Superconducting magnets enable magnetic fields beyond 2 Tesla, surpassing the limits of normal-conducting magnets. These magnets are dominated by the field generated in the coil, with stored energy and electromagnetic forces being key challenges in their design. High magnetic fields require large currents, often exceeding 10^5 A, and the field quality must be extremely homogeneous, with a homogeneity of less than 10^-4. Superconducting magnets are used in particle accelerators to bend and focus particle beams, with designs varying based on the required field strength and geometry. Superconducting materials, such as Nb-Ti and Nb3Sn, are used to construct these magnets. Nb-Ti is suitable for fields up to 10 T, while Nb3Sn can reach up to 16 T. High-temperature superconductors (HTS), like BSCCO and ReBCO, offer higher field capabilities but are more expensive and complex to produce. Superconducting cables, such as Rutherford cables, are essential for delivering high currents efficiently. Designing superconducting magnets involves careful consideration of coil geometry, electromagnetic forces, and stress distribution. Common coil types include cosθ coils, block coils, and canted cosθ coils. These designs must balance field quality, conductor usage, and mechanical stability. Pre-stress techniques, such as collars, shrinking cylinders, and shell-bladder systems, are used to maintain coil position and prevent deformation under electromagnetic forces. Operating superconducting magnets requires precise control of temperature, current, and magnetic field quality to prevent quenches, which can cause catastrophic failure. Quench protection systems are essential to manage thermal runaway and ensure safe operation. High-field magnet development programs are ongoing, aiming to push the limits of magnetic field strength and efficiency for future accelerators.Superconducting magnets enable magnetic fields beyond 2 Tesla, surpassing the limits of normal-conducting magnets. These magnets are dominated by the field generated in the coil, with stored energy and electromagnetic forces being key challenges in their design. High magnetic fields require large currents, often exceeding 10^5 A, and the field quality must be extremely homogeneous, with a homogeneity of less than 10^-4. Superconducting magnets are used in particle accelerators to bend and focus particle beams, with designs varying based on the required field strength and geometry. Superconducting materials, such as Nb-Ti and Nb3Sn, are used to construct these magnets. Nb-Ti is suitable for fields up to 10 T, while Nb3Sn can reach up to 16 T. High-temperature superconductors (HTS), like BSCCO and ReBCO, offer higher field capabilities but are more expensive and complex to produce. Superconducting cables, such as Rutherford cables, are essential for delivering high currents efficiently. Designing superconducting magnets involves careful consideration of coil geometry, electromagnetic forces, and stress distribution. Common coil types include cosθ coils, block coils, and canted cosθ coils. These designs must balance field quality, conductor usage, and mechanical stability. Pre-stress techniques, such as collars, shrinking cylinders, and shell-bladder systems, are used to maintain coil position and prevent deformation under electromagnetic forces. Operating superconducting magnets requires precise control of temperature, current, and magnetic field quality to prevent quenches, which can cause catastrophic failure. Quench protection systems are essential to manage thermal runaway and ensure safe operation. High-field magnet development programs are ongoing, aiming to push the limits of magnetic field strength and efficiency for future accelerators.