differencebetween the two calibrations is > 6 %. Thevalues can be viewed using identifiers 3 and 4.The warning LED is cancelled when function 96is called, and the status signal at plug X2 is setto "No warning" again.

96 Display ∆ of zero adjustment

∆ zero

off

3

9

2

CL

6

1

0

∆ span

ON

A-21

MM Reprogram, activate and deactivate codes

Identifiers

1 = codes are active

2 = codes are not active; all operating functions are freely accessible. The codes are automatically reactivated if a function is not selected within 15 minutes.

3 = codes are permanently inactive. They are activated again by identifier 1.

4 = reprogram codes (see special sheet in appendix).

Factory setting: 1


Identifier

4

5

3

CL

0

2

1

Special operatorprompting

Identifier

Identifier

Identifier

A-22

This sheet should be removed from the Instruction Manual and stored separately.

11.4 Special Sheet for Storage of Current Coding

FIDAMAT 5E gas analyzer

Remarks

*** 50 Reprogram of codes

0 Code 25

05

Smalldisplay

1. Function 50 is only accessible via the current codes (1 to 3)

2. Code 1 is omitted if it is programmed to 000.

3. The current codes can be bypassed using a time function if they are no longer known and thus reprogrammed.

Current codes

Code 2

Press for approx. 30 s

222

Code 3Code 1

Code 1

333111

Code 3

Function and code

FIDAMAT 5E Data Sheet: Parameters and Measured Values

Meas. range

1

2

3

4

Function 11 Function 12 FIDAMAT 5E: ___________

Order no.: ________________________________ _ _ _ _

Fab. no.: _________________________________ _ _ _ _ _ _ _ _ _ _ _ ____

SW Release no.: Master: ______ Slave: _________

Mains voltage: V AC________________________ _ _ _ _ _ _ _ _ _ _ ______

Designation

Internal values in measurementmode

Ambient temperature

= ____________ ˚C

Internal values in stand-bymode

Display measured varisbles (pA)using zero gas

Compensation of temperatureinfluence on zero

Compensation of temperatureinfluence on span

Suppression of noise signals

Suppression of negative measured values

Unit of measured value

Display ∆ zero calibration

Function no.

60, ident. 1

60, ident. 2

60, ident. 3

60, ident. 4

60, ident. 5

60, ident. 6

60, ident. 7

60, ident. 8

60, ident. 9

60, ident. 10

60, ident. 11

60, ident. 12

60, ident. 13

60, ident. 14

60, ident. 10

60, ident. 11

61, ident. 1

71, ident. 1

71, ident. 2

71, ident. 3

73, ident. 1

73, ident. 2

73, ident. 3

77

78 1 on0 off

94

96 1 on0 off

2, 3 values

Parameter/measured value

Designation

Set time constant

Dynamic noisesuppression

Total calibration

Individual calibration

Autoranging

Measured-valuememory

Autocal

Limit monitoring

Current output(mA)

Set temperatureoven ˚C

Set temperaturepump ˚C

Set temperatureheated line ˚C

Set temp. samplegas probe ˚C

Max. temperaturedeviation

Tolerance of H2pressure (mbar)

Tolerance samplegas press. (mbar)

Codes 1/2/3

Number of validmeas. ranges

Function no.

13

14, ident. 1

14, ident. 2

17, ident. 0

17, ident. 1

20 1 on0 off

21 1 on0 off

22 1 on0 off

23 1 on0 off

24

30

31

32

33

34

37

38

50

51

Date Signature

Siemens AGAutomation DivisionProcess AnalyticsAUT V351D-76181 Karlsruhe, Germany

Order No.: C79000-B5276-C131-03Printed in GermanyAG 0698 0.055 Sr 56 En

Siemens Aktiengesellschaft

Subject to technical modifications

Copyright © Siemens AG 1994Progressin Automation.Siemens

FIDAMAT 5E-P, -AP, -G Gas analyzersIntroductionGeneralStaff Qualifications

ApplicationDesignMode of OperationTechnical DataInstallationMountingGas SupplyElectric Connections

Startup, CalibrationStartupCalibrationFIDAMAT 5E-G without zero and calibration gas connections, FIDAMAT 5E-APFIDAMAT 5E-P without zero and calibration gas connections

OperationDescription of Control PanelInput ExampleCoding and Organization of Operating Function GroupsOrganization of Data Storage

Warnings and Error MessagesWarningsFaults

Spare Parts and AccessoriesFIDAMAT 5E-APFIDAMAT 5E-PFIDAMAT 5E-G

AppendixGas Flow DiagramLayout Diagrams of Important Electronic ComponentsSummary of Operating FunctionsSurvey of operating functionsSpecial Sheet for Storage of Current CodingData Sheet: Parameters and Measured Values

Documents

FIDAMAT 5E-P, -AP, -G Gas analyzers for Measurement of ......FIDAMAT 5E-G 15 psig FIDAMAT 5E-P 18 psig Position of use Front panel vertical Change in display through influencing variables