<?xml version="1.0" encoding="utf-8"?>
<configuration>
  <configSections>
    <sectionGroup name="BlogGroup">
      <section name="solarSettings" type="System.Configuration.NameValueSectionHandler" />
      <section name="solarBoxSettings" type="System.Configuration.NameValueSectionHandler" />
      <section name="windSettings" type="System.Configuration.NameValueSectionHandler" />
      <section name="hydroSettings" type="System.Configuration.NameValueSectionHandler" />
      <section name="hybridSettings" type="System.Configuration.NameValueSectionHandler" />
      <section name="modules" type="System.Configuration.NameValueSectionHandler" />
      <section name="modulesInfo" type="System.Configuration.NameValueSectionHandler" />
      <section name="modulesBurger" type="System.Configuration.NameValueSectionHandler" />
      <section name="vid" type="System.Configuration.NameValueSectionHandler" />
      <section name="app" type="System.Configuration.NameValueSectionHandler" />
    </sectionGroup>
    <section name="ProductSettings" type="ConfigurationExample.ProductSettings, ConfigurationExample" />
  </configSections>
  <startup>
    <supportedRuntime version="v4.0" sku=".NETFramework,Version=v4.6.2" />
  </startup>
  <BlogGroup>
    <solarSettings>
      <add key="Solar1:11,12,15,13,16" value="Experiment-1 Measurement of Photovoltaic Panel Open Circuit Voltage" />
      <add key="Solar2:11,12,15,13,16" value="Experiment-2 Measurement of Photovoltaic Panel Short Circuit Current" />
      <add key="Solar3:11,12,15,13,16,3" value="Experiment-3 Photovoltaic Panel Current-Voltage Characteristics" />
      <add key="Solar4:11,12,15,13,16" value="Experiment-4 Examination of the No-Load Outputs of the Photovoltaic Panel Depending on the Sun's In-Day Movement" />
      <add key="Solar5:11,12,15,13,16,4" value="Experiment-5 Examination of the Fotovoltaic Panel's Loaded Outputs Depending on the Sun's In-Day Movement" />
      <add key="Solar6:11,12,15,13,16" value="Experiment-6 Examination of the No-Load Outputs Due to the Season Change of the Photovoltaic Panel" />
      <add key="Solar7:11,12,15,13,16,4" value="Experiment-7 Examination of the Loaded Outputs Due to the Season Change of the Photovoltaic Panel" />
      <add key="Solar8:11,12,15,13,16,3" value="Experiment-8 Examination of the Series Connection of Photovoltaic Panel" />
      <add key="Solar9:11,12,15,13,16,3" value="Experiment-9 Examination of the Parallel Connection of Photovoltaic Panel" />
      <add key="Solar10:11,12,16,3,13" value="Experiment-10 Examination of Shadow Effect in Photovoltaic Panel" />
      <add key="Solar11:11,12,15,13,16,3" value="Experiment-11 Examination of Effect of Bypass Diode in Photovoltaic Panels" />
      <add key="Solar12:11,12,15,13,16,3,21" value="Experiment-12 Examination of Solar Panel Simulator" />
      <add key="Solar13:11,12,15,13,16" value="Experiment-13 Examination of Mismatching Effect in Photovoltaic Panels" />
      <add key="Solar14:11,12,15,13,16,6,18" value="Experiment-14 Examination of the Effect of Blocking Diode in Photovoltaic Panels" />
      <add key="Solar15:11,12,15,13,16,9" value="Experiment-15 Direct Load Connection to Photovoltaic Panels" />
      <add key="Solar16:11,12,15,13,20,21,10,6" value="Experiment-16 No-Load Commissioning of Off-Grid Inverter" />
      <add key="Solar17:11,12,15,13,16,21,7,6,9" value="Experiment-17 Installation of a Basic Photovoltaic System with DC Load" />
      <add key="Solar18:11,12,15,13,16,21,20,7,6,10,9" value="Experiment-18 Installation of a Basic Photovoltaic System with AC Load" />
      <add key="Solar19:11,12,15,13,21,20,6,10,9,7,14,17" value="Experiment-19 Examination of Off-Grid Inverter Output Signal with DAQ Module" />
      <add key="Solar20:11,12,15,13,21,20,14,9" value="Experiment-20 Examination of Measurement of Off-Grid Inverter Output Signal with Energy Analyser" />
      <add key="Solar21:11,12,15,13,20,23,21,9,14" value="Experiment-21 Measurement of Energy Received from Off-Grid Inverter" />
      <!--<add key="Solar22:11,12,15,25,20,16,9" value="Measuring Off-Grid Inverter Output Power and Efficiency"/>-->
      <add key="Solar24:11,12,15,13,6,19,16,21" value="Experiment-22 Exemination of On-Grid Invertor" />
    </solarSettings>
    <windSettings>
      <add key="Wind1:1,11,12,15,1,16,10" value="Experiment-1 Examination of the Relation between Wind Speed and Turbine Operation" />
      <add key="Wind2:1,11,12,15,1,16,10,3,2" value="Experiment-2 Oscilloscope Examination of Variable Load Wind Turbine Charge Control System" />
      <add key="Wind3:1,11,12,15,1,16,10,6,2,3" value="Experiment-3 Examination of Variable Load Wind Turbine Charge Control System with Battery" />
      <add key="Wind4:1,11,12,1,17,10,15,16,2" value="Experiment-4 Examination of Wind Turbine Output Voltage with DAQ Module" />
    </windSettings>
    <hydroSettings>
