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Bipod
Bipod
Bipod
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Most general-purpose machine guns, such as this FN MAG, have a bipod to increase accuracy for the full-automatic fire mode light machine gun fire support role.
Polish LM-60D 60mm mortar with an adjustable bipod, with a baseplate as the third point of support.

A bipod is a V-shaped portable attachment that helps support and steady a device, usually a weapon such as a long gun or a mortar. The term comes from the Latin prefix bi- and Greek root pod, meaning "two" and "foot" respectively.[1]

Bipods are designed to support the weight of the weapon's front portion and barrel, and provide significant stability against unwanted side-to-side movements (i.e. canting) while allowing free movements pivoting around the transverse axis (pitching). Most modern bipods have foldable and/or telescoping legs, and allow some limited movements around the vertical axis (panning) and even the longitudinal axis (tilting).

A bipod by itself, with only two supporting legs, is not completely stable and needs to be reinforced by at least one more point of support to be steady, especially against the horizontal shearing force from recoils. This third point of support is typically the buttstock that is firmly pushed/braced against the shooter's body, but can also be a baseplate (in mortars), sometimes with additional support from a monopod or a bean bag.

Firearms

[edit]
A Sako TRG sniper rifle on its standard factory bipod and it's monopod beneath the rifle's butt
The right bipod leg of the PK GPMG accommodates links of a cleaning rod
Main article: Weapon mount

Bipods are commonly used on rifles and machine guns to provide a forward rest and reduce unwanted motion. They are also seen on other long-barreled weapons. Bipods permit operators to easily rest a weapon on objects, such the ground or a wall, reducing fatigue and increasing accuracy and stability. Bipods can be of fixed or adjustable length. Some can be tilted and also have their tilting point close to the barrel's central axis, allowing the weapon to tilt left and right.[clarification needed] Some designs also allow the weapon to be rotated side-to-side. There are three ways for bipods to be folded: away from the shooter, towards the shooter, or into a vertical foregrip.

History

[edit]

The first known use of bipods on firearms can be traced back to hand cannons of the 12th century, which were cast iron barrels laid on top of short poles.[2]

Bipods on rifles are first known to have been used in an improvised fashion during the mid-19th century, particularly by frontiersmen hunting American bison and other wild animals. For example, the painting "The Long Shot" by Howard Terpning[3] shows native American hunters shooting a rifle with an improvised bipod consisting of two crossed arrows.

During the 20th century, use of dedicated bipods increased, and was seen on different types of rifles during wars. For example the Lewis gun (1914) was fitted with an adjustable bipod.[4] The technology became more advanced, with hinged legs and even extendable or retractable legs. The Brixia M1923 machine gun used a bipod that could also be used as a harness allowing the user to move around firing the weapon handling only the spade grips.

One of the first companies to manufacture commercially successful bipods was Harris Engineering, Inc founded in 1979 in Barlow, Kentucky by Gerald Harris, Margaret Harris, and Susan Wilkerson. Before starting the company, Gerald had applied for a patent on the bipod.[5] In 2019, their successful Harris Bipods have been produced for nearly forty years, and have remained relatively unchanged.

Recent advances in manufacture of bipods include use of lightweight materials such as aluminium, carbon fiber and titanium, use of different quick attachment and detachment mechanisms (Picatinny, M-LOK, etc. or even magnets[6]) and various types of feet materials such as rubber, metal, or a "basket" designed to stop the bipod from sinking into soft surfaces such as fine sand or deep snow (inspired by ski poles and snowshoes).[7]

Mounting standards

[edit]

There are several mounting standards for attaching a bipod to a rifle, of which some well known are swivel stud, Picatinny, M-LOK and Versa Pod spigot mount. Starting in the late 2010s, the Arca-Swiss style also gained popularity in shooting competitions such as the Precision Rifle Series since the rail allows for stepless adjustment.[8]

See also

[edit]
Look up Bipod in Wiktionary, the free dictionary.

