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Steering oar

The steering oar, also known as the steering board, is an oversized oar or paddle mounted at the of a to control its direction, serving as the primary steering mechanism in before the development of the fixed . Typically positioned on the right side of the ship to accommodate right-handed operators, it allowed the to pivot the blade in the water to alter course, a method effective for smaller boats but increasingly inadequate for larger vessels as maritime technology advanced. This steering device has a long history spanning approximately 4,000 years, originating with ancient ships and persisting through various cultures, including , , and Viking fleets, until its gradual replacement in the medieval period. In Viking longships, for instance, the steering oar was secured to the starboard side via a specialized fastening that looped through the and around the , enabling precise control during high-speed maneuvers or rough seas. Its placement on the right influenced nautical terminology: the right side became known as starboard (from stéor-bord, meaning "steering side"), while the left side was termed port (originally larboard, but changed to avoid phonetic confusion with "starboard" and because ships often docked on that side to protect the oar). By the 11th century, as exemplified in William the Conqueror's 1066 invasion fleet, the steering oar remained in use but faced limitations with the rise of larger sailing ships, prompting the innovation of the sternpost around the , which offered greater stability and leverage. The transition marked a significant evolution in ship design, shifting from manual oar-based steering—often managed by a dedicated or —to more centralized systems like tillers and eventually wheels. Despite its obsolescence in modern navigation, the steering oar exemplifies early ingenuity in maritime engineering and continues to inform historical reconstructions and sailing terminology today.

Overview

Definition

A steering oar, also known as a steering board, is an oversized or large paddle used to control the direction of a ship or by a who manipulates its blade to alter the vessel's course. This device served as the primary means of steering before the invention of the fixed sternpost around the 1st century AD in during the , distinguishing it from earlier axial rudders or later hinged designs by its reliance on manual leverage rather than a fixed . Unlike modern rudders, which are integrated into the for , the steering oar was typically positioned at the and operated directly by human strength, providing directional control through deflection in the water. From the onward, the steering oar functioned as the standard steering mechanism on most vessels, with ships commonly equipped with one or two such oars lashed or pivoted to the quarters for enhanced maneuverability. It remained in widespread use for over 4,000 years, from and Near Eastern seafaring to medieval , until gradually supplanted by more efficient systems in the 12th and 13th centuries. The term "starboard," referring to the right side of a vessel, originates from the Old English "stéor-bord," meaning "steering board," as the oar was conventionally placed on the right side to keep the left free for beaching on shores, accommodating the right-handedness of most sailors. Specific examples illustrate its enduring application: by 1200 BC, Egyptian riverboats and seagoing vessels featured dual steering oars projecting from both stern quarters, improving control over and coastal waters. Similarly, Viking longships employed a single large steering oar on the starboard side through the , enabling precise handling during raids and explorations across the North Atlantic.

Basic Design

The steering oar consisted of several key components designed for effective water displacement and manual control. The , typically broad and flat to maximize against the water, often featured a swelling midway along its length on both sides to minimize wind resistance when the oar was stowed horizontally or at an . A heel-like extension or at the of the blade allowed it to fit snugly against the hull's curves in later designs, enhancing stability during pivoting. The formed the main connecting the blade to the upper elements, providing the structural backbone of the . At the top, the pommel served as a rounded for the helmsman's , sometimes with a for securing lines during under fittings like the epholkaion. An , a slender extension of the loom, offered additional for precise adjustments to the oar's . Attachment methods emphasized flexibility and security, allowing the oar to pivot as a while remaining fixed to the . In ancient Mediterranean ships, the was typically lashed to the starboard quarter using straps or ropes threaded through slots below the , enabling it to swing freely for . Threnus projections—stout wooden beams, often around 7 feet (2.1 meters) long—protruded from the and served as sockets into which the was inserted, braced vertically with twisted for torsional . These sockets, combined with epholkaia ( supports), prevented excessive movement while permitting the necessary range for directional control. Construction materials were selected for durability and availability, varying by region. In northern European vessels, such as Viking-era ships, the oar was crafted from for its strength and resistance to warping. Mediterranean examples, including those from contexts, utilized lighter woods like to reduce weight while maintaining rigidity. Lashings were invariably made of or to accommodate the oar's motion without rigid fixtures. Overall lengths ranged from 3 to 5 meters for larger ships, with the blade comprising a significant portion to ensure effective displacement; exceptional cases, like Ptolemaic super-galleys, featured oars up to 14 meters, though these were outliers. (Note: dimensions derived from archaeological reconstructions.) Design variations adapted to vessel size and stability needs. Small craft commonly employed a single steering oar on the starboard side for simplicity. Larger ships, particularly in the New Kingdom, used dual oars—one at each quarter—connected by ropes and levers for balanced control and enhanced maneuverability in riverine or coastal waters. Early and classical vessels, such as triremes, incorporated two oversized oars, one at each quarter, for stability. These configurations ensured the oar could be stowed efficiently when not in use, often alongside the hull to avoid drag.