      <add key="Hydro1:22,11,12,15,16,10,3" value="Experiment-1 Examination of Hydrogen Fuel Cell Output Voltage with Oscilloscope" />
      <add key="Hydro2:22,11,12,15,16,10,3" value="Experiment-2 Examination of Hydrogen Fuel Cell Output Voltage Under Load with Oscilloscope" />
      <add key="Hydro3:22,11,12,15,16,10,3" value="Experiment-3 Examination of Output Voltage from Hydrogen Fuel Cell DC/DC Converter using an Oscilloscope" />
      <add key="Hydro4:22,11,12,15,16,10,3" value="Experiment-4 Examination of Hydrogen Fuel Cell DC/DC Converter Output Voltage Under Load with Oscilloscope" />
    </hydroSettings>
    <hybridSettings>
      <add key="Hybrid1:11,12,1,13,27,26,3" value="Experiment-1 Extraction of the Performance Characteristics of the Solar Panel andWind Turbine Using the Hybrid Charge Control Module" />
      <add key="Hybrid2:11,12,1,13,27,26,6" value="Experiment-2 Investigation of the Solar Panel and Wind Turbine Under Load Using the Hybrid Charge Control Module" />
      <add key="Hybrid3:11,12,1,13,27,26,3,24" value="Experiment-3 Investigation of Current Limiting for the Solar Panel and Wind Turbine via the Hybrid Charge Controller" />
      <add key="Hybrid4:11,12,1,13,27,26,20,8,10,6" value="Experiment-4 Connection of the Solar Panel and Wind Turbine to an Off-Grid System via the Hybrid Charge Controller" />
      <add key="Hybrid5:11,12,1,13,27,26,19,23,6" value="Experiment-5 Connection of the Solar Panel and Wind Turbine to an On-Grid System via the Hybrid Charge Controller" />
    </hybridSettings>
    <solarBoxSettings>
      <add key="SolarBox1:28" value="Experiment-1 Measurement of Photovoltaic Panel Open Circuit Voltage " />
      <add key="SolarBox2:28" value="Experiment-2 Measurement of Photovoltaic Panel Short Circuit Current " />
      <add key="SolarBox3:28" value="Experiment-3 Photovoltaic Panel Current-Voltage Characteristics" />
      <add key="SolarBox4:28" value="Experiment-4 Examination of the No-Load Outputs of the Photovoltaic Panel Depending on the Sun's In-Day Movement " />
      <add key="SolarBox5:28" value="Experiment-5 Examination of the Photovoltaic Panel's Loaded Outputs Depending on the Sun's In-Day Movement" />
      <add key="SolarBox6:28" value="Experiment-6 Examination of the No-Load Outputs Due to the Season Change of the Photovoltaic Panel" />
      <add key="SolarBox7:28" value="Experiment-7 Examination of the Loaded Outputs Due to the Season Change of the Photovoltaic Panel" />
      <add key="SolarBox8:28" value="Experiment-8 Examination of the Series Connection of Photovoltaic Panel" />
      <add key="SolarBox9:28" value="Experiment-9 Examination of the Parallel Connection of Photovoltaic Panel" />
      <add key="SolarBox10:28" value="Experiment-10 Examination of Shadow Effect in Photovoltaic Panel" />
      <add key="SolarBox11:28" value="Experiment-11 Examination of Effect of Bypass Diode in Photovoltaic Panels" />
    </solarBoxSettings>

    <modules>
      <add key="1" value="WIND SIMULATOR MODULE" />
      <add key="2" value="WIND TURBINE CHARGE CONTROLLER MODULE" />
      <add key="3" value="ELECTRONIC POTENTIOMETER MODULE" />
      <add key="4" value="POTENTIOMETER MODULE" />
      <add key="5" value="SOLAR PANEL SIMULATOR MODULE (Price of 2 Unit)" />
      <add key="6" value="ACCUMULATOR MODULE" />
      <add key="7" value="ANALOG MEASUREMENT MODULE" />
      <add key="8" value="LAMP MODULE (220V AC)" />
      <add key="9" value="LAMP MODULE (12V DC) " />
      <add key="10" value="ISOLATED MEASUREMENT MODULE" />
      <add key="11" value="MONOPHASE SWITCHING MODULE" />
      <add key="12" value="ENERGY DISTRIBUTION MODULE" />
      <add key="13" value="LIGHT SOURCE CONTROL MODULE" />
      <add key="14" value="AC ENERGY ANALYSER MODULE " />
      <add key="15" value="PC INTERFACE MODULE" />
      <add key="16" value="AC-DC MEASUREMENT MODULE" />
      <add key="17" value="DATA ACQUISITION MODULE" />
      <add key="18" value="DIODE MODULE " />
      <add key="19" value="ON-GRID INVERTER MODULE" />
      <add key="20" value="OFF-GRID INVERTER MODULE " />
      <add key="21" value="SOLAR CHARGE REGULATOR MODULE " />
      <add key="22" value="FUEL CELL MODULE" />
      <add key="23" value="ELECTRONIC ELECTRICITY METER MODULE" />
      <add key="24" value="ELECTRONIC LOAD MODULE " />
      <add key="25" value="DC POWER SUPPLY" />
      <add key="26" value="HYBRID CHARGE CONTROLLER MODULE" />
      <add key="27" value="AC/DC ENERGY ANALYSER MODULE" />
      <add key="28" value="SOLAR BOX" />
    </modules>
    <modulesInfo>
