Thies CLIMA 5.4110 00 Series Instructions For Use Manual
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Thies CLIMA 5.4110 00 Series Instructions For Use Manual

Laser precipitation monitor
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Laser Precipitation Monitor
ADOLF THIES GmbH & Co. KG
Hauptstraße 76
Box 3536 + 3541
Phone +49 551 79001-0
www.thiesclima.com
Instruction for Use
INVISIBLE LASER RADIATION
DO NOT VIEW DIRECTLY WITH
OPTICAL INSTRUMENTS
CLASS 1M LASER PRODUCT
37083 Göttingen Germany
Fax +49 551 79001-65
info@thiesclima.com
021341/07/11
5.4110.xx.x00
V2.5x STD
37025 Göttingen

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Summary of Contents for Thies CLIMA 5.4110 00 Series

  • Page 1 Instruction for Use 021341/07/11 Laser Precipitation Monitor 5.4110.xx.x00 V2.5x STD INVISIBLE LASER RADIATION DO NOT VIEW DIRECTLY WITH OPTICAL INSTRUMENTS CLASS 1M LASER PRODUCT ADOLF THIES GmbH & Co. KG Hauptstraße 76 37083 Göttingen Germany Box 3536 + 3541 37025 Göttingen Phone +49 551 79001-0 Fax +49 551 79001-65 www.thiesclima.com...
  • Page 2 Safety Instructions • Before operating with or at the device/product, read through the operating instructions. This manual contains instructions which should be followed on mounting, start-up, and operation. A non-observance might cause: - failure of important functions - Endangering of persons by electrical or mechanic effect - Damages at objects •...

  • Page 3: Table Of Contents

    Contents Models ............................5 General ............................5 Mode of Operation of the Laser Precipition Monitor ..............6 Construction of the Measuring Instrument ................. 8 Heating ..........................12 4.1.1 Variant Extended Heating (5.4110.x1.xxx) ..............12 Installation..........................13 Suggestions for Mounting Place..................13 Mechanical Installation ......................
  • Page 4 7.3.3 Telegram 8/9: Synop, Metar, optional measuring channel truncated ......52 7.3.4 Telegram 10: Synop, Metar, optional measurement channels, averaging....54 7.3.5 Telegram 3: Particle-Event ..................56 Technical Data ......................... 57 Wiring Diagram ........................61 EC-Declaration of Conformity ....................64 Figure Figure 1: Measurement of the precipitation particle .................

  • Page 5: Models

    1 Models Order-No. Operating Option Option Tye of Voltage Meas. Channel Extended Heating Connection 5.4110.00.000 24V ~/= AC/DC Nein Nein Cable gland 5.4110.00.100 115V~ AC Nein Nein Cable gland 5.4110.00.200 230V~ AC Nein Nein Cable gland 5.4110.00.300 12...24V= DC Nein Nein Cable gland 5.4110.10.000...

  • Page 6: Mode Of Operation Of The Laser Precipition Monitor

    3 Mode of Operation of the Laser Precipition Monitor A laser-optical beaming source (laser diode and optics) produces a parallel light-beam (infrared, 785 nm, not visible). A photo diode with a lens is situated on the receiver side in order to measure the optical intensity by transforming it into an electrical signal.

  • Page 7: Table 1: Example For The Speed Of Liquid Particles

    Diameter [mm] Fall speed [m/s] 0.2 (drizzle) 0.73 0.3 (drizzle) 0.8 (rain) 0.9 (rain) 1.8 (rain) 2.2 (rain) 3.2 (rain) 5.8 (rain) Table 1: Example for the speed of liquid particles The calculated data are memorized over one minute, and then transmitted via the serial interface. The instrument is almost maintenance-free.

  • Page 8: Construction Of The Measuring Instrument

    Figure 3 :Schematic Block Diagram In explanation of the construction, and the basic function the block diagram Figure 3) shows schematically the most important functional connections (variant “Extended Heating” not shown). 4 Construction of the Measuring Instrument The Laser Precipitation Monitor consists of the following: a varnished aluminium housing, protection IP 65, a laser head ( anodised aluminium), fixed at the housing cover, a receiver head (anodised aluminium) fastened by means of carrier arms (see also Figure 4 and Figure 5) The aluminium housing contains the electronics with all necessary interfaces.

  • Page 9: Figure 4: Side View

    Attention: Do not look into the invisible laser beam! In case the laser caution labels on the housing are not legible any more the sensor must not be operated! Even with a longer exposure time the intensity of the invisible laser beam is considered as safe for the human eye (without using optical instruments).

