WEB log. Device connection plans

Transcription

1 WEB log LIGHT+ 20 BASIC 100 PRO unlimited Device connection plans Version *

2 Copyright Copyright for this manual remains with the manufacturer. No part of this manual may be reproduced or edited, duplicated or distributed using electronic systems, without written permission. Compensation shall be payable in the event of any copyright infringements. All brand names mentioned in this manual are the property of their respective manufacturers and are hereby acknowledged. Details regarding the manual The original document is written in German. All other language versions are translations of the original document and are hereby identified as such. All information in this operating manual has been compiled and checked with the greatest care and diligence. Nevertheless, the possibility of errors cannot be entirely excluded. The manufacturer therefore cannot accept any liability for errors or their consequences. Subject to technical alterations. *Current version The latest version of this document "Device connection plans" can be found on the manufacturer's website.

3 Contents 1. Notes on this operating manual Safety instructions for operation Intended use Personnel Overview of interfaces Cabling RS485 and RS232/ Sensors Irradiance sensors Pyranometer Temperature sensors Hygro-thermal sensors Wind speed sensors Wind direction sensors Weather stations Power quality analyzers Janitza power quality analyzers Energy meter Three-phase energy meter String measuring technology meteocontrol string measuring technology

4 1. Notes on this operating manual This manual is a key aid when it comes to ensuring proper operation of the device. It contains important information and safety notes to help you use the devices correctly, economically and in the intended manner. The manual helps to avoid dangers, to reduce repair costs and downtimes, and to increase the reliability and operating life of the devices. During installation, all the manuals for system modules and components must be taken into account. 2. Safety instructions for operation 2.1 Intended use Only the permitted signals and signal strengths may be applied to the connections of the data loggers and modules used here. Installation is only permitted indoors. For installation outdoors or in a dusty environment, the device must be installed in a standardized protective enclosure. 2.2 Personnel Installation, commissioning and maintenance of the device may only be performed by a qualified electrician. Given their specialist training, knowledge, experience and familiarity with the relevant standards and regulations, a qualified electrician is in a position not only to carry out work on electrical systems but also to recognize and avoid possible dangers unaided. The qualified electrician must comply with the occupational health and safety laws in force. Please note in particular: all national installation and set-up regulations (e.g. VDE in Germany), all generally accepted codes of practice, information on transport, installation, operation, service, maintenance and disposal given in the documentation for the devices used, specific values, limits and information relating to operating and ambient conditions on type plates and in data sheets. 2 48

5 3. Overview of interfaces Overview of interfaces (1) Analog inputs (DI1 DI4) (7) Ethernet (2) Reset button (8) RS485 (3) Digital inputs (DI1 DI4) (9) RS232/422 (4) Power supply (10) Digital output (DO1) (110 V 230 V AC) (5) RJ45 phone socket (PSTN) (11) Switch between RS232 / RS422 (6) Power supply (24 V DC) Can also be operated as RS485 for additional Modbus devices 3 48

6 4. Cabling 4.1 RS485 and RS232/422 The two RS485 and RS232/422 interfaces are used to query information recorded on various bus devices such as inverters, power quality analyzers, etc. The RS232/422 interface can also be used as an RS485 interface. In order to do this the interface has to be operated in RS422 mode (for this, please refer to the manual of your WEB log data logger). Which interface you should use to connect inverters and accessories depends on your specific driver. Please refer to the appropriate driver datasheet ( Please note the following regarding the bus cabling: All devices on a bus must use the same protocol to communicate. The data logger functions exclusively as a master on the bus. The maximum permitted number of bus devices has to be observed (see driver datasheets). The order of the bus devices on the bus is unimportant. The use of a repeater is necessary for every 32nd bus device and for long cable runs. The bus should be cabled with a twisted and shielded pair of wires. The shield of the bus cable must be grounded at one end of the connection only. The data logger does not have its own grounding When you wire the bus wires, make sure that AC and DC cables are routed separately. Do not switch the buses signal wires. Different manufacturers interpret the RS485 interface s underlying standard differently. A and B wire labels may be different for different manufacturers. The + and indicators, on the other hand, are unambiguous. To prevent reflections, the bus must always be terminated with a parallel terminator. 4 48

7 Daisy chain If you want to connect more than one device to the bus, you must daisychain the connection. This means that different devices can only be queried jointly if they use the same communication protocol and the same serial communication parameters (baud rate, data bits, parity, stop bits). The first and last device on the bus must be terminated with a resistor. The data logger is provided with integrated terminating resistors that are permanently activated. Daisy chain cabling RS485/

8 Star wiring Another possible way of operating multiple devices on the RS485 bus is called star wiring. In this wiring variant, a HUB 6 Port RS485 S (item number ) is used to seperate the bus into a serveral bus strings. To connect the HUB 6 Port RS485 S to the WEB log, please use a Connect Universal RS cable (item number: ). Various devices can only be queried together if they communicate with the same protocol and have identical serial communication parameters (baud rate, number of data bits, parity, stop bits). Each bus string can have a maximum length of 1200 m. All the devices on the same bus string are wired together in a daisy chain. The first and last device of each bus string must be terminated with a resistor. The HUB has integrated terminating resistors at each interface, which are permanently activated. In this wiring variant, the total number of bus devices may not exceed the maximum permissible number of bus devices. Star wiring for RS

