$\backslash$table$[[,$Jan,Feb,March,April,May,June,July,Aug,Sept,Oct,Nov,Dec$],[S(kW\frac{b}{m^2}),7\mathrm{.}5,6\mathrm{.}3,6\mathrm{.}5,6\mathrm{.}9,7\mathrm{.}4,7\mathrm{.}6,8\mathrm{.}2,8\mathrm{.}1,7\mathrm{.}5,4\mathrm{.}7,6\mathrm{.}2,7\mathrm{.}1]]$

A rural community is to be powered with energy supplied fully by a photovoltaic system. The average daily electrical load is as shown in the following table:

$\backslash$table$[[$Time$,\backslash$table$[[$Consumption$],[($kWh$)]]],[0000,220],[0100,220],[0200,200],[0300,190],[0400,180],[0500,230],[0600,320],[0700,450],[0800,400],[0900,420],[1000,440],[1100,430],[1200,420],[1300,440],[1400,450],[1500,500],[1600,540],[1700,590],[1800,750],[1900,830],[2000,780],[2100,810],[2200,650],[2300,420]]$

You are being asked to size the PV system to fally power the load with a minimum of $1$ day battery autonomy using the solar insolation and load data supplied.

Assume battery coulomb efficiency is $85\%$ and depth of discharge is $80\%,$ Temperature and Discharge rate factor $($Cap$)$ value of $90\%$ and an inverter efficiency of $95\%.$ See PV module specification sheets attached, you are free to choose any of the modules given on the attached specification sheets $($pages $5$ & $6).$ Ignore module cost.

Your response must include:

PV panel name and rating.

$[2$ marks$]$

The number of PV modules, number in series and number in parallel.

$[16$ marks$]$

The system de woltage.

$[2$ marks$]$

The total battery capacity required in Ah $.$

$[10$ marks$]$