      <add key="1" value="The module regulates the speed of the engine employed in wind simulation within the laboratory experiments of the Wind Turbine Module. The two-mode switch allows for selection between Manual and PC operation. Whilst operating manually, engine speed adjustments are to be made via the potentiometer on the module.  When in PC mode, engine speed adjustments can be made through the PC Interface Module. To properly operate the computer, it is necessary to connect the (WS) RJ45 type connector with the appropriate connector on the PC Interface Module. The module is also equipped with a fuse to protect from overcurrent and an LED to indicate its energisation status. The module connections are established using 4mm binding post. Figure-26 displays a visual representation of the module, while Table-25 presents its features." />
      <add key="2" value="This module converts AC voltage produced by the dynamo of the Wind Turbine  Module into DC voltage. The AC input sockets of the module receive 3-phase AC voltage  from the dynamo. The module rectifies the 3-phase AC voltage generated by the rotation  power of the wind in the dynamo windings, thus allowing for it to be converted into DC  voltage. This DC voltage can be utilized to power devices or to charge the battery. When  wind speeds increase, the module initiates braking of the engine to avoid damage to the  turbine. The module connections are established using 4mm binding post. Figure-27 displays  a visual representation of the module, while Table-26 presents its features. " />
      <add key="3" value="The module is designed as an electronically adjustable load to be used in the  experiments to be installed. Module settings can be made by touch via 5 inch TFT LCD  screen. The resistance value of the module can be electronically adjusted between 0 ohms to  1000 ohms in 1 ohm increments with ± 1% tolerance. Fine and coarse adjustment is available  in the menus. It can be Sweep between the entered resistance values at the time interval  entered via the interface. All settings can be made from a computer thanks to the RS485  remote connection function using the PC Interface Module. When used from the computer,  the (EP) RJ45 type connector and the corresponding connector on the PC Interface Module  must be connected. The module is also equipped with a fuse to protect from overcurrent and  an LED to indicate its energisation status. The module connections are established using 4mm  binding post. Figure-17 displays a visual representation of the module, while Table-16  presents its features. " />
      <add key="4" value="The module has been designed as a manually adjustable analog load for use in  experiments. The module's potentiometer is rated at 1KΩ / 500W and can be precisely  adjusted by hand to various resistance values.  From the module;   Maximum 6A across 0-50 ohms   Maximum 2A across 51-200 ohms   Maximum 600mA across 201-1K ohms  Care should be taken to set up the experiments so that the circuit current flows for safe  operation. The module connections are established using 4mm binding post. Figure-16  displays a visual representation of the module, while Table-15 presents its features. " />
      <add key="5" value="The solar panel simulator module exhibits solar panel performance within closed  environments where solar energy operation is not feasible. It is intended for simulating the  series connection or parallel connection of solar panels, incorporating a bypass diode that  enables a clear demonstration of its effects. The module features two analogue measuring  instruments to monitor current and voltage levels. The module is equipped with a switch  which facilitates the testing of both 12V and 18V panels. Additionally, it includes a five-step  commutator to enable experiments across adjusting solar irradiance rates, spanning from  %100 to %20 as necessary. The module is also equipped with a fuse to protect from  overcurrent and an LED to indicate its energisation status. The module connections are  established using 4mm binding post. Figure-25 displays a visual representation of the module,  while Table-24 presents its features. " />
      <add key="6" value="The module has 12V / 10Ah current and voltage values. The module is equipped with a  Battery Management System and features a package structure made from Li-ion battery cells.  There is an external glass fuse on the module to protect it from short circuit. In order for the  experiments to be carried out properly, the battery must be charged. Charge and discharge  control of the package is provided by the BMS. To charge the module, adjust the DC Power  Supply Module to 15V with a current of 1.5A. Connect the positive terminal of the module to  the corresponding positive terminal of the Accumulator Module and the negative terminal to  its negative terminal. If the Accumulator Module is not yet charged, you will observe a  charging current displaying. BMS control ensures charging will continue until the  Accumulator Module is fully charged. Upon reaching full charge, the BMS will cut off the  current. If this process is repeated regularly, the long life of the Accumulator Module is  ensured When it reach the lower limit of its battery capacity in the use of our module, BMS  will cut the circuit current for safety. The module connections are established using 4mm  binding post. Figure-9 displays a visual representation of the module, while Table-8 presents  its features" />