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10 5. Sensors 5.1 Irradiance sensors SI-12-TC, SI-12-TC-T Connection Wire color Use Black Ground Red Power supply (12 24 V DC) Brown Temperature signal (0 10 V / 0 20 ma / ma) Orange Irradiance signal (0 10 V) Configuration data SI-12-TC-T Sensor Measurement Input Unit Gradient Offset Irradiance Analog 0 10 V W/m Temperature Analog 0 10 V C In the case of the sensor SI-12-TC, the brown wire for temperature measurement is not used 8 48

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12 SI-12-TC-LC Connection Wire color Use Black Ground Red Power supply (12 24 V DC) Orange Irradiance signal (0 10 V) Configuration data Sensor Measurement Input Unit Gradient Offset SI-12-TC-T Irradiance Analog 0 10 V W/m

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14 SI-420-TC, SI-420-TC-T Connection Wire color Use Black Ground Red Power supply (12 24 V DC) Brown Temperature signal ( ma) Orange Irradiance signal (4 20 ma) Configuration data Sensor Measurement Input Unit Gradient Offset Irradiance Analog 4 20 ma W/m SI-420-TC-T Temperature Analog ma C In the case of the sensor SI-420-TC, the brown wire for temperature measurement is not used 12 48

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16 Si-RS485-TC-T (Modbus RTU) Connection Wire color Use Black Ground Red Power supply (12 24 V DC) Brown RS485 Modbus interface A (+) Orange RS485 Modbus interface B (-) Set the bus address on the sensor (see sensor documentation). If the device is the last one on the RS485 bus, terminate the bus with a 120 Ω terminating resistor. Various Modbus devices can only be queried together if the serial communication parameters are identical (baud rate, number of data bits, parity, stop bits)

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18 Si-RS485-TC-T V2 (Modbus RTU) Connection Wire color Use Black Ground Red Power supply (12 24 V DC) Brown RS485 Modbus interface A (+) Orange RS485 Modbus interface B (-) Set the bus address on the sensor (see sensor documentation). If the device is the last one on the RS485 bus, terminate the bus with a 120 Ω terminating resistor. Various Modbus devices can only be queried together if the serial communication parameters are identical (baud rate, number of data bits, parity, stop bits)

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20 5.2 Pyranometer Kipp & Zonen SMP10 / SMP11 (analog interface) Connection Wire color Black White Brown Green Use Ground Power supply (5 30 V DC) Irradiance signal GND Irradiance signal (4 20 ma) Configuration data Measurement Input Unit Gradient Offset Irradiance on horizontal plane Analog 4 20 ma W/m Irradiance on module plane Analog 4 20 ma W/m The sensor outputs (power signal) must have a resistance of approx. 500 Ω for a correct measurement. Since the data logger has an internal load resistance of 70 Ω, we recommend you to install a commonly available 430 Ω load resistor on the sensor output. Pyranometers can be used to measure irradiance either on the horizontal plane or on the module plane

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22 Kipp & Zonen SMP10 / SMP11 (Modbus RTU) Connection Wire color Use Black Ground White Power supply (5 30 V DC) Gray RS485 Modbus interface B (-) Yellow RS485 Modbus interface A (+) Blue RS485 Modbus interface GND Set the bus address on the sensor (see sensor documentation). If the device is the last one on the RS485 bus, terminate the bus with a 120 Ω terminating resistor. Various Modbus devices can only be queried together if the serial communication parameters are identical (baud rate, number of data bits, parity, stop bits). Pyranometers can be used to measure irradiance either on the horizontal plane or on the module plane

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24 Kipp & Zonen CMP11 with AMPBOX Connection Wire color Use Blue Power supply + 24 V DC Yellow Analog output 4 ma to 20 ma Configuration data Measurement Input Unit Gradient Offset Irradiance on horizontal plane Analog 4 20 ma W/m Irradiance on module plane Analog 4 20 ma W/m Pyranometers can be used to measure irradiance either on the horizontal plane or on the module plane. The input and output of the AMPBOX are galvanically isolated to prevent feedback and interference and to protect the data logger. The connecting cable between the AMPBOX and the pyranometer must not be lengthened or shortened. Because the AMPBOX and the pyranometer are calibrated together, both devices must always be installed together

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26 5.3 Temperature sensors PT1000 Adhesive Sensor Connection Wire color Brown White Use Ground PT1000 temperature signal Configuration data Measurement Input Unit Gradient Offset Temperature PT1000 C

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28 PT100 adhesive sensor with signal converter Connection Wire color Use Red Ground White Temperature signal PT100 Configuration data Measurement Input Unit Gradient Offset Temperature Analog 0 10 V C The following signal converters are available for connecting the temperature sensor: PT100 Signal converter 24 V power supply PT100 Signal converter 230 V power supply 26 48

