• No results found

Project design for grid connected PV systems

N/A
N/A
Protected

Academic year: 2022

Share "Project design for grid connected PV systems"

Copied!
44
0
0

Loading.... (view fulltext now)

Full text

(1)

Overview of simulation software

• Overview of PVSyst software

• Overview of Helisocope software

• Overview of PVSol software

(2)

PVSyst software - Introduction

(3)

PVSyst software – Main features

(4)

Project design for grid connected PV systems

STEP 1:

Choose Project Design from the given section

(5)

Project design for grid connected PV systems

STEP 2:

Select Grid-

Connected System under the Project design tab.

(6)

Project design for grid connected PV systems

STEP 3:

Select meteo data

• Select New project and define

project’s name.

• Then select Site and Meteo under parameter

section….

(7)

STEP 3:

Select meteo data

• Define Geographical Coordinates for

particular location.

• and define

geographical location and meteo.

Project design for grid connected PV systems

(8)

Project design for grid connected PV systems

STEP 4:

Select tilt and orientation

Select Field type and define Field

Parameters i.e. Plane Tilt and Azimuth.

(9)

Project design for grid connected PV systems

STEP 5:

Configure system

• Specify the desired power or available area.

• Choose the PV module from the internal database.

(10)

Project design for grid connected PV systems

STEP 5:

Configure system

• Choose the inverter from the PVSyst database.

• Chose a

configuration, that allows you to

conduct a simulation

(11)

STEP 6:

Define various losses:

• Thermal parameters

• Ohmic losses

• Module quality Mismatch

• Soiling Loss

• IAM Losses

• Auxiliaries

• Degradation

• Unavailability

Project design for grid connected PV systems

(12)

Project design for grid connected PV systems

STEP 7:

Perform simulation After defining various loss parameters, perform simulation and generate results report.

(13)

Project design for grid connected PV systems

STEP 8:

Generate report After simulation is

complete generate report The report will provide monthly energy

generatiion, performance ratio and specific energy yield

(14)

Project design for grid connected PV systems

STEP 8:

Generate report After simulation is

complete generate report The report will provide monthly energy

generatiion, performance ratio and specific energy yield

(15)

Helioscope software - Introduction

(16)

Helioscope software - Main feautures

(17)

Helioscope software - Project design

STEP 1:

Start

Define Project Name, Address and Profile of the PV System and click on Create New Project.

(18)

Helioscope software - Project design

STEP 2:

Select design

Click on the New tab under Designs section to start designing your PV system.

(19)

Helioscope software - Project design

STEP 2:

Identify area for PV array installation

Select the exact location on the map.

Click on the New tab under mechanical section to draw field segment

(20)

STEP 3:

Select PV module Select PV module from the module library

Helioscope software - Project design

(21)

Helioscope software - Project design

STEP 4:

Select Tilt and Orientation

Choose azimuth, tilt, orientation and racking of the

system. And set the row spacing and module spacing accordingly.

(22)

Helioscope software - Project design

STEP 5:

Array layout

• Update the field segment to get system layout

• Get the capacity on your desired location.

(23)

Helioscope software - Project design

STEP 6:

Select an inviter Select Inverter from the library

(24)

Helioscope software - Project design

STEP 7:

Generate wiring Click at generate wiring to for strings connecting to

inverter

(25)

Helioscope software - Project design

STEP 8:

Generate Report

(26)

PVSOL

(Step by Step Design Process)

(27)

Key Features of PVSOL

Easy configuration

• Automatic determination of the best inverter configuration

• Manual adaptation of the configuration sophisticatedly supported Entering the PV module areas in various ways

• Determination of the number of modules and visualization of the module surface using a photo of the house

• Automatic module mounting on any roof type in a graphical 2D roof view

(28)

Cont….

Optimal evaluation and presentation of results:

• Yield simulation of grid-connected PV systems by the hour

• Detailed economic forecast including main parameters like yield payback time

• Configurable project documentation printout including .pdf export More Highlights

• Planning of PV systems with consumption, net metering and battery storage systems

• Calculation of AC losses DC losses and string losses

• Climate data selection using zip code or map, or your own climate data

(29)

Cont...

Always up to date

• Databases are regularly updated by the manufacturers (PV modules inverters)!

• Releases available regularly via program Internet update Optimal user support

• The clear structure of the input parameters allows the rapid completion of the project. Detailed settings are possible in sub- dialogs.

• Any dimensioning errors are avoided by entry verification

• Easy selection of products (PV modules, inverters) are possible via favorites.

(30)

Design Variables in PVSOL

The following are the variables used in PVSOL –

• PV modules & Inverters for grid connected and stand-alone systems

• Batteries

• MPP trackers

• Load profiles for electrical load

• Electrical appliances

• Climate data for the system site

• Tariffs for energy supplied to and drawn from the grid

• Mix for electricity from the grid and energy savings.

• Loans

(31)

Speed Buttons on Menu Tab

• Technical Data (only systems without 3D visualization)

• 3D visualization (only systems with 3D visualization)

• Climate Data Files

• Individual Appliances

• Appliances – Load Profile

• Shading

• Simulation

• Tariffs

• Economic Efficiency Calculation

• Annual Energy Balance

• Energy and Climate Data

• Summary Project Report

• Variant Comparison...

(32)

Choosing the Type of Solar PV Plant

(33)

Project Data

(34)

Climate Data/Location Selection

(35)

Input Energy Consumption

(36)

Transport the client to the roof

(37)

Module Selection

(38)

Inverter Selection

(39)

New Component Entry Format

(40)

Designing the Plant

(41)

Design: Cont…

(42)

Reporting Format

(43)

Graphical Interpretation of the Report

(44)

Financial Analysis

References

Related documents

Many exciting methods to control power are based on synchronous reference frame transformation, this method requires information on phase angle given by Phase-Locked loop (PLL).

In grid connected DMPPT, DMPPT converters shows first part of the PV system where the power which is produced from PV modules is transferred to the grid with the help of DC-AC

variation in the ambient temperature by keeping radiation constant at 2500 kWh/m 2 ... 55 Figure 48 Location of the commissioned MW-scaled, grid connected Solar PV Power Plants

The series APF uses Power Angle Control (PAC) scheme for compensating sag/swell, interruption and voltage related problems along with sharing a part of load

The harmonics due to pulsating modulation waveform can be reduced by connecting a low pass filter to output side of Full Bridge voltage source inverter.. The harmonics of low order

Generally to boost up the voltage level or else we can say to get the output voltage higher than the input, boost converters are used. However when

A single phase grid connected with a photovoltaic (PV) power system that will provide high voltage gain with state model analysis for the control of the system has

For the control of active and reactive power along with constant DC link voltage different control technique are used to the three phase grid connected voltage