      <add key="7" value="It is a general purpose module consisting of one Voltmeter and one Ammeter. In order  to avoid problems when using measuring instruments, connections should be made by paying  attention to the measurement ranges and current directions. An external glass fuse is added to  the module for the safety of the ammeter. The module connections are established using 4mm  binding post. Figure-12 displays a visual representation of the module, while Table-11  presents its features.  " />
      <add key="8" value="This is a multi-purpose load module featuring one energy-saving bulb and one LED  bulb. The two lamps can be controlled separately, and each lamp contains a fuse to protect  against high current values. It is crucial to avoid exceeding the 220VAC operating voltage to  prevent damage to the lamps. Please take note that the lamps can become hot during  operation. When operating under 220VAC, these two lamps draw approximately 0.22A of  current. The module connections are established using 4mm binding post. Figure-20 displays  a visual representation of the module, while Table-19 presents its features. " />
      <add key="9" value="This is a multi-purpose load module featuring one halogen bulb and one LED bulb. The  two lamps can be controlled separately, and each lamp contains a fuse to protect against high  current values. It is crucial to avoid exceeding the 12VDC operating voltage to prevent damage  to the lamps. Please take note that the lamps can become hot during operation. When  operating under 12VDC, these two lamps draw approximately 4.5A of current. The module  connections are established using 4mm binding post. Figure-19 displays a visual  representation of the module, while Table-18 presents its features.  " />
      <add key="10" value="The module offers electrical and optical isolation between the load and the signal source  for a secure and precise measurement. Moreover, it facilitates measurement with a  differential probe or a split chassis oscilloscope. The two-channel module enables  simultaneous analysis of load voltage and load current. Given text already adheres to the  principles. Therefore, answer would be 'Since X1, X0.1 and X0.01 stages provide attenuation  at the specified rates in the signal, the data read on the oscilloscope screen should be  multiplied by the appropriate coefficients. The module has a fuse for protection against  overcurrent and an LED to indicate the energisation status. The module connections are  established using 4mm binding post and BNC connectors. Figure-15 displays a visual  representation of the module, while Table-14 presents its features." />
      <add key="11" value="This module is responsible for switching the power on/off during experiments. To  ensure safety for both personnel and equipment, there is an on-off switch, a residual current  relay, and a breaker attached to the module. It is advised that this module be used prior to the  Energy Distribution module to ensure safety during work. The module connections are  established using 4mm binding post. Figure-5 displays a visual representation of the module,  while Table-4 presents its features. " />
      <add key="12" value="This module use for distributing energy to other modules in the training set. The energy  input is connected via 4mm binding post. The module features four IEC connectors and two  industrial sockets. Its energisation status can be easily observed through the module's LED.  Figure-6 displays a visual representation of the module, while Table-5 presents its features.  " />
      <add key="13" value="The Light Source Control Module has been designed to function alongside the Light  Angle Adjustable Solar Panel Module for use within laboratory environment. The inclusion  of two 75W halogen bulbs on the Light Angle Adjustable Solar Panel Module allows for  photovoltaic experiments to be conducted. To ensure accurate experimentation, it is necessary  to adjust the intensity of these light sources. The Light Source Control Module is specifically  employed to satisfy this requirement. The module enables solar simulation within a laboratory  environment, with a light intensity range of 0-10000 lux. The two-position switch can be used  to set it to manual or PC mode. In manual mode, the light intensity must be adjusted through  the potentiometer on the module. In the PC mode, the light intensity can be adjusted via the  PC Interface Module. For computer use, connect the RJ45 connector to the appropriate port  on the PC Interface Module. The module is also equipped with a fuse to protect from  overcurrent and an LED to indicate its energisation status. The module connections are  established using 4mm binding post. Figure-21 displays a visual representation of the module,  while Table-20 presents its features.  " />