References

[edit]
Revisions and contributorsEdit on WikipediaRead on Wikipedia

Bipod

View on Grokipedia
from Grokipedia
A bipod is a two-legged, typically V-shaped support device designed to provide stability and reduce movement for various equipment by resting its legs on a surface such as the ground. In its most common application, a bipod attaches to the fore-end of firearms like rifles and light machine guns to enhance shooting accuracy, particularly in prone or supported positions, by minimizing shooter-induced sway and aiding recoil control. Modern firearm bipods often feature adjustable leg lengths typically ranging from 6 to 13 inches, swivel or cant mechanisms for uneven terrain, and quick-detach mounts compatible with systems like Picatinny rails or M-LOK slots. Beyond firearms, bipods serve in land surveying to rapidly stabilize instruments such as GPS receivers, theodolites, or prism poles on rough or uneven surfaces, prioritizing speed and portability over the greater stability of s. Survey bipods typically include locking mechanisms like thumb screws or twist knobs, with height adjustments from about 44 to 72 inches, and specialized feet for slippery or soft ground. In , bipods—often improvised by extending two legs of a tripod—allow cameras to be steadied in confined spaces, such as near walls or over edges, where a third leg would interfere, enabling precise positioning without full clearance. The evolution of bipods reflects advancements in materials and design, shifting from early heavy metal and models to lightweight materials such as aluminum alloys and carbon fiber composites, with notable manufacturers including Harris Engineering, which has produced benchmark designs since the late .

Fundamentals

Definition and Purpose

A bipod is a two-legged portable stand or support device designed to elevate and stabilize equipment by providing a stable base against the ground or other surfaces. This configuration, formed by the pair of extendable legs, allows for compact storage and rapid deployment in various field environments. The primary purposes of a bipod include enhancing accuracy by minimizing vibrations and movement during use, reducing user fatigue through weight distribution, and preventing tipping by creating a broad foundational support. By spreading the load across the two legs, it enables prolonged operation without excessive strain on the operator or the mounted device, while facilitating quick adjustments to uneven terrain. In terms of general , the bipod's legs typically adjust in and to form a triangular stability , where the apex connects to the and the base anchors against the surface, distributing downward forces evenly to maintain balance under load. This relies on geometric proportioning of the legs to the base width, ensuring resistance to lateral shifts without requiring additional fixtures. Bipods demonstrate broad utility in stabilizing aiming devices for precise targeting, observation tools like theodolites in , and heavy instruments such as GPS receivers or cameras in challenging environments. For instance, in land , they support prism poles on rough ground to ensure measurement reliability, while in , they allow steady positioning near obstacles where full tripods are impractical.

Design Components

A bipod's core structure consists of two primary legs connected at a central , with a mounting interface for attachment to the host device. The legs are typically telescoping to allow length adjustment, constructed from lightweight materials such as aluminum alloys for durability and reduced weight, for enhanced strength in rugged conditions, or carbon fiber composites for superior strength-to-weight ratios. Designs vary significantly by application, with bipods emphasizing low profile and quick deployment, while models prioritize height and load-bearing capacity. The , often a hinged bushing or mechanism, enables angular adjustments to accommodate uneven , while the mounting plate or clamp provides a point, usually via a stud or rail-compatible base. Adjustment mechanisms enhance versatility in deployment and positioning. Swivel functions allow for pan and tilt movements, with tension-adjustable locks to fine-tune rotation and cant for precise leveling. Leg length is modified via extenders or notched positions, often spring-loaded for rapid deployment, with ranges varying by application—for instance, 4–13 inches (10–33 cm) for many bipods and up to 1.1–1.8 m (44–72 inches) for models. Non-slip feet, available in rubber for soft surfaces, spiked for firm ground, or skid-style for smooth terrain, prevent slippage and can be interchangeable for adaptability. Weight and durability are critical for practical use, with weights varying by type, typically 0.1–0.5 kg (4–18 oz) for lightweight models and up to 1.5–2 kg for heavier bipods, balancing portability and stability without overburdening the device. resistance is achieved through anodized finishes on aluminum components or rust-proof coatings on , ensuring longevity in outdoor environments. supports attachments like added weights or adapters, allowing customization for specific stabilization needs. Ergonomic features prioritize user efficiency and transportability. Quick-release mechanisms, such as lever locks or detents, facilitate fast attachment and detachment, while foldable designs collapse the legs parallel to the mount for compact storage. These elements contribute to bipod stability in applications like or , as outlined in foundational definitions.

