t section 62 it will thus be seen that the undesired phase shifts caused by the t section 62 in the embodiment of fig5 are replaced by the desired phase shifts of stubs 46 and 52 in the embodiment of fig6 further the embodiment of fig6 can easily be plugged into existing antenna feedlines 30 and 32 without the need for flexible feedlines or connectors in a typical application the power flowing to each antenna can be as high as 4000 watts in the above described embodiments the maximum voltage at the open end of capacitive stub 46 will only be 411 volts while the maximum current at the short circuited end of inductive stub 52 will only be 4 74 amperes for this power the above embodiments will easily handle these requirements in the embodiments of fig2 and 6 as described above input line 22 output lines 30 and 32 and the antennas were all assumed to have the same impedance e g 50 ohms stubs 46 and 52 each have a signed value of reactance that increases with increases in frequency i e a graph of reactance versus frequency has a positive slope this causes the ar to increase to about 1 db at the band edges 174 and 216 mhz of a high vhf band embodiment as shown by curve 72 in fig8 which is a graph of ar in db versus frequency in mhz fig7 shows another embodiment of the invention with improved ar as shown therein input line 22 having a characteristic impedance of 75 ohms is coupled to a 75 ohm to 75 ohm hybrid 74 in accordance with one of the above described embodiments i e the.