Historical Development

Origins in Ancient Civilizations

The earliest evidence for steering oars appears in artifacts from the Indus Valley Civilization around 3000 BC, where a baked clay amulet from depicts a riverine with upturned ends, a central cabin, and a pair of steering oars at the , indicating their use on flat-bottomed vessels for navigating rivers. In , similar depictions emerge in tomb paintings and reliefs from the Old Kingdom (c. 2686–2181 BC), such as those in the Fourth Dynasty mastaba of Snb at , showing a small steered by a single using a large oar over the quarter, and the Fifth Dynasty mastaba of Ty at , where multiple steering oars are mounted with simple pivots for basic directional control. These early representations highlight steering oars as oversized paddles, often one to five in number, manipulated by hand or lashed to the without elaborate fittings, suited to reed boats and early wooden hulls in shallow riverine environments. By the late and into the , steering s became more refined in iconography, with scenes from the Sixth Dynasty of Pepi-anch Heni-kem at illustrating a stern-mounted secured by a for stability, and the Deir el-Gebrawi of Zau showing a single linking two oars for coordinated steering. Widespread adoption in is evident by around 1200 BC during the New Kingdom, where dual steering oars projecting from both quarters became standard on larger vessels, as seen in reliefs of seafaring ships, improving control in varied waters compared to single-oar setups. This design evolution reflects growing reliance on river and coastal for daily transport and elite burials. The technology spread to Minoan Crete around 2000 BC through maritime trade networks linking and the Aegean via the , as evidenced by early pottery and seals showing similar quarter-mounted oars on local vessels, predating the more detailed Akrotiri frescoes (c. 1700–1600 BC) that depict small ships with dual steering oars amid flotillas. These adaptations facilitated Minoan participation in exchange, with steering oars enabling precise maneuvering in island-hopping routes. Steering oars played a crucial prerequisite role in expanding river trade and early seafaring across these civilizations, allowing vessels to handle currents and winds on the , , and Aegean waters before the dominance of sails or more advanced ; their simplicity stemmed from technological limits, as fixed rudders required stronger integrations not yet developed in wood or construction.

