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The 32 pages that link to Suspension bridge, each with the reason it gives.

• Cable-stayed bridgeCompared with: Its main cables carry the deck load indirectly, unlike direct tower-to-deck stays.

• Arch bridgeCompared with: Suspension bridges use cables in tension to achieve spans beyond most arch bridges.

• BridgeBroader topic: Main cables support long spans by carrying tension.

• CantileverCompared with: Its suspended load path contrasts with the cantilever bridge’s projecting, bending members.

• CatenaryBroader topic: Its main cables approximate a catenary when their own weight dominates.

• Bridge pierCompared with: Its main span relies on cables and towers rather than intermediate piers.

• Brooklyn BridgeNarrower topic: The Brooklyn Bridge combines suspended roadway cables with unusually strong diagonal stays.

• Hong Kong–Zhuhai–Macau BridgeNarrower topic: Long cable-supported spans allow the route to cross navigable waters.

• Golden Gate BridgeNarrower topic: The bridge uses this form to carry traffic across the strait.

• Akashi Kaikyo BridgeNarrower topic: The Akashi Kaikyo Bridge carries its roadway through this structural form.

• Bridge towerCompared with: Its tower-supported main cables differ from the direct deck-to-tower stays of cable-stayed designs.

• Tension (physics)Broader topic: The main cables and suspenders carry loads through tensile forces.

• Bridge deckRelated: The deck transfers traffic loads through hangers to the suspension cables.

• Main cableNarrower topic: The main cable is the defining load-bearing element of this bridge type.

• Thomas TelfordNarrower topic: Telford’s Menai bridge applied this structural form to a major road crossing.

• Bridge anchorageNarrower topic: Its cable system creates the large horizontal pull that the anchorage must resist.

• Sydney Harbour BridgeCompared with: Unlike a suspension bridge, this crossing carries loads through a steel arch.

• Menai Suspension BridgeNarrower topic: The Menai bridge is an early landmark in this structural family.

• Verrazzano–Narrows BridgeNarrower topic: The bridge’s main span uses this structural system to cross the Narrows.

• Bosphorus BridgeNarrower topic: The Bosphorus Bridge uses this structural form to span the strait.

• George Washington BridgeNarrower topic: Its main cables and suspenders carry the bridge decks across the Hudson.

• Humber BridgeNarrower topic: The Humber Bridge carries its roadway from cables draped over two towers.

• Manhattan BridgeNarrower topic: The Manhattan Bridge uses this structural form, with stiffening trusses supporting its deck.

• Pontoon bridgeCompared with: Suspension bridges transfer loads to towers and shore anchors rather than floating supports.

• Great Belt BridgeNarrower topic: The Great Belt Bridge is a suspension bridge, with its deck hung from two main cables.

• Great Seto BridgeNarrower topic: Several major spans use this form to cross navigable channels.

• Mackinac BridgeNarrower topic: The Mackinac Bridge’s main span uses this structural form.

• San Francisco–Oakland Bay BridgeNarrower topic: The western span uses suspension construction to cross deep water.

• Trestle bridgeCompared with: Suspension bridges cross long gaps without the close-spaced supports typical of trestles.

• Eurasian penduline titCompared with: Both rely on suspended loads, though the nest uses flexible fibers rather than bridge cables.

• Intercontinental and transoceanic fixed linksBroader topic: Its long spans can cross wide channels while keeping the structure above shipping lanes.

• Lami's theoremBroader topic: At an idealized hanger junction, cable tension and load can form a three-force equilibrium.