  • Page 10: Figure 6: View Of The Electronics Rev.b

    Heating-Control- LED green (5.4110.x1.X00) LED red Supply Head Heating Heating LED red Terminal Terminal LED red Housing Head Carrier Carrier Heating Heating Heating Heating Secondary Fuse Heating 5AT (115/230V~) 6,3AT (26V~/=) Connector Receiver Connector Laser Fuse Heating 0.5AT (230V~) 1AT (115V~) 6,3AT (26V~) (5.4110.x1.x00) Terminal Ambient...

  • Page 11: Figure 7: View Of The Electronics Rev.a

    LED red Connector LED red LED green Supply Receiver Failure Sensor OK Transformer 5.4110.xx.100 Connector 5.4110.xx.200 Laser Terminal Digital Terminal Fuse Sensor output RS485 0.1AT (5.4110.xx.200) 0.2AT (5.4110.xx.100) Terminal LEDs red UPS-operation Terminal Supply or supply for 24V~/= 5.4110.xx.300 Terminal Mains 5.4110.xx.000 Terminal 3 + 4 5.4110.xx.100...

  • Page 12: Heating

    4.1 Heating All sensor variants have heated glass panes on both heads to prevent interferences through freeze up, steaming up or similar. The heating power is controlled in subject to the ambient conditions. The heating current are measured for self diagnostic and could be read through the diagnostics command (“DD”, only available with PCB Rev.B, see Figure 6).

  • Page 13: Installation

    5 Installation Attention: The instrument must be mounted and wired only by a qualified expert, who knows and observes the generalities of technics, and applicable regulations and norms. Attention: Do not look into the invisible laser beam! In case the laser caution labels on the housing are not legible any more the sensor must not be operated! Even with a longer exposure time the intensity of the invisible laser beam is considered as safe for the human eye (without using optical...

  • Page 14: Mechanical Installation

    should be mount with a distance of at least 1m on the same mast. The side distance to other objects should be greater than 2m. We recommend to operate the Laser Precipitation Monitor in an enclosed area for human safety, although the intensity of the invisible laser beam is considered as safe for the human eye (without using optical instruments, Laser Class 1M according to EN 60825-1:1994 A2:2001).

  • Page 15: Example

    5.2.1.1 Example Example of a mounting means 4.3187.61.xxx equipment rack (optional) View from above Earth strip 4x30mm 20 m long Plastic tube Ø 50 Plastic tube Ø 50 with taut wire 1 x 90° arc Concrete C25/30 Figure 8: Example for an appropriate mast foundation 15 - 66 021341/07/11...

  • Page 16: Mounting Angle

    5.2.2 Mounting Angle First, the mounting angle (with or without housing) should be fastened at the mast. Because of the shading effect of the mast the angle is to be mounted at the highest possible place. Align the angle to the south acc. to Figure 10 (± 10°, Northern hemisphere), and fasten it at the top of the mast. It is advisable to have a second person holding the Laser Precipitation Monitor during the mounting.

  • Page 17: Mounting Of The Housing Cover

    5.2.3 Mounting of the Housing Cover Remove, first, the 4 screws in the edges. Afterwards, turn down the cover carefully. When the housing is open, please take care that no humidity (precipitation) can lay down on the electronics. 5.3 Electrical Installation Attention: The instrument must be mounted and wired only by a qualified expert, who knows and observes the generalities of technics,...

  • Page 18: Electrical Installation With Cable Glands

    5.3.1 Electrical installation with cable glands In order to carry out an EMC-compatible installation the cable screen/shielding (except the supply cable, which, in general, is not shielded) is to be connected to the contact spring of the screwed cable gland (Figure 11). 1.

  • Page 19: Figure 12: Connection Of Power Supply (Here 115 Or 230Vac) With Ferrite Tube And Binder

    The cables are guided through the respective cable gland to the sensor connecting terminals (Figure 6 or Figure 7), see also wiring diagram (CH. 9). They are connected by means of the respective tension clamp technique. For the orange-coloured connecting terminals put a commercially available screw-driver with a blade width of up to 2mm resp.

  • Page 20: Electrical Installation Via Connector

    5.3.1.1 Electrical Installation via Connector Instruments equipped with connectors, have pre-assembled flange plugs, which are integrated at the housing. The flange plug for the supply with pre-assembled cable has a ferrite sleeve which is already affixed at the cable (between plug and pc-board) against the wall by cable connector. 5.3.2 Closing the Instrument Cover Lift up the housing cover carefully, and take care that no cable is jammed between cover and housing.