Use in Classical and Medieval Periods

In maritime culture, steering oars were prominently featured in the Homeric epics, composed around the , which describe their use on Bronze Age-inspired ships for directional control during voyages and battles. Archaeological evidence from Athenian black-figure vases dating to the further illustrates these devices, depicting sailors manipulating tillers attached to steering oars and employing them for stern-first to facilitate safe docking in harbors. The Romans adapted steering oars for their naval and commercial fleets from approximately 300 BC to 400 AD, integrating them into triremes for high-speed maneuvers and merchant galleys for trade routes. Historical accounts by in his Histories highlight their role in tactical operations, such as ramming and evasion during Punic War engagements, where precise steering enabled formations like the diekplous. These adaptations influenced the shift from Mediterranean dominance to Atlantic trade, as vessels with steering oars supported expeditions to and Iberia, enhancing connectivity with northern provinces. During the medieval Viking era from about 800 to 1100 AD, steering oars were essential to design, typically featuring a single large mounted on the starboard side for optimal control in shallow waters and rapid maneuvers. The burial from the 9th century exemplifies this, with its preserved starboard steering underscoring its centrality to Viking seafaring. Icelandic sagas, such as those recounting raids on and , portray helmsmen using these oars to direct assaults, allowing swift approaches to coastal targets under sail or power. Regional variations extended steering oar principles beyond ; Polynesian outrigger canoes employed similar quarter oars for long-distance voyages from around 1000 BC to 1000 AD, enabling navigators to traverse the Pacific using wave patterns and stellar cues. In the , early dhows incorporated oar-based steering until influences in the medieval period introduced more advanced sail-rigging and hull designs, gradually phasing out reliance on these manual devices for trade between and .

Operation and Usage

Steering Techniques

The , typically seated on the threnus—a specialized crossbench at the serving as both seat and —manipulated the steering oar using a bar attached to the oarloom, allowing precise control over the 's angle relative to the water flow. To initiate a turn, the helmsman angled the blade at approximately 45 degrees to the ship's side, creating differential drag that pivoted the ; for braking or slowing, the blade was positioned perpendicular to the , maximizing resistance. This method relied on the oar's leverage, enhanced by the torsion in securing lashings, to transmit the helmsman's efforts effectively without requiring excessive physical force. Deployment of the steering oar began with thrusting the oarloom through slots or uprights in the , positioning the in the water while the extended for access. The was then secured using lashings wrapped around the uprights and oarloom, which provided torsion to maintain and absorb shocks from waves or maneuvers. When not in use, the was stowed horizontally along the ship's side, pinned between the threnus and the epholkaion (a overhang), and fastened with additional straps to prevent shifting; in some cases, it could be raised vertically against the rail for compact storage during beaching. Advanced tactics included deliberately releasing the to deflect enemy attempts, as exemplified by the Calliades, who positioned his oar to foul the pursuer's forward rowers, breaking their oars and disrupting the attack to enable escape. Additionally, the oar served as an improvised when trailed in shallow waters, with the listening for scraping sounds from the —slightly longer than the ship's —to detect proximity to the without halting progress. Effective use of the steering oar demanded close coordination with the rowers, particularly for counter-steering during turns, where the keleustes (rowing master) directed differential strokes on sides to amplify the oar's effect and maintain balance. This technique proved highly responsive in calm waters, allowing fine adjustments via the tiller's micro-movements, but grew challenging in high winds, where increased demands and forces could overwhelm the oar's torsion-based stability, often requiring the to sails or rely on rowers for additional correction.

Applications in Navigation and Warfare

Steering oars played a crucial role in ancient navigation by enabling precise control in confined or challenging waters. In Greek triremes, these devices facilitated stern-first beaching and mooring in harbors, allowing crews to position the lightweight vessels (around 50 tons) accurately overnight without specialized docking infrastructure. Similarly, during Egyptian Nile trade around 2000 BC, Middle Kingdom vessels employed single steering rudders to maneuver through river deltas, adjusting blade angles for turns while maintaining course in complex waterways essential for commerce. Roman merchant ships transporting grain from Egypt's Nile valley to ports like Ostia also relied on paired side steering oars connected by tillers and cables, supporting stable voyages of 100–150 tons of cargo over 6–8 days at 4–6 knots. In warfare, steering oars enhanced tactical agility for offensive maneuvers. triremes at the in 480 BC used them to execute quick pivots and align for ramming with bronze-sheathed prows, contributing to the victory over the Persian fleet through superior maneuverability in narrow straits. Viking longships, equipped with a large starboard steering oar, enabled hit-and-run raids in shallow fjords and coastal waters as shallow as one meter, allowing rapid advances and retreats during expeditions from the 8th to 11th centuries. For exploration, steering oars supported long-distance voyages by permitting adjustments to environmental conditions. Polynesian double-hulled canoes (c. 300–800 AD) utilized steering paddles to maintain headings against wind shifts during open-ocean travel spanning thousands of kilometers. In combat contexts, steering oars had notable limitations, including vulnerability to enemy actions. The aft placement exposed them to boarding during close-quarters engagements, as seen in Greek trireme battles where entanglement with foes often led to hull breaches and marine incursions, prompting protective crew positioning nearby.