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30 5.4 Hygro-thermal sensors meteocontrol compact hygro-thermal sensor Connection Wire color Yellow Black Green Brown Use Power supply for humidity sensor (24 V DC) Power supply for temperature sensor (24 V DC) Temperature signal (4 20 ma) Ambient humidity signal (4 20 ma) Configuration data Measurement Input Unit Gradient Offset Temperature Analog 4 20 ma C Relative humidity Analog 4 20 ma % r. h The sensor outputs (power signal) must have a resistance of approx. 500 Ω for a correct measurement. Since the data logger has an internal load resistance of 70 Ω, we recommend you to install commonly available 430 Ω load resistors on the sensor outputs

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32 5.5 Wind speed sensors meteocontrol compact wind speed sensor (0 10 V) / (4 20 ma) Connection Wire color Use Yellow Wind speed signal ground Green Wind speed signal (4 20 ma) Gray Power supply for heater (24 V AC or DC +) Pink Heater GND (24 V DC -) White Power supply for sensor (24 V AC or DC +) Brown Sensor GND (24 V AC or DC -) Configuration data Sensor Measurement Input Unit Gradient Offset mc comp. wind speed sensor (0-10 V) Wind speed Analog 0 10 V m/s 5 0 mc comp. wind speed sensor (4-20 ma) Wind speed Analog 4 20 ma m/s

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34 5.6 Wind direction sensors meteocontrol compact wind direction sensor (0 10 V) / (4 20 ma) Connection Wire color Use Yellow Wind direction signal GND Green Wind direction signal (4 20 ma) Gray Power supply for heater (24 V AC or DC +) Pink Heater GND (24 V DC -) White Power supply for sensor (24 V AC or DC +) Brown Sensor GND (24 V AC or DC -) Configuration data Sensor Measurement Input Unit Gradient Offset mc compact wind direction (0-10 V) Wind direction Analog 0 10 V 36 0 mc compact wind direction (4-20 ma) Wind direction Analog 4 20 ma

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36 5.7 Weather stations Compact weather station WS501 / WS510 / WS600 UMB (Modbus RTU) Connection Wire color Use Yellow RS485 bus wire A (+) Green RS485 bus wire B (-) Brown Power supply for sensor (+24 V DC) White Sensor GND (-) Red Power supply for heater (+24 V DC) Blue Heater GND (-) Set the bus address on the compact weather station (see compact weather station documentation). If the device is the last one on the RS485 bus, terminate the bus with a 120 Ω terminating resistor. Various Modbus devices can only be queried together if the serial communication parameters are identical (baud rate, number of data bits, parity, stop bits)

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38 6. Power quality analyzers 6.1 Janitza power quality analyzers UMG604 (Modbus RTU) Set the bus address on the power quality analyzer (see power quality analyzer documentation). If the device is the last one on the RS485 bus, terminate the bus with a 120 Ω terminating resistor. To ensure sufficient query speed for the power control, it is recommended to operate the power quality analyzer as a single device on the bus

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40 7. Energy meter 7.1 Three-phase energy meter ALE3 (Modbus RTU) energy meter Set the bus address on the energy meter (see energy meter documentation). If the device is the last one on the RS485 bus, terminate the bus with a 120 Ω terminating resistor. Energy meter suitable for IPL function 38 48

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42 Energy meter ALE3 (S0) Pulse value of the S0 interface is 1000 pul/kwh Energy meter suitable for IPL function Configuring the IPL meter In the factory, the meter s S0 interface is set up in a way that allows for pulses to be transmitted in both directions (in and out), when energy is flowing. With this setting it is not possible to determine the direction of flow. To use the meter for IPL you will need to configure the S0 interface for one energy flow direction. You will need to make the following settings, depending on the recorded measurement. Measurement Use Setting Energy fed into the grid Feed-in meter Out mode Energy drawn from the grid Import meter In mode Energy used by electrical equipment Consumption meter In mode 40 48

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44 8. String measuring technology 8.1 meteocontrol string measuring technology i catcher 8-1B, i catcher 16-1B, i catcher 24-1B (Modbus RTU) Set the bus address on the i'catcher (see i'catcher documentation). If this is the last bus device on the RS485 bus, set the terminating switches (Term.) to On. Various Modbus devices can only be queried together if the serial communication parameters are identical (baud rate, number of data bits, parity, stop bits)

45 (1) RJ12 connector (WEB'log), (5) Last i catcher RS485/RS422 (2) Pinout of Connect Universal RS (6) Terminating resistor 120 Ω (3) Terminals (i catcher) (7) Bus cable (4) First i catcher 43 48

46 Connection i catcher, central power supply, separate shield Connection i catcher, central power supply, connected shield 44 48

47 Connection i catcher, decentralized power supply, separate shield Connection i catcher decentralized power supply, connected shield 45 48

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52 Text and illustrations represent state-of-the-art technology at the time of printing Subject to technical modifications We assume no liability for printing errors. Version