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Anamorphic format

Anamorphic format is a technique that employs specialized anamorphic lenses to horizontally compress a image during capture on standard or digital sensors, allowing for a wider that is subsequently expanded during or post-processing to achieve aspect ratios such as 2.39:1. This method enables filmmakers to record expansive horizontal compositions without requiring larger film formats, preserving vertical resolution while enhancing the immersive quality of the image. The format is distinguished by its optical properties, including horizontal squeeze factors typically ranging from 1.33x to 2x, which differentiate it from non-anamorphic processes. The origins of anamorphic format trace back to 1927, when French astronomer Henri Chrétien patented the Hypergonar lens, an anamorphic system initially developed for military periscopes but envisioned for motion pictures to create panoramic views. Despite early demonstrations, such as a 1928 short film, the technology remained unused in commercial cinema until the 1950s, when 20th Century Fox licensed Chrétien's design and introduced with the 1953 release of , marking the first major anamorphic widescreen production. This innovation responded to the competitive pressures from television by offering theaters a visually spectacular alternative, initially standardizing the 2.55:1 (later adjusted to 2.35:1), and spurring widespread adoption across and international filmmaking. Beyond its technical foundation, anamorphic format is renowned for distinctive aesthetic qualities that contribute to its enduring appeal in modern cinema. These include , where focus shifts cause elliptical expansion or contraction due to differing horizontal and vertical lens powers, adding dynamic visual cues; anamorphic flare, characterized by horizontal streaks from cylindrical lens elements that enhance dramatic lighting effects; and oval bokeh, where out-of-focus highlights appear elliptically shaped, imparting a signature softness and immersion. Additionally, it provides superior magnification and perspective compared to spherical lenses on Super 35 formats, capturing more natural depth and for epic storytelling. Today, anamorphic lenses from manufacturers like and continue to be favored for high-profile productions, blending historical legacy with digital workflows.

Overview

Definition and Basic Principles

The anamorphic format is a cinematographic technique that enables the capture of images on standard or media with narrower aspect ratios by horizontally compressing the image during recording and subsequently decompressing it for projection or display to restore the intended proportions. This process, known as , involves deliberately distorting the image through optical means to fit it onto a conventional , such as 35mm , allowing filmmakers to achieve expansive horizontal fields of view without requiring larger physical formats. At its core, the basic principles of anamorphic format rely on specialized lenses that apply a horizontal squeeze factor, typically 2x, which compresses the image width by half while leaving the vertical dimension unchanged. These lenses incorporate cylindrical elements—curved glass that magnifies or demagnifies only in the —to create this distortion during capture, ensuring that objects appear vertically correct but horizontally elongated when unsqueezed. The correction occurs either optically via a matching or digitally in , reversing the squeeze to produce a natural-looking image. This selective horizontal alteration stems from principles of , where the cylindrical curvature refracts light rays asymmetrically to reshape the field of view. The concept of anamorphosis originated in late 19th-century optics with early patents for anamorphic lenses, though its widespread application in film emerged in the 20th century to meet the demand for immersive cinematic experiences. In a squeezed anamorphic image, subjects appear unnaturally tall and slender, as if vertically stretched, due to the horizontal compression; for instance, a circular object might resemble an with exaggerated height. Upon decompression, the image expands horizontally to reveal the full composition, with the cylindrical lens effects illustrated by how light rays from the edges of the frame are bent inward during recording and outward during projection, effectively widening the perceived scene without altering vertical fidelity.

Advantages and Limitations

One key advantage of the anamorphic format lies in its efficient use of the film negative, particularly in 35mm productions, where it employs the full height of the 4-perf rather than cropping vertically as required for aspect ratios in spherical formats. This approach retains higher vertical and reduces visible , providing an effective horizontal resolution comparable to that of larger formats when desqueezed, thereby enhancing overall image quality without sacrificing detail. Additionally, anamorphic lenses deliver a wider without the need for cropping the image area, allowing cinematographers to capture expansive scenes while maintaining the characteristics of standard focal lengths. Aesthetically, they produce distinctive optical effects, such as horizontal lens flares that streak across the frame and oval-shaped that imparts a romantic, cinematic separation between subjects and backgrounds, contributing to the format's immersive appeal. Despite these benefits, the anamorphic format introduces several limitations, including the potential for "anamorphic ," a where close-up subjects, especially faces, appear unnaturally widened due to variations in the squeeze factor across the field, particularly when positioned near the center or edges of the frame. This can complicate actor performances and require careful framing or corrections to mitigate. The format also demands greater complexity and cost, as anamorphic lenses are significantly more expensive to manufacture and maintain than spherical alternatives, often involving intricate that increase production budgets for both acquisition and rental. Compatibility challenges arise with non-anamorphic equipment, such as standard cameras, monitors, and projectors, necessitating specialized adapters or de-squeezing processes that may not integrate seamlessly with all workflows. In terms of impacts, the requirement for de-squeezing the compressed during and adds steps that can introduce artifacts, such as edge stretching or inconsistent scaling, if not managed with precise software or , potentially extending timelines and raising the risk of quality loss in non-specialized facilities.