Advantages and Limitations

Benefits Over Early Alternatives

The steering oar offered significant flexibility compared to stern paddles, as it could be easily removed and stowed for , repair, or transport, or repurposed as an auxiliary propulsion oar during emergencies when primary rowing power was compromised. This adjustability was achieved through simple lashings, allowing the oar to or be slackened without permanent fixtures, unlike fixed appendages that risked damage or immobility. In terms of effectiveness, the steering oar provided superior and greater water displacement than basic stern paddles, enabling precise over larger vessels reaching up to meters in under varied and conditions. Attached tillers amplified the helmsman's force, allowing torsion from leather bindings to stabilize the blade and embed it securely for directional adjustments, a marked improvement for maneuvering substantial craft where hand-twisting alone proved inadequate. The design's adaptability shone in shallow waters or during beaching, where the oar could be angled at 45 degrees or lifted to avoid grounding risks, facilitating safe operations in riverine or coastal environments without the vulnerabilities of protruding fixed elements. Dual-oar configurations, common in and vessels by around 1200 BCE, further enhanced stability over single-paddle systems by distributing control across both , improving balance during turns or in crosswinds. Finally, the steering oar's cost-effectiveness and simplicity stemmed from its construction using readily available for the and , bound with or rope, requiring no advanced or elaborate modifications. This made it quicker to deploy than relying solely on sail adjustments in light winds, integrating seamlessly with existing features like projections for immediate use.

Drawbacks and Challenges

The steering oar, due to its prominent side-mounted position, was highly vulnerable to damage during collisions, storms, or naval battles, as it protruded externally without protective housing. In combat scenarios, such as those involving Viking longships, the oar's exposure made it susceptible to deliberate or accidental impacts, potentially rendering the uncontrollable. Historical accounts and archaeological insights indicate that this vulnerability often led to rapid loss of steering capability in close-quarters engagements. Additionally, the oar's wooden construction and lashings required rigorous maintenance to prevent from prolonged exposure or fraying of bindings, with early attempts using ropes failing quickly and necessitating more durable alternatives like withies. Operation of the steering oar demanded significant skill from the , particularly in adverse conditions, where maintaining against wave action or wind forces was essential. In rough seas, waves could wrench the oar from its mounting, exacerbating instability and requiring immediate corrective action, while high winds introduced drag on the blade, reducing effectiveness and increasing physical strain. This skill dependency was evident in ancient seafaring narratives, where helmsmen's expertise was crucial for survival, often involving rapid adjustments to straps or positioning to counteract environmental stresses. Ergonomically, the helmsman's aft-side position left them fully exposed to the elements, including spray, wind, and cold, without shelter, which compounded during extended voyages. The traditional starboard placement further complicated maneuvers, such as port-side or turns, as the interfered with access to that side, necessitating careful planning to avoid damage or imbalance. In cramped quarters on smaller vessels, this setup limited the helmsman's mobility, adding to operational challenges. Scalability posed another key limitation, as controlling larger vessels—exceeding 50 meters in length—became increasingly difficult with a single or even multiple steering oars, due to the amplified leverage needed against hydrodynamic forces. The design's reliance on manual force and side attachment proved inadequate for bigger hulls, where the oar's weight when stowed also contributed to uneven loading and stability issues. Historical evidence from Mediterranean and suggests that multiple oars were sometimes employed on larger to compensate, but this only partially mitigated the problems.

