There are a variety of other factors as well.
The Solar Panels have a life. As per the MNRE (Ministry of New and Renewable Energy), the Solar Panels must give atleast 90% of the rated output over a period of 10 years, while the output should not be any less than 80% of the rated output at the end of 25 years, to comply with the minimum specifications to be able to be MNRE Approved, and also, to be able to come under subsidy schemes of the government.
There is also a term called temperature coefficient of the Solar Panels. This value determines the reduction in power generation capacity above a nominal temperature of 25 degree celsius. It isn't possible that where there's sunlight, there won't be any heat. Usually these temperature coefficients vary depending on the quality of the solar cells used in the panel, and thus can vary from ~-0.38% per degree C to ~-0.5% per degree C. That means that for every increment of 1 degrees in temperature above 25 degree, a 100 watt panel, at a temp. coefficient of -0.5%, will lose .5 watts of its power generation capacity. That number increases to 10 watts at a normal temperature of 45 degrees.
To clear it, the reduction in power generation capacity is temporary and depends on the environmental conditions. I'm posting all this info because, I would like you to be aware of all these constraints before you go for the kill. It's an expensive one. So be wise with your decision.
As per your assumption goes, it's nothing technology. You can connect the panels directly with that DC AC and you should be good to go. The only thing is its availability. Moreover, there might be a certain threshold limit, which is required for that AC to function properly. If not met, it might not work properly, or even worse, may fail altogether.