  • Page 21: Maintenance

    6 Maintenance Attention: Do not look into the invisible laser beam! Attention: Head and carrier heatings could be hazardous hot! Burn Hazard! (applies only for 5.4110.x1.xxx) 6.1 Cleaning Approximately every 3 months the glass panes of the sensor should preventively be cleaned. Depending on the location this period might be different.

  • Page 22: Checking The Led's

    6.3.1 Checking the LED’s In case no terminal program with PC is available the checking of the Laser Precipitation Monitor is limited to the control of the following LEDs. You will see them after removing the cover (see Figure 6 or Figure 7): •...

  • Page 23: Checking By Means Of A Terminal Program

    6.3.2 Checking by means of a terminal program First, the Laser Precipitation Monitor must be connected to the respective COM interface of the used PC by an interface converter (RS485/RS232). Start a terminal program, and configure the interface according to the sensor interface (baud rate, parity, etc.).

  • Page 24: Serial Communication

    7 Serial communication An RS485 interface (4-wire or 2-wire mode, changed by command “BD”, see CH. 7.2.1) with several baudrates (command “BR”) is available at the Laser Precipitation Monitor for the serial communication. The communication can be carried out, for example, by means of a standard terminal program and a PC.

  • Page 25: General Telegram Format

    7.1 General telegram format A fixed telegram format is used for the serial communication (<CR> means Carriage Return (enter key)): • Data request: „<id>BB<CR>“ <CR> means carriage return (enter key) • Change of parameters: „<id>BBppppp<CR>“ <CR> means carriage return (enter key) The single letters have the following meaning: Device address number (00…99, initial value 00) two-digit command code (case-insensitive)

  • Page 26: List Of Commands

    7.2 List of Commands <id>: Device address (00…99, initial value “00”, see command “ID”, CH. 7.2.1) Command ? <id>? Help description: Output list of commands Example reply: KY: Set/Get command mode (0:user, 1:config) BR: Set/Get Baudrate (5: 9600Bd 8N1) BD: Set/Get Duplex (0:Full, 1:Half) ID: Set/Get Device Address RS: Reset Sensor (1) SV: Get Software Version...

  • Page 27: Communication Commands

    HK/HB/HG: switch on heating for 1 minute (0:Off 1:On) head(K), holder(B), housing(G) 7.2.1 Communication commands Command KY <id>KY<para5> Setting the command mode (0: normal, 1: configuration) Description: Two modes are available: • Normal mode (no setting of parameter possible) • Configuration mode (all commands allowed) Value range: Initial value:...

  • Page 28: Reset / Version Commands

    Command BD <id>BD<para5> Setting duplex-mode (full- [“0”] / half-duplex [“1”]). Description: Setting for the using of a so-called 4-wire- (full-duplex, common called RS422) or 2-wire-communication (half-duplex, RS485). Value range: Initial value: 0 (full-duplex) Note: • We recommend concerning the simplicity the use of full-duplex communication •...

  • Page 29: Data Telegrams Commands

    Command SB <id>SB Request of the bootloader version. Description: Output of the bootloader version (example reply: „!00SB00110“ -> V1.10), if supported by the bootloader. Value range: Initial value: Command SN <id>SB Request of the serial number. Description: Output of the serial number. Note: If the serial number is 0 the system parameters are adjusted wrongly.

  • Page 30: Time / Date Commands

    Command TO <id>TO<para5> Time for telegram 10 in minutes. Description: Setting of the time for mean and extreme calculation as well as the time interval for automatic sending of telegram 10. If using the automatic sending (command <id>TM00010) please consider the following: It makes only sense to use 1 to 6 or 10 minutes, because otherwise the time interval is uneven.
  • Page 31 Command ZS <id>ZS<para5> Setting the sensor clock (second) Description: Setting the second. The sensor time can be requested by the command „ZT“ Value range: 0...59 Initial value: Command ZD <id>ZD<para5> Setting the sensor date (day) Description: Setting the day. The sensor date can be requested by the command „ZT“. Value range: 1...31 Initial value:...

