Technische Alternative UVR610S-MODB Installation Instructions Manual

Technische Alternative UVR610S-MODB Installation Instructions Manual

Freely programmable universal controller modbus version rtu 485

Advertisement

Quick Links

www.ta.co.at
UVR610S-MODB
FREELY PROGRAMMABLE
UNIVERSAL CONTROLLER
Modbus version (RTU 485)
Installation instructions
Manual Version 1.17
Englisch

Advertisement

Table of Contents
loading
Need help?

Need help?

Do you have a question about the UVR610S-MODB and is the answer not in the manual?

Questions and answers

Subscribe to Our Youtube Channel

Summary of Contents for Technische Alternative UVR610S-MODB

  • Page 1 UVR610S-MODB FREELY PROGRAMMABLE UNIVERSAL CONTROLLER Modbus version (RTU 485) Installation instructions Manual Version 1.17 Englisch...
  • Page 2: Table Of Contents

    Table of contents Manual Version 1.17 Safety requirements ............3 Maintenance .
  • Page 3: Safety Requirements

    Safety requirements All installation and wiring work on the controller must only be carried out in a zero volt state. The opening, connection and commissioning of the device may only be carried out by competent personnel. While doing so, they must observe all local safety requirements. This device is state of the art and meets all necessary safety regulations.
  • Page 4: Standard Delivery

    Standard delivery • Freely programmable universal controller UVR610 • Installation instructions • SD-card (not supplied with UVR610-OD) • Installation material • 1x 4-pole terminal, contact spacing: 3.81 mm • 1x 8-pole terminal, contact spacing: 3.81 mm • 1x 11-pole terminal, contact spacing: 3.81 mm •...
  • Page 5: Sensor Installation

    Sensor installation Correct arrangement and installation of the sensors is extremely important for correct functioning of the system. To this end, also ensure that they are completely inserted in their sensor wells. The cable fittings provided serve as strain relief. When used outdoors, no water must be allowed to penetrate the sensor wells (risk of frost).
  • Page 6: Electrical Connection

    • Room sensor: This sensor is intended for installation in the living space (reference room). Do not install the room sensor near a heat source or window. By simply replugging a jumper inside the sensor, each room sensor can also be used exclusively as a remote adjuster (no room tempera- ture influence).
  • Page 7: Terminal Diagram

    Terminal diagram View of the upper enclosure section with terminals analogue outputs, 24V, Modbus, DL-Bus Sensor inputs CAN-Bus jumpers Switching outputs Mains: L... Phase conductor N... Neutral conductor Outputs: C... Root A1 - A6... NO contact NC... N/C contact A6 N...
  • Page 8: Sensor Leads

    Sensor leads Sensor terminal diagram Sensors are always connected across the relevant sensor terminal (S1 – S6) and sensor earth (GND). In order to prevent measurement fluctuations and ensure perfect signal transmission, sensor leads must not be subject to external negative influences through 230 V cables. Never run sensor leads together with mains voltage cables in the same conduit.
  • Page 9: Data Cable For Dl Bus

    Data cable for DL bus The DL BUS consists of just 2 wires: DL and GND (sensor earth). The DL BUS itself supplies the nec- essary power for the DL BUS sensors. Cables can be routed with a star topology but also in serial formation (from one device to the next). Any cable with a cross-section of 0.75 mm², and measuring up to 30 m in length, can be used as a data link.
  • Page 10: Can Bus Network

    CAN Bus network Terminal diagram, CAN bus cable Guidelines for the topology of a CAN network Technical principles The CAN BUS comprises the cables CAN-High, CAN-Low, GND and one +12 V supply cable for BUS components without their own power supply. The combined total load of all devices with 12 V and 24 V supply must not exceed 6 W.
  • Page 11: Lightning Protection

    In order to protect the individual components of a CAN network against indirect lightning strike, we recommend the use of surge arresters specifically developed for bus systems. Example: CAN bus surge arresters CAN-UES from Technische Alternative Gas discharge arrester for indirect earthing EPCOS N81-A90X...
  • Page 12 Network (across several buildings) without CAN-Repeater CAN-RP: Max. cable length: 1000 m at 50 kbit/s The screen must be continued at every network node and earthed at a single point, as close to the cable center as possible. We recommend earthing the screen indirectly in the other buildings using a gas discharge arrester.
  • Page 13: Cable Selection And Network Topology