History

Early Development and Equipment

The anamorphic format originated with the invention of the Hypergonar lens system by French astronomer and optical designer Henri Chrétien in the mid-1920s. Inspired by the triptych projection sequence in Abel Gance's 1927 film Napoléon, which utilized three synchronized projectors for a panoramic effect, Chrétien sought to achieve similar visuals using standard 35mm film. He developed the Hypergonar as an afocal anamorphic attachment consisting of cylindrical lenses that compressed the horizontal by a factor of approximately 2:1 during photography, allowing the unsqueezed image to be expanded during projection for a wider . Chrétien filed the initial for the system on December 9, 1926, focused on applications, followed by a key extension on April 29, 1927, specifically for using anamorphic compression and expansion. The system was first used in cinema for the 1928 short film Construire un feu directed by Claude Autant-Lara. The Hypergonar saw its first public demonstration in 1931 at the International Colonial Exposition in , where Chrétien projected short films such as Une visite aux merveilles de l'Exposition Coloniale Internationale and La Tour Eiffel avec Hypergonar onto a 13-meter-wide screen using twin projectors equipped with the lens attachments for both horizontal and vertical . Despite these innovative showcases, the system struggled to gain traction in the sound era due to high costs, technical complexities, and the dominance of standard formats, limiting its use to experimental shorts and failing to achieve commercial viability in feature films during the 1930s. The technology's roots traced back to military needs, where Chrétien adapted for periscopes in to provide a wider through narrow vision slits, enhancing for crews; this wartime application laid the groundwork for its later civilian adaptation in cinema. Following , interest in widescreen formats revived amid competition from television, prompting studios to revisit Chrétien's patents. In 1952, 20th Century Fox acquired rights to the Hypergonar prototypes, rebranding them as and commissioning to manufacture improved versions. Early anamorphic cameras were modifications of existing Mitchell BNC models, which were adapted with custom lens mounts to accommodate the heavy cylindrical attachments—typically front-mounted prismatic or aspherical elements that squeezed the image onto standard 35mm negative. These modifications included reinforced turrets and stabilized viewfinders to handle the added weight and optical distortions, though the setup often required precise calibration to maintain frame registration. Projectors followed suit, employing similar anamorphic attachments on standard lenses, such as prism-based expanders with multiple cylindrical elements to unsqueeze the image, but alignment between camera and projector optics was critical to avoid barrel distortion or focus shifts. The first major implementation came with Fox's (1953), the inaugural feature, shot on modified Mitchell cameras with 2x squeeze lenses that achieved a 2.55:1 (including magnetic sound tracks). Production faced significant challenges, including shallow due to the horizontal compression, which complicated focus pulling—operators had to align the lens elements meticulously to prevent vertical misalignment and , often requiring on-set tests with custom diopters for close-ups. These early setups highlighted the format's demands, as the anamorphic attachments introduced , , and uneven sharpness across the frame, yet they established the technical foundation for widespread adoption in the .