  • Page 32: Diagnostics Commands

    7.2.5 Diagnostics commands Command DA <id>DA Output of the optional measuring channels (5.4110.1x.xxx) Description: Temperature/humidity: 30s-mean value (measurement every second) Wind speed: 1s-mean value Wind direction: instantaneous value (measurement every second) column Description Temperature [°C] 7-11 Relative air humidity [%r.h.] 13-16 Wind speed [m/s] 18-20...
  • Page 33 * Variant 5.4110.x0.xxx: value always maximum Hardware Rev.A (see ) no measurement possible Figure 7 Example reply (5.4110.x1.xxx, Variant „Extended Heating“): „+01;08;1627;4011;2356;235;084;070;-06.4;233;0034;0845;2230“ 1. +1°C Interior temperature 2. 8°C Temperature of laser driver 3. 16.27mA Mean value laser current 4. 4011mV Control voltage 5.
  • Page 34 Example reply in case of no error : „ (laser on, no error and warning detected) 0;0;0;0;0;0;0;0;0;0;0;0;0;0;0;0“ Value range: Initial value: Command FM <id>FM Output of error counter Description: Output of the error counter 1 to 15 (number corresponds to “DX” command) Note: •...
  • Page 35 Command HK,HB,HG <id>HK<para5> Switch on/off head heatings <id>HB<para5> Switch on/off carrier heatings <id>HG<para5> Switch on/off housing heating Description: With this commands the heating circuits can be switched on (parameter 1) for testing purpose (only 5.4110.x1.xxx). After one minute the respective circuit is switched off automatically.

  • Page 36: Calibration Commands

    7.2.6 Calibration commands Command AT <id>AT Alignment of the interior temperature Description: The interior temperature is necessary for the determination of the precipitation type (except for variant 5.4110.x1.xxx, see note below). With an outside temperature range from –4 to 10 °C the interior temperature should deviate by max.

  • Page 37: Quantity Measurement Commands

    Command AZ <id>AZ Alignment of sensor clock Description: Correction of clock accuracy. For standard requirements (accuracy approx. 10- 20 minutes/year) no correction is necessary. In case of higher requirements the accuracy can be increased by this command. As the clock accuracy depends on aging and temperature we recommend a correction after one year of operation.

  • Page 38: Digital Output Commands

    7.2.8 Digital output commands Both optocoupler-outputs (see CH. 5.3.3) can be configured independently of each other with the commands “D1” or “D2”. Following information can be given out: • Precipitation amount (output of impulses, resolution 0.1, 0.01 or 0.005mm) • State information (output open/closed or frequencies) •...

  • Page 39: Table 3: Parameter D1/D2 Command

    Solid precipitation Solid No solid inactive precipitation precipitation Precipitation amount Gross * (1impulse: 0.1mm) 0.1mm Precipitation amount Gross * (1impulse: 0.01mm) 0.01mm Precipitation amount Gross * (1impulse: 0.005mm) 0.005 mm Always active always Precipitation type See the following SYNOP(Tab.4680, Table 4 see Table 7) Frequency output 1 Precipitation amount...

  • Page 40: Table 4: Parameter 17 (Command D1 And D2)

    SYNOP Frequency Description [Hz] (Tab.4680) Sensor error No precipitation Light drizzle 52,53 Moderate / heavy drizzle 41,42 Unknown precipitation 33,33 57,61 Light drizzle with rain, Light rain 41,66 58,62,63 Moderate / heavy drizzle with rain, moderate / heavy rain Light rain and / or drizzle with snow 62,5 Moderate / heavy rain and / or drizzle with snow 83,33...

  • Page 41: Table 5: Parameter 19 (Command D1 And D2)

    SYNOP Frequency Description [Hz] (Tab.4680) Sensor error Light / moderate unknown precipitation Heavy unknown precipitation No precipitation 15,15 Light drizzle Moderate drizzle 22,73 Heavy drizzle Light drizzle with rain 29,41 Moderate / heavy drizzle with rain 33,33 Light rain 38,46 Moderate rain 41,66 Heavy rain...

