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General| Brand | meteocontrol |
|---|---|
| Model | blue’Log X-1000 |
| Category | Other |
| Language | English |
Safety instructions warn of dangers and how to avoid them, classified by risk severity.
Highlights particular dangers using warning symbols, such as electrical hazards.
Indicates notes, additional information, and tips using a specific symbol.
Explains formatting for emphasized points, lists, instructions, and button names.
Details the scope, form, and period of warranty and meteocontrol GmbH's liability.
Specifies permitted signals and signal strengths for data logger and expansion modules, indoor installation.
States that installation and maintenance must be performed by qualified electricians.
Outlines protections: no SD card removal, no opening or modification of the blue'Log.
Ensures safe transport with special packaging and checks for damage upon delivery.
Describes the internal lithium battery for time/date storage, requiring service for replacement.
Details cleaning the exterior with a dry cloth or slightly damp cloth, unplugging first.
Compares blue'Log X-1000, X-3000, and X-6000 regarding power and storage capacity.
Identifies and describes all components and ports on the blue'Log front panel.
Illustrates and labels the rear panel, including the clamp for DIN rail mounting.
Explains the meaning of the three front panel LEDs: power, system status, and portal connection.
Warns about electrocution risk, incorrect cabling, and overvoltage damage during installation.
Recommends cable types and lists restrictions for power supply and device connections.
Provides steps for installing the device on a DIN rail, including secure mounting.
Explains how to expand functionality using MX modules and the connection process.
Details power supply requirements (20-60 V DC, max. 80 W) and safety standards.
Specifies the 24 V DC voltage output and current limitations for supplying sensors.
Describes connecting to a PC/laptop or hub/switch via an Ethernet patch cable.
Explains the four configurable multi inputs for analog or digital signals.
Lists configurations for digital inputs: pulse input (S0) and voltage level input.
Details digital output configurations: open collector and voltage output.
Used for connecting communication devices via RS485/422 bus, with automatic adaptation and termination.
Used for connecting communication devices via the CAN bus, with switchable termination.
Provides a service interface for restoring or updating device software (firmware).
Device must be securely mounted and cables correctly connected for startup.
Steps for commissioning: switch on power, wait for boot, check status LED.
Covers Ethernet, bus device, and analog/digital input connections.
Covers start menu, language settings, and user selection via the device display.
Covers DHCP and static network parameter configuration via the device display.
Steps to update firmware using a USB stick, including system update or new installation.
Navigating to view installed licenses on the device.
Accessing device configuration and status via web browser using IP address or hostname.
Configuring PV system data and logger details like serial number and recording interval.
Configuring network settings (DHCP, IP, subnet, gateway, DNS) via the Ethernet menu.
Displays connected MX modules and notes installation order requirements.
Setting up and managing user accounts with different access rights (service, user).
Viewing available licenses and uploading new license files.
Configuring time synchronization via system settings, user-defined server, or manual input.
Steps to register the blue'Log data logger with an existing or new system on the portal.
Setting reporting intervals (regular or at set times) to the online portal.
Sending measurement data to an independent FTP server with configurable interval settings.
Checking for and applying new firmware updates via the device website.
License option to increase FTP data transmission frequency to 60, 15, or 5 minutes.
Guide to adding analog sensors via the device website, selecting model and configuring parameters.
Steps to add S0 and Modbus meters via the device website, including interface configuration.
Steps to add inverters by scanning the bus interface, selecting manufacturer and model.
Adding string measuring systems, selecting ports and configuring RS485/422 interface.
Adding battery systems, selecting model, port (Ethernet), and device address.
Displays a list of registered alarms with time, device name, type, error code, and severity.
Managing contact addresses for e-mail notifications, including adding, editing, and deleting contacts.
Enabling monitoring, selecting contacts for e-mail notifications, and portal synchronization for alarms.
Selecting sensors and measured values to display historical data in diagrams or real-time.
Selecting meters and measured values for visualization in diagrams or real-time.
Selecting inverters and measured values for visualization in diagrams or real-time.
Selecting string measuring systems and values for visualization in diagrams or real-time.
Selecting battery systems and values for visualization in diagrams or real-time.
Selecting categories and values for visualization in Power Control diagrams or real-time.
Lists system events with time, type, error code, and description for monitoring.
Overview of Power Control system for grid feed-in management of photovoltaic systems.
Receiving grid operator specs, determining control values, transferring to inverters, and reporting.
How grid operator specifications for active power are transferred via digital or analog signals.
Describes active and reactive power procedures for grid feed-in management.
Instructions for accessing the Power Control website via the 'PV system' menu.
Covers general settings including selecting the data logger mode (Standalone, Master, Slave).
Inputting essential system data like agreed power, nominal voltage, and apparent power.
Selecting active power procedures and configuring options like IPL and gradient limitation.
Using digital inputs for active power control, assigning bitmasks to percentage target values.
Using analog input signals for active power control, calculated via a two-point linear equation.
Setting a fixed active power limit as the control value for permanent power limitation.
Enables active power regulation (closed control loop) considering power flows and on-site consumption.
Limits maximum change in active power over time, following a linear course defined by gradient.
Limits feed-in active power to the agreed value, using analyzer/meter readings for dynamic activation.
Sets a constant active power value to be sent to inverters in case of errors.
Determining target values for reactive power control using various procedures and options.
Uses displacement factor cosφ as control value via digital input signals and bitmasks.
Uses displacement factor cosφ as control value via analog input signals, calculated via linear equation.
Uses a constant cosφ displacement factor as the control value, saved as a configurable constant.
Influences grid feed-in power by changing displacement factor, using characteristic curves.
Influences grid voltage by changing displacement factor, using characteristic curves.
Uses reactive power Q as control value via digital input signals and bitmasks.
Uses reactive power Q as control value via analog input signals, calculated via linear equation.
Uses a constant percentage reactive power Q as the control value, saved as a configurable constant.
Influences grid voltage by changing reactive power Q, using characteristic curves.
Sets reactive power Q according to recorded active power P and stipulated tanφ.
Uses reactive power Q related to cosφ via digital input signals and active power P for conversion.
Uses reactive power Q related to cosφ via analog input signals and active power P for conversion.
Uses a constant cosφ displacement factor for reactive power Q control value, converted using active power P.
Derives cosφ value from target value, converts to reactive power Q, influencing active power P.
Derives cosφ value from target value, converts to reactive power Q, influencing grid voltage U.
Describes error handling and fallback procedures for reactive power control.
Limits maximum change in reactive power within a period, following a linear course defined by gradient.
Enables reactive power regulation in a closed loop, considering transformer requirements.
Checklist for verifying the correct configuration of Power Control procedures and settings.
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