Abstract: In summation, the invention is a design to connect float modules (2) to each other and/or to assembly units and/or to the superstructure. In a preferred embodiment, the invention is applied for pontoons (1) constructed of concrete float modules (2), where prismatic float modules (2) minimally include a monolithic upper plate (3), side walls (4) and/or frame units (6) arranged along the edges (5) of the float module (2) and float modules (2) are fixed to each other by means of longitudinal tension units (15) led through said float modules (2). For tension units (15), boreholes (8) are created in the side walls (4) or the frame units (6) of the float module (2) minimum at the edges (5) of the upper plate of the prism, intersecting the prism and running parallel with the edges (5). In particular cases, directional recesses (14) are created around the exit holes (9) of boreholes (8) with skew axes (Tx, Ty, Tz), running in different directions and meeting in the corners of float modules (2).

Abstract: In summation, the invention is a design to connect float modules (2) to each other and/or to assembly units and/or to the superstructure. In a preferred embodiment, the invention is applied for pontoons (1) constructed of concrete float modules (2), where prismatic float modules (2) minimally include a monolithic upper plate (3), side walls (4) and/or frame units (6) arranged along the edges (5) of the float module (2) and float modules (2) are fixed to each other by means of longitudinal tension units (15) led through said float modules (2). For tension units (15), boreholes (8) are created in the side walls (4) or the frame units (6) of the float module (2) minimum at the edges (5) of the upper plate of the prism, intersecting the prism and running parallel with the edges (5). In particular cases, directional recesses (14) are created around the exit holes (9) of boreholes (8) with skew axes (Tx, Ty, Tz), running in different directions and meeting in the corners of float modules (2).