A method of wireless communication performed by a first base station (106, 204, 208, 610, BS2), comprising: determining a first channel (H 13) between a second base station (106, 204, 208, 610, BS1) and a first user equipment (102, 206, 650, UE 3), UE, served by a third base station (106, 204, 208, 610, BS3); determining a second channel (H 23) between the first base station (106, 204, 208, 610, BS2) and the first UE (102, 206, 650, UE3); determining a first direction vector (V 1) to be used by the second base station (106, 204, 208, 610, BS1) for sending a data transmission; determining a first proximity of the first base station (106, 204, 208, 610, BS2) to the first UE (102, 206, 650, UE3); determining a second proximity of the first base station (106, 204, 208, 610, BS 2) to a third UE (102, 206, 650, UE 4) served by a fourth base station (106, 204, 208, 610, BS 4) determining that the first proximity is less than the second proximity; transmitting a set of resource blocks to a second UE (102, 206, 650, UE2) served by the first base station (106, 204, 208, 610, BS2) with a second direction vector (V 2) determined based on the first channel (H 13), the second channel (H 23), and the first direction vector (V 1) to be used by the second base station (106, 204, 208, 610, BS1); and determining, based on the determination that the first proximity is less than the second proximity, to transmit the set of resource blocks with said second direction vector, the transmitted set of resource blocks being an interference signal received at the first UE (102, 206, 650, UE3) from the first base station (106, 204, 208, 610, BS2), to align with the first direction vector of the data transmission of the second base station (106, 204, 208, 610, BS1), which is an interference signal received at the first UE (102, 206, 650, UE3) from the second base station (106, 204, 208, 610, BS1). determining a first channel (H 13) between a second base station (106, 204, 208, 610, BS1) and a first user equipment (102, 206, 650, UE 3), UE, served by a third base station (106, 204, 208, 610, BS3); determining a second channel (H 23) between the first base station (106, 204, 208, 610, BS2) and the first UE (102, 206, 650, UE3); determining a first direction vector (V 1) to be used by the second base station (106, 204, 208, 610, BS1) for sending a data transmission; determining a first proximity of the first base station (106, 204, 208, 610, BS2) to the first UE (102, 206, 650, UE3); determining a second proximity of the first base station (106, 204, 208, 610, BS 2) to a third UE (102, 206, 650, UE 4) served by a fourth base station (106, 204, 208, 610, BS 4) determining that the first proximity is less than the second proximity; transmitting a set of resource blocks to a second UE (102, 206, 650, UE2) served by the first base station (106, 204, 208, 610, BS2) with a second direction vector (V 2) determined based on the first channel (H 13), the second channel (H 23), and the first direction vector (V 1) to be used by the second base station (106, 204, 208, 610, BS1); and determining, based on the determination that the first proximity is less than the second proximity, to transmit the set of resource blocks with said second direction vector, the transmitted set of resource blocks being an interference signal received at the first UE (102, 206, 650, UE3) from the first base station (106, 204, 208, 610, BS2), to align with the first direction vector of the data transmission of the second base station (106, 204, 208, 610, BS1), which is an interference signal received at the first UE (102, 206, 650, UE3) from the second base station (106, 204, 208, 610, BS1).