      <add key="14" value="The module has been created for the purpose of measuring AC Current, AC Voltage,  Apparent Power, Real Power and Power Factor in experiments. The results of each  measurement are displayed on a 5 inch TFT LCD screen. The efficiency of electrical energy  relies on the amount of apparent power that can be utilized as energy. Whichmeans, the  quality of electrical energy is largely dependent on the elimination of non-linear components.  The energy analyser monitors the electrical energy gained in experiments, as well as the angle  difference and power loss caused by non-linear components. The collected measurements are  transferred to the computer via the RS485 remote connection feature using the PC Interface  Module. To transfer data to the computer, the (EA) RJ45 type connector, and the appropriate  connector on the PC Interface Module must both be connected. The module is also equipped  with a fuse to protect from overcurrent and an LED to indicate its energisation status. The  module connections are established using 4mm binding post. Figure-14 displays a visual  representation of the module, while Table-13 presents its features.  " />
      <add key="15" value="This module controls the modules via computer software designed for the training set. It  sends data to the computer through the USB port. The PC Interface Module communicates  with the other four peripheral modules via the RS485 protocol. The connection connectors are  of the RJ45 type. Connection connectors used for these;;   EA : Energy Analyser Module communication connector   MM : AC/DC Measurement Module communication connector   EP/EL : Electronic Pot / Electronic Load Modules communication connector  There are two analogue outputs available for the analogue controlled peripheral modules.  Connection connectors used for these;   LS : Light Source Control Module connection connector   WS : Wind Simulator Module connection connector  The module is equipped with a fuse to safeguard against overcurrent and an LED to indicate  its energisation status. Figure-11 displays a visual representation of the module, while  Table-10 presents its features. " />
      <add key="16" value="The AC/DC measurement module has been developed for conducting measurements in  experiments. The results of each measurement are displayed on a 5 inch TFT LCD screen.  The module is capable of measuring both AC and DC values. The selection of which to  measure is made by touch on the screen. Furthermore, the Voltmeter and Ammeter chassis are  insulated from each other for ensuring accurate measurements. The data is gathered and sent  to the computer via the Computer Interface Module, utilizing the RS485 remote connection  function To transfer data to the computer, connect the (MM) RJ45 type connector and the  appropriate connector on the Computer Interface Module. A fuse is utilized to safeguard the  ammeter input from overcurrent. The module is also equipped with a fuse to protect from  overcurrent and an LED to indicate its energisation status. The module connections are  established using 4mm binding post. Figure-13 displays a visual representation of the module,  while Table-12 presents its features. " />
      <add key="17" value="The module employs the NI6008 DAQ (Data Acquisition) card manufactured by a  National company. This card enables high-speed transfer of data to a computer via a USB  interface. The DAQ card can accept input data from both analog and digital sensors. It  processes and analyses this data using the computer's computing power. The card can  perform ADC (Analog to Digital Conversion) for the measurement of analog data. It can read  and trigger digital data and generate output data. This module enables the conducting of more  efficient experiments and tests by capturing instantaneous, clear data. It has the ability to  perform 12-bit measurements in differential connections and boasts a sampling rate of  10KS/s. The module connections are established using 4mm binding post. Figure-28 displays  a visual representation of the module, while Table-27 presents its features. " />
      <add key="18" value="The diode module comprises six 40V/3A Schottky. Each diode is independent of the  others and can be used in accordance with the experimental needs. The module connections  are established using 4mm binding post. Figure-10 displays a visual representation of the  module, while Table-9 presents its features.  " />