  • Page 42: Data Telegrams

    7.3 Data Telegrams 7.3.1 Telegram 4/5: Synop, Metar, Disdrometer, optional measuring channel This telegram is transmitted every minute by the instrument (without request of receiver), when the parameter “TM” (CH. 7.2.3) is 4 or 5 (automatic mode). The request of the telegram (polling mode) is possible with the command “TR”.
  • Page 43 Telegram 5: Synop, Metar, Disdrometer, optional measuring channel („<id>tm00005“) In addition to the output given above telegram the optional measuring channels are output at the end (see also command “DA”, CH. 7.2.5) Column Description STX (start identifier) Device address (factory setting „00“) (NN) Serial number (NNNN) 10-13 Software-Version (N.NN)
  • Page 44 Status Temperature sensor (OK:0, warning:1) Status Heating supply (OK:0, warning:1) (OK:0, warning:1) Status Current heating housing (OK:0, warning:1) Status Current heating heads (OK:0, warning:1) Status Current heating carriers (OK:0, warning:1) Status Control output laser power Reserve Status ( 0) 148-150 Interior temperature [°C] (NNN) 152-153...
  • Page 45 335-339 Number of particles class 3 341-349 Total volume (gross) of class 3 351-355 Number of particles class 4 357-365 Total volume (gross) of class 4 367-371 Number of particles class 5 373-381 Total volume (gross) of class 5 383-387 Number of particles class 6 389-397 Total volume (gross) of class 6...
  • Page 46 Total intensity is calculated with the adding of parameter 15 and 16. Exception: when „not identified precipitation“ is reported (15+16 are then 0) Raw value Calculation visibility MOR in precipitation: (Prec) = 3,0 / ( π/2 * 1/(A* t) * Σ (D Measuring area sensor [m²] (Note: device-specific, see command “AU”, CH.
  • Page 47 Measuring quality: This value indicates the significance of the precipitation classification (parameter 11,12 and 13). The sensor analyse for this value the quantity of the particles and the measured ambient temperature. It should be considered that other factors (e.g. wind speed, dense fog) can decrease the measuring quality provided by the instrument.

  • Page 48: Table 6: Disdrometer Class Binning Of Diameter And Speed

    Particle diameter class Particle speed class Diameter Class width Class Speed Class width Class [mm] [mm] [m/s] [m/s] ≥ 0.125 ≥ 0.000 0.125 0.200 ≥ 0.250 ≥ 0.200 0.125 0.200 ≥ 0.375 ≥ 0.400 0.125 0.200 ≥ 0.500 ≥ 0.600 0.250 0.200 ≥...

  • Page 49: Table 7: Code Table Synop/Metar

    SYNOP METAR/SPECI SYNOP Inter Type of Precipitation w’w’ Code Tab.4677 Table 4678 Tab.4680 Sensor error ????? No precipitation **** P-,P,P+ -UP,UP,+UP 41,41,42 Precipitation (not identified -2,-3,-4 L-,L,L+ 51,53,55 -DZ,DZ,+DZ 51,52,53 Drizzle (also freezing Freezing drizzle [ZL] [56,57,57] [FZDZ] [54,55,56] (see drizzle L-,L,L+ 51,53,55 -DZ,DZ,+DZ...

  • Page 50: Table 8: Intensity Steps Synop

    Additional hints: • The code tables for SYNOP and METAR are described in the 506-sided WMO document number 306 (WMO-No.306 “Manual on Codes” Vol. I.1, 2010 edition) • The coding is done according the WMO guidelines in the precipitation type and the intensity step (see the both following tables Table 8 and Tabelle 9 Example: Sensor detects drizzle with 0.22mm/h intensity.

  • Page 51: Telegram 6/7: Synop, Metar, Optional Measuring Channel

    7.3.2 Telegram 6/7: Synop, Metar, optional measuring channel This telegram is transmitted every minute by the instrument (without request of receiver), when the parameter “TM” (CH. 7.2.3) is 6 or 7 (automatic mode). The request of the telegram (polling mode) is possible with the command „<id>TR00006“...

  • Page 52: Telegram 8/9: Synop, Metar, Optional Measuring Channel Truncated

    Additionally with telegram 7: Column Description 213-217 Temperature [°C] (NNN.N) 219-223 Relative Air humidity [%r.h.] (NNN.N) 225-228 Wind speed [m/s] (NN.N) 230-232 Wind direction [°] (NNN) 234-235 Checksum (AA) 237-238 CRLF ETX (End identifier) Parameter accordant to telegram 4 und 5 (see CH. 7.3.1) Calculation correspondent to telegram 4 und 5 (see CH.
  • Page 53 Telegram 9: In addition to the output given above telegram 8 the optional measuring channels are output at the end (see also command “DA”, CH. 7.2.5) Example Telegram 9: 61;0000;2.30;01.01.07;18:43:00;00;00;NP ;000.000;00;00;NP ;000.000;000.000;000.000;0000.00;99999;-9.9;100;0.0;99999;99999;9999;999;3A; Column Description STX (start identifier) 112-114 1M Maximum diameter hail [mm] (1 minute value) (N.N)) <id>...