    Cable selection and network topology Screened twisted pairs have proven useful in CANopen networks. These are cables with twisted pairs of conductors and a shared external screen. Such cables are relatively resistant to EMC inter- ference and can still carry 50 kbit/s for up to 1000 m. The CANopen recommendations (CiA DR 303- 1) for cable cross-sections are given in the table below.
  • Page 14 Wiring A CAN BUS network should never have a star topology. Rather, the correct topology is a line from the first device (with terminator) to the second, third and so forth. The last bus device has the termina- tion jumper again. Example: Connection of three network nodes (NWN) with a 2x2-pole cable and termination of the ter- minal network nodes (network inside one building) Each CAN network is to be provided with a 120 ohm BUS terminator at the first and last network sub-...
  • Page 15 Changing to cable types with different characteristic impedances is only permitted via signal sepa- ration through a CAN bus converter. However, such networks do not comply with the recommended specification. Technische Alternative RT GmbH therefore cannot guarantee trouble-free operation if one of the three options listed above...
  • Page 16: Outputs

    Outputs Terminal diagram, switching outputs For maximum current load of the outputs, see the technical data. Output 6 with voltage applied Output 6 is potential-free at the factory. If it is to be connected to the voltage of the controller, the phase (routed out again next to terminals A6) must be connected to the root.
  • Page 17: Terminal Diagram For Analogue Outputs (0-10V / Pwm)

    Terminal diagram for analogue outputs (0-10V / PWM) Connections AN7 – AN10 are the positive pole; the GND connection is the negative pole. If programmed as a "switching output", a maximum of 2 HIREL-230V or HIREL-PF auxiliary relays can be connected. 24V supply Output AN7 can be converted to supply external devices with 24 V=.
  • Page 18: Connection Auxiliary Relay Hirel-230V

    Connection auxiliary relay HIREL-230V Example: Connection to analogue outputs A7 and A8 Program outputs A7 and A8 as switching outputs. The auxiliary relay cannot be integrated in the module; it requires its own enclosure Fuse 6,3A fast HIREL-230V Mains 230V 50Hz HIREL-230V wiring diagram Both relay outputs are protected by the fuse on the relay module.
  • Page 19: Technical Data Uvr610S(-Od)-Modb

    Technical data UVR610S(-OD)-MODB All inputs Temperature sensors type PT1000, KTY (2 kΩ/25 °C), KTY (1 kΩ/ 25 °C), PT100, PT500, Ni1000, Ni1000TK5000 and room sensors RAS or RASPT, radiation sensor GBS01, thermocouple THEL, humidity sensor RFS, rain sensor RES01, pulses max. 10 Hz (e.g. for VSG flow rate transducer), voltage up to 3.3 V DC, resistance (1-100 kΩ), and as a digital input Inputs 5, 6...
  • Page 20: Tips On Troubleshooting

    Tips on troubleshooting Tech-support We offer our customers free support in the event of questions or issues with our products. Important: in order to answer your questions, we require the device serial number in every case. If you are unable to locate the serial number, help with finding it is available on our homepage: https:/ /www.ta.co.at/en/faq/serial-numbers/ You can submit your request on our homepage using the following link:...
  • Page 21 If the sensor is faulty, note the sensor type when replacing. While it is possible to use a different type of sensor, the parameters for that input also have to be set to suit the type of sensor used. The current standard type used by Technische Alternative is PT1000. KTY (2 kΩ) was the standard type until 2010/2011.
  • Page 22: Troubleshooting In The Can Network

    Troubleshooting – programming The manufacturer can assist you in troubleshooting if you have the correct documentation and suf- ficient data to hand. The following are indispensable for this: • a hydraulic scheme via fax or email (WMF, JPG), • the complete program via TAPPS file or at least the function data (*.dat file) by email, •...
  • Page 23 EU Declaration of conformity Document-No. / Date: TA19003 / 19.06.2019 Company / Manufacturer: Technische Alternative RT GmbH Address: A-3872 Amaliendorf, Langestraße 124 This declaration of conformity is issued under the sole responsibility of the manufacturer. Product name: UVR610S, UVR610S-OD, UVR610S-OD-MODB, UVR610K, UVR610K-OD...
  • Page 24 Note: The following warranty conditions do not in any way limit the legal right to warranty, but rather expand your rights as a consumer. 1. The company Technische Alternative RT GmbH provides a one-year warranty from the date of purchase for all the devices and parts which it sells. Defects must be reported immediately upon detection and within the guarantee period.

This manual is also suitable for:

Uvr610s

Table of Contents