      <add key="19" value="The inverter module has grid-dependent functionality and initiates operation after  automatic synchronizing with the phase of the mains it is connected to. It converts a 11-32V  DC input voltage to 230V (190-260V) AC / 50-60Hz full sine signal. Its design enables it to  operate with DC power sources including direct solar panels, wind turbines, and battery  packs, utilizing the MPPT feature to convert and export power to the grid. When connecting  to the grid, it is recommended to use a bidirectional smart meter. Once the module is  connected and operating in accordance with the input-output values, both the Red and Green  LED will light up. The Red LED will then turn off, followed by the Green LED flashing  rapidly indicating the inverter's MPPT operation. If the Green LED stays on for an extended  period, it means that the Maximum Power Point has been locked. The inverter is equipped  with short circuit, low voltage, high voltage, and high temperature protection features. The  module connections are established using 4mm binding post. Figure-23 displays a visual  representation of the module, while Table-22 presents its features.  " />
      <add key="20" value="The inverter module has the ability to function independently from the grid. It converts  a 12V DC input voltage to a 220V-240V AC / 50Hz full sine signal. The module is governed  by an on/off switch and an energy indicator in the form of a Green LED. There is a Red LED  and buzzer on the module to indicate fault conditions.  In the event of a malfunction;   Low voltage switch-off protection: LED light and buzzer beeps 3 times intermittently.   Input high voltage protection: LED lights and buzzer beeps 4 times intermittently.   Over-temperature protection: LED lights and buzzer beeps 5 times continuously.,   Overload protection: LED lights and buzzer beeps 3 times continuously.   Short circuit protection: LED lights and the module switches on and off  Caution must be not connecting the inputs in reverse. The module features an earth  connection and output fuse for safe operation. The module connections are established using  4mm binding post. Figure-22 displays a visual representation of the module, while Table-21  presents its features.   " />
      <add key="21" value="The module is utilized smart PWM to charge the battery with the energy received from  the solar panels. If preferred, it is also possible to connect DC loads directly. The module's  charge regulator included automatic 12V/24V recognition technology and up to 50 volts of  panel voltage can be applied. The module connections are established using 4mm binding  post. Figure-8 displays a visual representation of the module, while Table-7 presents its  features.  " />
      <add key="22" value="The PEM Cell package and controller are utilised to convert electrical energy from  stored hydrogen for the purpose of conducting Hydrogen Energy experiments. Hydrogen  separation is carried out through the utilization of the HYDROFILL PRO refuelling station,  with the separated hydrogen then being stored in the HYROSTIK PRO fuel storage tank at 30  bar (435 PSI). The regulator, which is connected to the outlet of the tank, reduces pressurised  hydrogen to 0,4- 0,55 bar before it is applied to the PEM cell package. The H-30 PEM fuel  cell converts hydrogen into electrical energy within the 30W package. The output of the cell  is specified as 8,4V-3,6A. To maintain optimum performance, the cell requires the use of the  output controller. The output voltage of the controller is 11,8V. The hydrogen compressed in  the cell is discharged through the outlet valve at specific intervals, through the controller. The  controller also enhances the operating performance by momentarily short-circuiting the cell  every 10 seconds. The fans on the cell package prevent heating, and aid in the oxygenation of  the cell package. All of this ecosystem is brought together by the Hydrogen Fuel Cell Module.  The module connections are established using 4mm binding post. Figure-4 displays a visual  representation of the module, while Table-3 presents its features. " />
      <add key="23" value="This module comprises a bidirectional single-phase electronic meter, tailor-made for  industrial use. Thanks to its bidirectionality, this device enables accurate measurement of  electricity flow in both directions and monitors the time-dependent energy returned to the  grid. Additionally, it divides each day into 8 distinct periods, records the energy consumed  during 4 different tariffs and allows separate programming for weekdays, Saturdays and  Sundays. Another key feature of this device is its ability to store data without needing any  additional energy, thanks to its indelible memory. The module connections are established  using 4mm binding post. Figure-24 displays a visual representation of the module, while  Table-23 presents its features." />