Naming Conventions and Commercial Adoption

The anamorphic process originated with French inventor Henri Chrétien's Hypergonar system, patented in 1927 as a wide-angle optical attachment for capturing and projecting distorted images that could be restored to their original proportions. In 1952, 20th Century Fox acquired the rights to Chrétien's prototypes and rebranded the technology as , trademarking the name in 1953 to market it as a proprietary format. This shift from the technical descriptor "Hypergonar" to the consumer-facing "CinemaScope" emphasized spectacle and immersion, though "anamorphic" emerged as the generic term for the compression technique, leading to ongoing distinctions between proprietary brands like and —later developed as a competing system—and the broader methodology. Early competitors, such as France's Cinépanoramic process introduced in 1953, adopted alternative trade names to challenge Fox's dominance without infringing on its . Commercial adoption of anamorphic formats accelerated in the early 1950s as sought to counter the rising popularity of , which had contributed to a sharp decline in cinema attendance from 90 million weekly viewers in 1948 to under 50 million by 1953. 20th Century Fox spearheaded this effort by licensing to other studios and theaters, requiring exhibitors to install curved screens and systems for optimal presentation, with over 200 weekly installation requests reported by mid-1953. The format's debut film, (1953), demonstrated its box-office potential by grossing over $36 million worldwide—equivalent to more than $400 million in today's terms—and setting single-theater records, such as $36,000 in one day at New York's Roxy Theatre, thereby revitalizing interest in theatrical epics. This success prompted widespread licensing, with studios like adopting the process by late 1953 to standardize offerings and boost revenues. Standardization efforts by the Society of Motion Picture and Television Engineers (SMPTE) in the mid-1950s addressed compatibility issues across early anamorphic implementations, which varied in squeeze ratios from the initial 2:1 design yielding a 2.66:1 . In 1957, SMPTE issued PH22.106-1957, defining projector apertures at 0.839 × 0.715 inches to achieve a consistent 2.35:1 with a 2:1 squeeze, ensuring compatibility with standard 35mm prints and reducing artifacts. These guidelines facilitated broader implementation by specifying optical and alignments, minimizing variations that had plagued initial deployments. The global spread of anamorphic formats in the was driven by Bausch & Lomb's production of lenses, which improved from prototype quality by early 1954 through refinements in coating and aberration control, enabling reliable manufacturing for international markets. Adoption began in with the U.K. premiere of in November 1953, followed by gradual uptake in and other countries despite economic barriers, as theaters upgraded for projection. In , the format gained traction through licensed productions and imports, with studios experimenting with similar systems by the late to compete in the expanding postwar .

Optical Innovations and Evolution

Following the initial adoption of anamorphic technology in the 1950s, optical innovations in the focused on achieving more consistent and optical performance. One major advancement was the development of constant squeeze lenses, which eliminated the variable issues of early attachments like those in by integrating the anamorphic elements directly into prime lenses for uniform horizontal compression across the frame. This was exemplified by Panavision's C-Series anamorphic primes introduced in 1968, which provided a reliable 2x squeeze in a compact design suitable for handheld and use. Concurrently, improvements in multi-layer antireflection coatings on lens elements reduced and veiling glare—common problems in early anamorphic optics due to the cylindrical elements—while minimizing at the edges and enhancing overall contrast. These coatings, refined through the decade, suppressed unwanted reflections without compromising the signature horizontal streaks from point light sources, allowing for cleaner images in high-contrast scenes. By the 1970s, refinements addressed compatibility with standard 35mm workflows and emerging broadcast standards. In 1970, SMPTE updated the standard (PH22.106-1970) to a aperture of 0.838 × 0.700 inches, establishing the 2.39:1 with the established 2x squeeze. This change provided more space for the optical and helped conceal frame line splices, improving print quality and versatility for theatrical and television distribution without altering the core method.) In the 1990s, the advent of (DI) processes further simplified de-squeezing by enabling precise digital unsqueezing of scanned negatives, bypassing the limitations of analog optical printers and allowing for non-destructive adjustments during . Early DI workflows, emerging around 1995, were applied to anamorphic footage to restore full images with minimal artifacts, revitalizing the format's efficiency. Notable milestones underscored these technical refinements. Panavision's Primo anamorphic lenses, launched in 1989, represented a leap in image sharpness and color consistency through advanced aspherical elements and optimized coatings, earning multiple Academy Scientific and Technical Awards for their low-distortion performance across focal lengths. Similarly, Cooke Optics advanced anamorphic imaging in the 1980s with modifications to their Speed Panchro series, incorporating improved glass formulations and coatings to deliver sharper, higher-contrast images when paired with anamorphic adapters, reducing barrel distortion and enhancing focus falloff for a more natural bokeh. The 1980s marked a period of decline for optical anamorphic cinematography, driven by the rise of the VHS home video market, which favored 4:3 aspect ratios and encouraged spherical lens use for straightforward pan-and-scan transfers that avoided the complexities of de-squeezing analog prints. This shift prioritized broadcast and consumer video compatibility over theatrical widescreen, leading to fewer anamorphic productions as Super 35 spherical formats gained traction for their simplicity in post-production. However, the format experienced a revival in the 2000s and beyond through large-format applications, particularly in 65mm anamorphic systems like Ultra Panavision 70, which combined low-squeeze (1.3x) optics with horizontal film transport to achieve immersive 2.76:1 ratios for IMAX-compatible screenings in films seeking heightened visual scale. This resurgence emphasized anamorphic's unique distortions and depth for epic narratives, bridging analog optics with digital projection.