Decline and Legacy

Transition to Fixed Rudders

The transition from steering oars to fixed rudders began with early innovations in during the around the 1st century AD, where the sternpost-mounted was developed, enabling attachment directly to the vessel's stern for improved stability and control on larger ships. This design represented a shift from side-mounted oars, allowing more precise without constant manual adjustment by a dedicated steersman. Archaeological , such as models from Han tombs, confirms the presence of such rudders, marking a foundational advancement in maritime engineering. The technology spread westward via Islamic traders and maritime exchanges by the , reaching the and subsequently influencing practices. Key factors driving this change included the limitations of steering oars on expanding ocean-going vessels, which struggled with high winds and waves in open seas, necessitating hands-free steering mechanisms for safer long-distance voyages during the emerging . In the Mediterranean, the adoption was gradual, with the pintle-and-gudgeon system—featuring pivoting pins and rings for rudder attachment—appearing on cogs by the late , enhancing cargo capacity and maneuverability for trade routes. In , and Viking traditions favored steering oars longer, retaining them for their versatility in coastal and riverine until influences following the conquest introduced stern rudders more widely. During transitional hybrid phases in medieval , some vessels combined fixed rudders for primary control with auxiliary steering oars for fine adjustments in confined waters, a practice that persisted until full replacement by stern rudders in the 15th century as ship sizes and sail rigs evolved.

Modern Replicas and Influence

In the realm of , modern replicas of ancient have played a crucial role in testing and understanding steering oar mechanics. The Sea Stallion from , a full-scale reconstruction of the 11th-century Viking Skuldelev 2, was built in 2004 by the Viking Ship Museum in , , using traditional oak planking and a single steering oar mounted on the starboard side to replicate authentic techniques. This 29-meter vessel undertook a significant 2007 voyage from Roskilde to , —a distance of over 1,000 nautical miles—covering the North Atlantic route to evaluate seaworthiness, with the steering oar proving effective for precise control during variable winds and currents. Similar rowed replicas, such as those constructed by the Viking Ship Museum based on Skuldelev finds, are employed in museum demonstrations and short-sea trials to assess ancient propulsion and steering under oar power alone, providing insights into crew coordination and hydrodynamic efficiency. Steering oars persist in traditional maritime practices among certain indigenous and regional seafaring communities. In Pacific proas, outrigger canoes originating from Micronesia, modern builders like Gary Dierking incorporate steering oars as primary or auxiliary controls, with examples including 7.5-foot oars on 16-foot vessels for shunting maneuvers that reverse direction without tacking. These oars, often pivoted in yokes, offer low-drag steering and lateral resistance, echoing ancient Oceanic designs while adapting to contemporary materials like pine for durability in coastal voyaging. Indonesian pinisi schooners, traditional Bugis vessels from Sulawesi, retain twin steering oars for auxiliary guidance, particularly in shallow or congested waters, where they supplement modern tillers and provide the fine control suited to the schooner's gaff-ketch rig. On the Nile, small tourist craft and feluccas occasionally employ oversized steering oars to mimic ancient Egyptian riverboat designs, allowing visitors to experience historical tacking techniques under lateen sails during short excursions from Aswan. The steering oar's principles have influenced contemporary small-craft design, emphasizing simplicity and adaptability over fixed appendages. In kayaks and sailing dinghies, the concept of a removable, quarter-mounted steering device inspires lightweight drop-in rudders or paddle-based controls that minimize drag and enhance maneuverability in variable conditions, as seen in kayak rigs where oar-like sweeps provide emergency or auxiliary . For multihull catamarans, quarter steering echoes appear in emergency systems or small proa-derived hulls, where pivoting oars contribute to by adjusting lateral resistance during shunts or beam reaches, reducing the need for complex linkages in lightweight designs. Culturally, steering oars feature prominently in depictions of seafaring heritage, reinforcing their legacy in popular media and scholarly analysis. In films like The Saga of the Viking Women and Their Voyage to the Waters of the Great (1957), characters improvise a steering oar after losing their , highlighting its role in survival narratives. Modern sailing innovations, including portable sail kits for canoes, draw on steering oar versatility for user-friendly setups in recreational boating. Lionel Casson's Ships and in the Ancient World (1995 edition) elucidates the hydrodynamic principles of steering oars—such as blade immersion for torque and minimal hull interference—which continue to inform in efficient, low-tech steering solutions for contemporary vessels.