Historical Development

Origins and Early Use

The concept of the bipod originated from simple forked rests used to support early firearms, with the first known examples appearing in the late alongside heavier muskets derived from the , a shoulder arm developed in . These rests, typically constructed from wood, were essential for stabilizing the heavy barrels of handgonnes and arquebuses during aiming and firing, enabling effective use in both military engagements and . By 1450, the was employed by soldiers and hunters for shots lethal at 50 yards against unarmored targets, marking the initial practical application of bipod-like supports to enhance accuracy and reduce shooter fatigue. In medieval contexts, these simple forked rests were particularly valuable for , where they allowed archers and early gun users to steady long weapons against game, transitioning from bow supports to aids as technology spread. The rests' design was basic, consisting of a wooden mounted on a pole or staff, providing frontal stability but offering limited versatility on varied . This early form emphasized non-firearm origins in practices, where stability was critical for precise shots without the weight of later adaptations. In the early , bipods became standard on light machine guns during and II, such as the British (1915) and German MG42 (1942), providing integrated stability for sustained fire in trench and mobile warfare. By the , bipod developments expanded into civilian applications, such as supports for used in and astronomy, where two-legged stands offered portable stability for optical instruments. Military contexts saw introductory use with early rifles, including improvised bipods for long-range shooting, though civilian telescope supports prioritized lightweight designs for field use. Early bipods were generally made from wood and iron, providing basic durability but suffering from a lack of height or angle adjustment, resulting in rudimentary stability compared to later innovations.

Modern Evolution

Following , bipod technology advanced significantly with the adoption of integrated designs in general-purpose machine guns, exemplified by the U.S. Army's M60, which was standardized in 1957 and widely deployed during the . This bipod, mounted directly on the receiver, utilized lightweight construction to balance stability and portability for squad-level support fire, marking a shift from earlier, more cumbersome setups. By the , the introduction of aluminum alloys in bipod components further reduced overall weight, enabling easier transport in mobile infantry operations without sacrificing structural integrity. The saw a notable transition toward composites in bipod elements, particularly in feet and non-load-bearing parts, to achieve further weight reductions while maintaining durability against environmental stresses. For instance, incorporated plastic feet in civilian-market bipods for rifles like the HK91 during this period, allowing for lighter designs that improved handling in prolonged field use. Key technological milestones emerged in the , including patents for quick-deploy mechanisms that facilitated rapid leg extension and retraction. Harris Engineering, established in 1979, popularized swivel and notched-leg bipods with spring-loaded deployment, as detailed in U.S. Patent 4,903,425 (1990) for pivotal adapters enabling swift positioning adjustments. In the , integration of shock absorption features became prominent, with designs incorporating tension-adjustable struts to mitigate forces and enhance accuracy during sustained fire; U.S. Patent 7,779,572 (2010) exemplifies this by allowing independent leg movement with damping elements to reduce vibration transmission. Military conflicts influenced these developments, particularly the , where the M60's bipod highlighted needs for better adaptability in varied environments, leading to post-war refinements emphasizing adjustable leg heights in subsequent bipods, improving versatility for prone and elevated shooting. Current trends in the 2020s focus on "smart" bipods incorporating sensors for automated functions, including prototypes with electronic auto-leveling capabilities that use gyroscopes and actuators to compensate for uneven surfaces in real-time. Accu-Tac's electronic self-leveling models, introduced at 2025, represent this innovation, enabling and precise alignment for precision shooting. Additionally, sustainability efforts emphasize eco-friendly materials like carbon fiber composites, which offer extended lifespan and recyclability, reducing the environmental footprint of manufacturing; market analyses project growth in these lightweight, durable options through 2025.

