I am looking for factorization of polynomials of several variables in the way outlined below.

Consider a second degree polynomial of two variables over the complex numbers.

P(x,y) 


"P(x,y) = Ax^2 + Bxy + Cy^2 + Dx + Ey + F" (see the edit below)

Experimenting with some polynomials of this sort showed me that factorization is possible in the following way.

P(x,y) 

     "P(x,y) = (ax + by + c)(dx + ey + ff)"  (see the edit below) ,


the coefficients being over the complex numbers. 

So, given an nth degree polynomial in n variables without a constant term, is it always possible to factorize it into n linear factors each having  n variables in the above way? (This rings  bells  about the fundamental theorem of algebra) algebra). 

Please suggest a reading material or journal, if any.

[EDIT: I am sorry, I erred. I have edited my question. The edit is that the polynomial has no constant term:

                  P(x,y) = Ax^2 + Bxy + Cy^2 + Dx + Ey

and in the expected factorization, the last linear factor does not have a constant term, too:

   P(x,y) = (ax + by + c)(dx + ey + f) ]

I kept the original question as it is for documentation purposes. 

        

I am looking for factorization of polynomials of several variables in the way outlined below.

Consider a second degree polynomial of two variables over the complex numbers.

P(x,y) = Ax^2 + Bxy + Cy^2 + Dx + Ey + F

Experimenting with some polynomials of this sort showed me that factorization is possible in the following way.

P(x,y) = (ax + by + c)(dx + ey + f) , the coefficients being over the complex numbers.

So, given an nth degree polynomial in n variables, is it always possible to factorize it into n linear factors each having n variables? (This rings bells about the fundamental theorem of algebra)

Please suggest a reading material or journal, if any.