References

  1. [1]
    Steering with a Wheel | Naval History Magazine
    The steering oar directed ships for 4,000 years, from the ancient Egyptians to the invasion fleet of William the Conqueror in 1066.
  2. [2]
    Why do ships use "port" and "starboard" instead of "left" and "right?"
    Jun 16, 2024 · In the early days of boating, before ships had rudders on their centerlines, boats were controlled using a steering oar. Most sailors were right ...
  3. [3]
    Port And Starboard | Why Is It Called Port ... - Texas Maritime Museum
    Jan 17, 2024 · In early boating, steering oars were employed at the stern, predominantly on the right side to accommodate right-handed sailors. This ...
  4. [4]
    Meaning and Origin of Nautical Terms
    Dec 4, 2017 · In Old England, the starboard was the steering paddle or rudder, and ships were always steered from the right side on the back of the vessel.
  5. [5]
    Steering oar - Oxford Reference
    Originally a single oar projecting over the quarter of the boat, usually on the starboard side, it was multiplied in larger vessels to two or three oars. A ...
  6. [6]
    [PDF] Rudder Definition Ap World History - Tangent Blog
    The Origins and Evolution of the Rudder​​ The earliest known fixed rudders appeared in China during the Han Dynasty, around the 1st century CE, providing a more ...
  7. [7]
    Rudder and tackle - Vikingeskibsmuseet
    Rudder and tackle - The steering element. In the Viking Age, the rudder on ships and boats sat on the starboard side (the name deriving from styrbord, ...Missing: 11th | Show results with:11th
  8. [8]
    [PDF] The Homeric Steering Oar and Aspects of Ancient Seafaring
    Our primary objective in this article is to establish how the Homeric steering-oar was operated. Our principal sources of information will consist in a small ...
  9. [9]
    Gokstad Ship
    In this picture, taken from the port side of the ship, the steering oar is almost hidden by the hull. ... Indeed, cracks were beginning to appear in the ancient ...
  10. [10]
    [PDF] A Cypriot Votive Ship Relief at The Ringling Museum of Art
    Nov 12, 2019 · These features are also found on the starboard side quarter rudder, made of pine, from the Kyrenia Ship. ... wood. A Cypriot Votive Ship ...<|separator|>
  11. [11]
    Tessarakonteres - Wikipedia
    Height from waterline to tip of prow: 48 cubits, 72 ft (22 m); Length of steering oars (4): 30 cubits, 45 ft (14 m); Longest rowing oars: 38 cubits, 57 ft (17 m) ...
  12. [12]
    The Idealized Ship | Part 1: Curved, crowned, and garlanded
    Jan 29, 2019 · The stern quarter (right) carries a steering-oar [pēdalion] and a ladder. ... oak of Dodona.” Apollodorus, Library 1.9.16. Bibliography.
  13. [13]
    Ships and Boats in Ancient Egypt - The Curious Egyptologist
    Jul 23, 2021 · ... the steering oar was operated as a rudder utilizing ropes. The mast also became collapsible and rest on a stand placed on the stern (Figure ...Missing: 1200 | Show results with:1200
  14. [14]
    [PDF] Ancient Greek Warship 500-322 BC
    It was a fragile warship, essentially designed to be highly manoeuvrable and capable of being driven by oars at high speed for short periods in battle. Oar ...
  15. [15]
    [PDF] (CA. 3000-2000 B. C. )
    B. C. ' The third depiction is on a baked clay amulet showing a riverine boat with upturned ends, a cabin amidships, and a pair of steering oars (fig. 34) ...
  16. [16]
    Ancient Egyptian Steering Gear
    The half- tone is obscure in places, but the steering oars and tillers are clear. It is well to remember that even these pictures, though much nearer in time to ...Missing: depictions | Show results with:depictions<|separator|>
