Step 1: Understand the function of transverse bulkheads.
Transverse bulkheads are structural elements placed perpendicular to the ship's longitudinal axis. They resist forces acting laterally on the hull and provide rigidity to minimize deformation caused by external forces.
Step 2: Analyze racking.
Racking refers to the deformation of the ship's hull due to lateral forces (e.g., waves or cargo shifts) that create a parallelogram-like distortion. Transverse bulkheads resist racking by maintaining lateral rigidity and preventing excessive deformation.
Step 3: Analyze torsion.
Torsion occurs due to twisting forces along the longitudinal axis of the ship, often caused by asymmetrical wave loading. While longitudinal structures play a significant role, transverse bulkheads assist in resisting torsion by contributing to the overall structural integrity of the ship.
Step 4: Analyze other distortions.
Longitudinal bending (Option C): This is caused by uneven loading or wave-induced forces and is resisted primarily by the keel and longitudinal girders, not transverse bulkheads. Horizontal bending (Option D): This results from uneven lateral forces and is resisted by side structures, not transverse bulkheads.
Conclusion: The hull distortions resisted by a ship's transverse bulkhead are racking and torsion.
A ship with a standard right-handed coordinate system has positive \(x\), \(y\), and \(z\) axes respectively pointing towards bow, starboard, and down as shown in the figure. If the ship takes a starboard turn, then the drift angle, sway velocity, and the heel angle of the ship for a steady yaw rate respectively are: 
The GZ curve for a stable ship is shown in the figure, where \( P \) is a point of inflection on the curve. Match the labels in Column 1 with the corresponding descriptions in Column 2. 
A ship with a standard right-handed coordinate system has positive \(x\), \(y\), and \(z\) axes respectively pointing towards bow, starboard, and down as shown in the figure. If the ship takes a starboard turn, then the drift angle, sway velocity, and the heel angle of the ship for a steady yaw rate respectively are: 
The GZ curve for a stable ship is shown in the figure, where \( P \) is a point of inflection on the curve. Match the labels in Column 1 with the corresponding descriptions in Column 2. 