Firearms Applications

Mounting Systems

Bipods for firearms are commonly mounted using the system, standardized as MIL-STD-1913, which was established on February 3, 1995, to provide a uniform platform for attaching accessories to small arms weapons. This rail features a series of transverse slots spaced 0.206 inches apart, allowing secure attachment of bipods via clamps or levers that engage the rail's recesses. Another prevalent method involves sling swivel studs, typically found on the forend of rifles, where bipods like the Harris Engineering models clamp onto the stud—the stud itself is threaded into the stock using a 1/4-28 UNC interface—for a stable, low-profile connection. Threaded adapters, such as those with 1/4-20 UNC specifications, enable universal compatibility by converting non-standard points on firearms to accept bipod bases, often used in conjunction with swivel studs or as standalone mounts on legacy designs. Modern systems also include direct attachments to or KeyMod slots on handguards, allowing tool-free or quick-detach installation without rails. Mounting protocols emphasize adherence to military standards for reliability, including NATO STANAG 2324, which adopts the for accessory integration on , ensuring bipods maintain compatibility across forces' equipment. Secure attachment requires specifications typically ranging from 20 to 30 inch-pounds to prevent loosening under , as recommended by manufacturers for clamps on aluminum receivers. Quick-detach (QD) levers facilitate rapid installation and removal without tools, featuring spring-loaded mechanisms that lock into rail slots and are rated for repeated use in tactical environments, such as those from American Defense Manufacturing. Compatibility challenges arise with rifle-specific configurations, particularly between platforms like the AR-15, which natively supports Picatinny rails on modular handguards, and the , whose traditional wooden or forends lack integrated rails, necessitating aftermarket kits such as rail sections or adapters to enable bipod attachment. These kits often involve installing short Picatinny segments via screws or clamps, but variations in forend geometry can lead to alignment issues or reduced stability if not precisely fitted. For legacy firearms without modern rails or studs, universal threaded adapters bridge the gap, though they may require custom machining for optimal fit. Maintenance of bipod mounting systems involves regular to prevent accumulation, which can compromise attachment ; protocols recommend wiping mounts with a damp cloth to remove dirt and residue, avoiding harsh solvents that could damage anodized finishes or components. Common failure points, such as loose pivots in QD levers or clamps, stem from inadequate or environmental exposure, and should be addressed by re-torquing to specifications and inspecting for after each use. Periodic of moving parts with enhances smoothness, but over-application should be avoided to prevent attraction of additional contaminants.

Tactical and Practical Use

In tactical firearms applications, bipods are deployed primarily in the to establish a stable firing platform for long-range shooting, where the shooter aligns their body parallel to the , spreads the bipod legs flat on the ground, and uses the nonfiring hand to adjust while maintaining a firm grip on the . This setup maximizes body contact with the ground for absorption and minimizes shooter movement, with the firing-side leg optionally bent at the to reduce stomach pressure against the bipod. Leg splay adjustments, such as locking at a 45-degree , enhance stability on varied by widening the base and allowing one-handed repositioning without lifting the . Bipods significantly improve accuracy beyond 300 meters by reducing muzzle sway and enabling consistent shot placement, as demonstrated in sniper systems like the M24, where the integrated bipod supports sub-MOA precision during extended engagements. They also mitigate shooter fatigue during sustained fire by distributing weapon weight and allowing muscular relaxation, which preserves a natural point of aim and increases first-round hit probability in combat scenarios. Practical considerations include adapting to uneven by combining bipods with sand socks or bags under the for additional leveling, preventing cant-induced errors on slopes or soft ground. In open-field , forward-mounted bipods with applied pressure excel for control in prone positions over long distances, while urban environments favor quick-detach, compact designs positioned rearward to navigate tight spaces and without increasing the rifle's profile. U.S. Army outlines bipod use in prone setups differently for machine guns and rifles. For machine guns like the M249 (per TC 3-22.249), bipods provide stability during 3-round bursts up to 800 meters effective range on area targets, with training for engaging multiple targets from concealed positions. For rifles (per TC 3-22.10), bipods enable precision single shots from concealed positions, supporting engagements up to 800 meters or beyond. In civilian precision rifle competitions, such as the , bipods like the MDT Ckye-Pod are widely used for their adjustable height and cant, enabling rapid adaptation to staged terrain and contributing to sub-MOA groups on targets beyond 300 meters.

Non-Firearm Applications

Surveying and Optics

In surveying, bipods serve as essential supports for stabilizing precision instruments such as theodolites and total stations on uneven terrain, enabling accurate leveling and angular measurements during field operations. These devices, which combine electronic theodolites with distance meters, rely on bipods to hold poles or GPS rovers steady, facilitating traverses and stakeouts without the need for full tripods in remote or rugged environments. Their use became prominent in the 1970s with the development of total stations, which required quick-setup stability for extended fieldwork. Bipods integrate with by mounting or spotting scopes, offering a compact alternative to tripods for steady observation in astronomy and viewing. This setup provides vibration-free views of celestial bodies or distant animals, allowing observers to maintain alignment while remaining mobile in natural settings. Key features tailored for these applications include fine-adjustment pivots on the head for precise instrument alignment and lightweight construction, with mini models weighing under 1 kg for enhanced portability during prolonged field surveys. Such designs, often made from aluminum or carbon , ensure rapid deployment and minimal encumbrance. Stable supports are necessary for achieving required accuracy in optical instruments, contributing to in angle and distance measurements.