  17. [17]
    [PDF] beyond the painted surface analyzing old kingdom's steering devices
    The scenes in the nobles' tombs served as a visual chronicle of the development of steering devices in ancient Egyptian boats. These depictions not only ...
  18. [18]
    [PDF] Sea Peoples, Egypt, and the Aegean: The Transference of Maritime ...
    In this matter they differ from contemporaneous representations of craft from the Aegean but seem to herald the use of the double steering oars that were to ...Missing: dual | Show results with:dual
  19. [19]
    [PDF] The adoption of the sail in the Early Bronze Age Aegean (ca. 2550 ...
    In recent years, two rock-cut images of longboats with steering oars have been discovered at the EC II settlement of Vathy, on the island of Astypalaia, which ...
  20. [20]
    Ancient Egyptian Ships and Shipping
    Doubtless it may be alleged that these men hold steering-oars, not rowing-oars, and that such steering-oars are represented on the sterns of the so-called ...
  21. [21]
    [PDF] The Roman Navy - Ancient Coastal Settlements, Ports and Harbours
    Athenian triremes, under oar alone, could only ... aftermost section, which will house the steering oars and the position of the thranite oar ports marked.<|separator|>
  22. [22]
    [PDF] Large merchant ships in Roman times: the Spritsail legacy, Part II
    Ships with a single square sail and steering oars were clearly not very manoeuvrable and could be dangerous in winds exceeding a moderate breeze, especially ...
  23. [23]
    Viking Warfare, Ships and Medicine - JMVH
    Helmsmen manoeuvred for the most favourable position to board the outermost ships, while the crews shot arrows and spears as they drew together. As each ...
  24. [24]
    The Case for the Steering Oar - Proa File
    Jan 20, 2005 · The steering oar can function as a rudder, a sweep to prevent going aback, and a source of lateral resistance for course correction.
  25. [25]
    Early Dhows in Pre-Islamic Petroglyphs - Nabataea.net
    Very early dhows used a large mainsail, and an oar for steering. The artist here observed the mast, rigging and cross member. The bow and materials stacked ...
  26. [26]
    Polyaenus: Stratagems - Book 5 (b) - ATTALUS
    Calliades so managed his rudder, as to receive upon it the oars of the enemy's first bench, and thereby he broke the force of their attacks upon his stern. By ...Missing: 5.43 | Show results with:5.43
  27. [27]
    Roman Shipbuilding & Navigation - World History Encyclopedia
    Mar 6, 2017 · According to Polybius, the Roman quinquereme had a total of 300 rowers with 90 oars on each side. It was about 45 m long and 5 m wide and ...
  28. [28]
    Trireme
    ### Summary of Steering Oars in Greek Triremes
  29. [29]
    [PDF] TROPIS II HELLENIC: lNSrmm - Institute of Nautical Archaeology
    Coming to pre-Roman and Roman documents, we still have single rudders and steering oars. The Novilara boats of VII-VI Cent (Fig. 6A) had a single steering ...
  30. [30]
    [PDF] The Long Ships The Long Ships
    Unlike modern ships, The Long Ships did not have a central rudder. Instead, they used a large steering oar mounted on the starboard side. This required ...
  31. [31]
    [PDF] UndergradUate research JoUrnal of Micronesia - University of Guam
    During a voyage, the navigator sits in the center of the canoe while the man steering the vessel sits on the stern of the canoe with his foot on the oar, to ...
  32. [32]
    (PDF) Ancient Greek Warship, 500-322 BC - Academia.edu
    ... triremes used two steering-oars, one on each side of the stern. Each was ... The Greeks were informed of the Persian from oar-ports through leather ...Missing: harbors | Show results with:harbors