      <add key="24" value="The module is designed as an electronically adjustable constant current source for use in  experiment. The module settings can be made by touch via a 5'' TFT LCD screen. Using the  touch screen and the designed interface, the current to be fixed by the load can be adjusted to  the desired value. The module should be connected to the power source to be tested, paying  attention to the direction of the current. At this stage, the module will keep the current  constant even if the voltage produced by the source to be tested varies. The maximum input  voltage of our module is 24V and the maximum current is 6000mA. Using the Pc Interface  Module, all settings can be made from a computer thanks to the RS485 remote connection  function. When used from the computer an (EL) RJ45 type connector and the corresponding  connector on the PC Interface Module must be connected. The module is also equipped with  a fuse to protect from overcurrent and an LED to indicate its energisation status. The module  connections are established using 4mm binding post. Figure-18 displays a visual  representation of the module, while Table-17 presents its features. " />
      <add key="25" value="The module is designed to provide the external DC power supply required for  experiments. Its programmability is provided by the built-in OLED colour LCD screen. The  function settings are easily accessible on-screen via the rotary encoder. All changes, made in  real-time, reflect on the output. A screen lock function is present to forestall values alterations  caused by inadvertent touches during experiments. The pre-setting function is available that  prevents unwanted limit overruns. The module features protection against short circuits and  high current. Output voltagebetween 0-32VDC with ± 10mV resolution, output current value  can be set between 0-5,1ADC with ± 1mA resolution on the LCD screen. The current value  drawn from the source and the voltage value falling at the load can be instantly observed on  the LCD screen. Its energisation status can be easily observed through the module's LED.  The module connections are established using 4mm binding post. Figure-7 displays a visual  representation of the module, while Table-6 presents its features. " />
      <add key="26" value="The Hybrid Charge Control Module rectifies the AC current generated by the wind turbine into DC current, providing an efficient charging solution by creating a load for the wind turbine. It operates in synchronization with solar panels, allowing the battery to be charged in a coordinated manner. In addition to rectifying the incoming current, the device also protects the battery from overcharging. The EA (Energy Analyzer) ports located on the module can be directly connected to the analyzer, enabling real-time monitoring of voltage, current, power, and energy generated by the system. For added safety, the module is equipped with a fuse to protect against overcurrent, and an LED indicator displays its power status. Module connections are established using 4mm binding posts. The switch on the module does not turn the module on or off; instead, it activates the braking mechanism of the wind turbine. The switch must always be kept in the '0' (off) position during normal operation!!!" />
      <add key="27" value="The AC/DC Energy Analyzer Module is designed to deliver precise measurements for both AC and DC energy during experiments. The results of each measurement are clearly displayed on a 7-inch TFT LCD screen, providing a user-friendly interface. The module features a versatile architecture capable of analyzing both alternating current (AC) and direct current (DC) energy. Thanks to this module, it is possible to measure: In DC circuits: voltage, current, power, and energy In AC circuits: voltage, current, power, energy, and power factor (cos φ) To ensure accurate and interference-free readings, the voltmeter and ammeter circuits are electrically isolated from each other.The collected data is transmitted to a computer via the Computer Interface Module, which uses the RS485 remote communication protocol. To transfer data, it is sufficient to connect an MM-type RJ45 connector to the appropriate port on the interface module.For safety purposes, a fuse is placed at the ammeter input to protect against overcurrent. In addition, a main fuse protects the entire module. The power status of the module can be monitored via an LED indicator. Connections to the module are made through 4 mm connection terminals. " />
      <add key="28" value="The Solar Test Box is a computer-assisted training tool designed for conducting experiments on the generation of electrical energy from solar resource. This versatile set consists of modular components, enabling a wide range of experiments using the same modules. In the design of these modules, careful attention has been given to utilizing industrial-grade components that are currently employed in the field. The entire system has been developed with a focus on aligning with educational environments and methodologies, prioritizing ease of use, safety, expandability, and modularity." />
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