Photography and Videography

In photography, mini-bipods provide essential stability for macro and low-angle shots using digital single-lens reflex (DSLR) cameras, often attaching via standard 1/4-inch tripod mounts to enable ground-level positioning without the bulk of full s. These devices support precise framing in scenarios, such as capturing intricate details of or , by minimizing camera shake during long exposures. In , bipods serve as lightweight supports for cameras in run-and-gun filming environments, where quick deployment reduces handheld shake and enhances footage smoothness. They allow videographers to maintain mobility while achieving partial stabilization for dynamic scenes, such as event coverage or work, without the setup time required for larger rigs. Specialized bipod designs incorporate flexible legs to adapt to uneven surfaces, offering enhanced versatility over rigid supports. These flexible elements, often made from durable rubberized grips and joints, support loads up to several pounds while folding compactly for transport. Professionals in favor bipods for their superior portability compared to , allowing rapid positioning in remote or fast-paced settings to capture elusive subjects like birds in flight. In , bipods are often improvised by extending two legs of a tripod for use in confined spaces.

Comparisons and Alternatives

Versus

Bipods and tripods differ in their core structure, with bipods employing two support legs attached directly to the device, such as a or camera, while tripods use three independent legs for freestanding stability. This two-legged design makes bipods simpler to deploy and inherently lighter, often weighing 5 to 12 ounces for rifle models, compared to tripods that typically range from 2.5 to 8 pounds depending on materials like aluminum or carbon fiber. The reduced leg count in bipods facilitates a compact profile, enhancing portability for users who prioritize mobility over absolute steadiness. In terms of use cases, bipods excel in quick, low-profile setups suited to dynamic environments, such as prone in tactical scenarios or lightweight where rapid positioning is essential. For instance, a bipod can be flipped out from a collapsed state in seconds for immediate support during mobile hunts or field work. In contrast, tripods provide superior stability for stationary applications, like extended observation through spotting scopes or , allowing full 360-degree rotation without repositioning and supporting elevated or imaging positions from kneeling to standing. Key trade-offs highlight these distinctions: bipods are more susceptible to lateral sway due to their bilateral support, potentially affecting precision in windy conditions or uneven , whereas tripods offer triangulated balance that minimizes such movement but at the expense of bulkier packing and slower setup times. Cost reflects these factors, with bipods generally ranging from $50 to $200 for quality models like Harris or Atlas variants, while tripods often cost $100 to $500, driven by additional hardware for height adjustment and load-bearing capacity. Some hybrid systems exist where bipods can be augmented with a detachable third leg or extension for added stability, though these compromise the inherent simplicity of pure bipod designs.

Versus Monopods

Bipods and monopods differ fundamentally in structure, with bipods utilizing two adjustable legs to create a broader base that anchors the supported device against both vertical and lateral forces, whereas monopods employ a single pole primarily for vertical load-bearing, relying on the user's body for side-to-side balance. This dual-leg design in bipods enhances overall rigidity, providing greater resistance to tilt and sway in uneven conditions compared to the monopod's more limited point of contact with the ground. In practical terms, the bipod's configuration distributes weight more evenly, reducing movement by anchoring at two points rather than one, which is particularly evident in applications requiring precise alignment. Use cases for bipods emphasize stationary or low-profile setups, such as prone positioning in long-range or fixed installations in , where the grounded support minimizes environmental disturbances like . Conversely, monopods excel in scenarios demanding mobility, including standing shots during hunts or navigating crowded events, as they allow the user to maintain freedom of movement while still alleviating arm fatigue. These contrasts highlight the bipod's role in scenarios prioritizing accuracy over speed, while monopods support dynamic positioning without compromising portability. The trade-offs between the two involve stability versus convenience: bipods offer superior steadiness but at the cost of slightly more weight than comparable monopods and slightly more time to extend and level the legs, in contrast to the monopod's near-instantaneous setup by simply planting the pole. This makes bipods less ideal for rapid transitions but invaluable for sustained precision, whereas monopods' lighter profile facilitates extended carry and quick adjustments. In precision surveying, bipods are favored for securing instruments like prism poles on rugged terrain to ensure measurement accuracy. For event photography, monopods provide essential support in fluid settings, enabling photographers to track subjects without the bulk of additional legs.

References

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