  33. [33]
    [PDF] SAILORS and TRADERS - OAPEN Library
    There are many friends in the maritime community of the Pacific ashore and as shipmates to whom I have been indebted over the years. I can acknowledge here only ...
  34. [34]
    Navigating an Archaic Era Sailing Ship: Basic Guidelines for a ...
    Steering an Archaic age sailing ship ... Πηδάλιον was the word for the rudder of a ship. [30] The noun πηδάλιον derives from πηδόν, the broad part of the oar. The ...<|separator|>
  35. [35]
    The development and construction of watercraft - The Past
    Dec 18, 2024 · Gordon Longworth traces the evolution of ancient Egyptian watercraft over the millennia and uses his skills as a model-maker to illustrate how they were built.<|control11|><|separator|>
  36. [36]
    1295: The Year of the Galleys - Gresham College
    ... steering oar' mounted on the side of the vessel; the stern rudder was ... However, such a device was undoubtedly more vulnerable to storm and battle damage ...
  37. [37]
    Rudder - Oxford Reference
    The earliest known representation of a sternpost rudder in Europe appears on a font in a Belgian church (Zedelghem), dated around 1180, and, though this is ...
  38. [38]
    China's Age of Invention | NOVA - PBS
    Feb 29, 2000 · Joseph Needham, an historian of Chinese science and technology, also ... sternpost rudder was very, very important for controlling a vessel.
  39. [39]
    The Development of the Rudder, 100-1600 A.D.: A Technological Tale
    Jun 6, 2010 · The one instrument which all ships have in common is a rudder. Until the 13th century AD, the primary instrument used to control ships was the quarter-rudder ...
  40. [40]
    Pintle and Gudgeon and the Development of the Rudder
    The first Arab stern rudder occurs in 1237. The Chinese stern rudder may have migrated through the Arabs but parallel evolution in the Frisian islands is more ...Missing: Han | Show results with:Han
  41. [41]
    Sea Stallion from Glendalough - Vikingeskibsmuseet
    Owner: The Viking Ship Museum Year of construction: 2004. Length: 29.30 meter (96 feet) Width: 3.80 meter (12 feet) Depth/draft: 0.95 meter (3 feet) Weight ...Missing: replica | Show results with:replica
  42. [42]
    The Sea Stallion's voyage to Ireland - an adventure only?
    Under these circumstances trial voyages with authentic replicas can hardly be abandoned, including the Sea Stallion's voyage to Ireland – the more since ...Missing: steering | Show results with:steering
  43. [43]
    The five reconstructions - Vikingeskibsmuseet
    At the Viking Ship Museum's shipyard, reconstructions of the 5 Viking ships that were excavated at Skuldelev in Roskilde Fjord in 1962 are being built.
  44. [44]
    Where the Age of Sail Never Ended - the Bugis Phinisi, an ...
    Nov 12, 2011 · ... steering oars that would have been familiar to Roman helmsman. ... The Bugis Pinisi Schooner · The Indonesian Phinisi · Phinisi Sailing Boat of ...
  45. [45]
    Felucca Boat Trips in Egypt - On The Go Tours
    Feluccas are simple, traditional Egyptian boats, that have sailed the mighty Nile since ancient times. Our feluccas are proudly owned and crewed by friendly ...
  46. [46]
    Tech: Emergency steering a catamaran - Arriba blog
    Aug 8, 2014 · A light-wind alternative to drogue steering, is jury rigging a steering oar. The oft-quoted method is to lash a piece of wood, such as a ...
  47. [47]
    The Saga of the Viking Women and Their Voyage to the ... - TCM
    After a rough departure and the loss of their rudder, the women rig an oar by which to steer. One Viking female warrior, Thyra, discovers that Ottar, the ...
  48. [48]
  49. [49]