  • Page 54: Telegram 10: Synop, Metar, Optional Measurement Channels, Averaging

    7.3.4 Telegram 10: Synop, Metar, optional measurement channels, averaging This telegram is transmtted by the instrument automatically in case the parameter “TM (chap.7.2.3.) is set to 10. The time interval for automatic transmission and the averaging period is set through command “TO”...
  • Page 55 column Length Description STX (start identification) 230-232 wind direction [°] (NNN) 234-235 Averaging period in minutes (NN) (setting command„TO“ -) 237-243 Mean intensity in the averaging period in mm/h (NNN.NNN) 245-251 Maximum 1-min-intensity in the averaging period in mm/h (NNN.NNN) 253-254 Macimum value SYNOP Tab.4680 in the averaging period (NN) 256-257...

  • Page 56: Telegram 3: Particle-Event

    7.3.5 Telegram 3: Particle-Event The instrument transmits (without request of the receiver) this telegram with every event (particle falling through the measuring area). Output of all measured particles with higher precipitation intensities is not guaranteed. The command to set this telegram is “<id>TM00003” (see CH. 7.2.3). List separator: ;...

  • Page 57: Technical Data

    8 Technical Data General: Ambient conditions -40... +70 °C, 0... 100% r.h. <1500m MSL (for greater heights please refer to the Maximum altitude manufacturer) 0,27 x 0,17 x 0,54 m 10.63 x 6.7 x 21.3 inch (w/o mast Dimensions holder) 4.8 kg (5.4110.x0.xxx) Weight 6.5 kg (5.4110.x1.xxx) (“Extended Heating”-variant)
  • Page 58 5.4110.x0.1xx: Supply voltage AC (heating + electronics) 115V~ AC +10% -25% Maximum power consumption 15 VA 5.4110.x1.1xx: supply voltage AC (heating + electronics) 115V~ AC +10% -25% Maximum power consumption 150VA 5.4110.x0.2xx: Supply voltage AC (heating + electronic) 230V~ AC +10% -25% Maximum power consumption 15 VA 5.4110.x1.2xx:...
  • Page 59 Ambient temperature sensor NTC (5.4110.x0.xxx) Pt100 (5.4110.x1.xxx , measurement current < 0.8 mA)) Electronics for evaluation: Digital signal processor TMC320VC33 (55.3 MHz) RAM-memory 136KB 256KB (for firmware and parameter, to be uploaded via Flash-memory serial interface) No. of changes: 1 million 14Bit-A/D-converter scanning 109 KHz (for optical measuring signal) 12Bit-A/D-converter...
  • Page 60 Minimum Intensity < 0,005 mm/h (drizzle) (depending on precipitation type) Maximum Intensity > 250 mm/h Visibility MOR in precipitation 0 … 99999 m Radar reflectivity -9.9 … 99.9 dBZ Disdrometer classes 440 classes (22 diameter * 20 speed) Option Measuring Inputs: 5.4110.1x.xxx Temperature (Pt100) (not available for variant Meas.

  • Page 61: Wiring Diagram

    9 Wiring Diagram ATTENTION: Do not look into the invisible laser beam! Wiring Diagram Supply: NOTE: Wiring diagram communication see following page. 61 - 66 021341/07/11...
  • Page 62 Wiring Diagram Communication and Measuring Inputs: Note: Wiring diagram supply see previous page. 62 - 66 021341/07/11...
  • Page 63 Attention: Head and carrier heating could be hazardous hot! Burn Hazard! (applies only for 5.4110.x1.xxx) NOTE: Run all supply cables in the housing through the delivered ferrite tube! (see Figure 12, applies not for variant 5.4110.x1.xxx) Power input 1(24V AC/DC) and 3 (12..24 V DC) must be potential-free, or the negative voltage is on the same potential as the housing of the sensor (protective earth).

  • Page 64: Ec-Declaration Of Conformity

    10 EC-Declaration of Conformity Document-No.: 000904 Month: 07 Year: 11 A D O L F T H I E S G m b H & C o. K G Manufacturer: Hauptstr. 76 D-37083 Göttingen Tel.: (0551) 79001-0 Fax: (0551) 79001-65 email: Info@ThiesClima.com Description of Product: Laser-Niederschlags-Monitor Article No.
  • Page 65 65 - 66 021341/07/11...
  • Page 66 ADOLF THIES GmbH & Co. KG Hauptstraße 76 37083 Göttingen Germany P.O. Box 3536 + 3541 37025 Göttingen Phone +49 551 79001-0 Fax +49 551 79001-65 www.thiesclima.com info@thiesclima.com - Alterations reserved- 66 - 66 021341/07/11...

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