Technical Specifications

Aspect Ratios and Image Compression

The anamorphic format enables a range of aspect ratios on 35mm film by optically compressing the horizontal image dimension onto the available frame area, allowing for wider compositions without cropping the vertical height. Common ratios include the early standard of 2.55:1, which utilized the full silent aperture for maximum image area; the post-1957 2.35:1 ratio, adjusted for optical soundtracks; and the modern 2.39:1 (often rounded to 2.40:1), standardized by SMPTE for compatibility. Additionally, lower squeeze factors can adapt anamorphic imaging to the 1.85:1 flat ratio, typically achieved on film stock to minimize resolution loss compared to spherical cropping. These ratios are realized through precise matching of the film's physical frame dimensions to the desired effective proportions post-unsqueezing. For instance, the standard 35mm anamorphic camera measures 0.864 inches wide by 0.732 inches high, yielding a frame (AR_frame) of approximately 1.18:1, which expands to 2.39:1 with a nominal 2x squeeze. This taller compared to the 1.37:1 frame (0.864 x 0.630 inches) maximizes negative area usage while accommodating the compression. Image compression in anamorphic format involves horizontally squeezing the scene's rays by a factor S via elements, fitting a wide into the narrower width while preserving vertical fidelity. The squeeze factor S is determined by the ratio of the target effective to the 's native : S = AR_effective / AR_frame. For the example of achieving 2.39:1 on a 1.195:1 (derived from adjusted dimensions post-1970), S ≈ 2.00, as 2.39 / 1.195 = 2.00; early implementations targeted 2.55:1 on a 1.275:1 with S ≈ 2.00 to leverage the full 1.33:1 silent before sound masking. In workflows, this results in non-square aspect ratios (PAR), where PAR = 1 / S horizontally, necessitating desqueezing software to stretch and restore geometric accuracy without interpolation artifacts. The fundamental equation governing the effective aspect ratio is: \text{AR}_{\text{effective}} = \text{AR}_{\text{frame}} \times S This derives from the frame's physical dimensions: let the frame width be w and height h, so AR_frame = w / h. The anamorphic lens compresses the scene's horizontal field by S, recording an image that, when expanded by S in projection or post-production, yields an effective scene width of S \times w and height h. Thus, AR_effective = (S \times w) / h = S \times (w / h). For 35mm film, AR_frame values like 1.195:1 stem from aperture specs (e.g., effective usable width of 0.825 inches projected from 0.866 inches exposed, with height 0.690 inches), ensuring compatibility across origination and projection. Practically, compression redistributes across a wider effective area, making grain appear finer and less noticeable in the unsqueezed , particularly beneficial for 2.39:1 ratios that utilize nearly the of spherical formats. In scanning analog negatives to , mapping involves sampling the squeezed at full density (e.g., 2K or ), then desqueezing to yield effective equivalent to twice the 's native sampling, such as mapping a 2K squeezed to desqueezed while maintaining vertical integrity. This process preserves the format's advantage during archival or .

Lens Characteristics and Functionality

Anamorphic lenses incorporate that compress the onto the film or , in contrast to spherical lenses, which feature uniform spherical across all and produce undistorted, circular . This cylindrical design results in distortions, where the effective is shorter than the vertical one—for instance, a 2x squeeze anamorphic with a marked 100mm behaves as approximately 50mm horizontally and 100mm vertically, creating a wider post-unsqueeze while maintaining vertical . These lenses often exhibit edge softness, barrel , and characteristic oval due to the asymmetric , though modern designs minimize these for sharper overall performance. In operation, squeeze elements in anamorphic lenses are typically integrated into prime lens designs for seamless attachment via standard mounts like PL, allowing direct use on 35mm or cameras. For zoom lenses, attachments such as front or rear anamorphic adapters can be clamped or threaded onto spherical zooms, though this adds weight and may alter balance, complicating handheld or rigs. Focus pulling presents unique challenges, as the differing horizontal and vertical magnifications cause disproportionate breathing—where the apparent shifts more dramatically during rack compared to spherical lenses—requiring precise pre-marking and often blocking shots to limit pulls. Prominent types include Panavision's Primo Anamorphic primes, which deliver high contrast, even illumination, and consistent color across focal lengths from 35mm to 100mm. The G-Series Anamorphics emphasize balanced aberration control, glare resistance, and lighter construction for faster setups, with focal lengths spanning 25mm to 100mm. eXtended Data anamorphics, such as the Master Anamorphic series, integrate metadata encoding for distortion and shading, enabling precise post-production corrections while covering sensors. For projection, anamorphic lenses must ensure uniform unsqueezing across the entire frame to avoid or barrel artifacts, typically achieved with dedicated that apply an inverse horizontal expansion matching the capture squeeze factor. Performance metrics vary by design, but modern anamorphic primes often achieve aperture ranges down to T1.9, as seen in the Master Anamorphic series, balancing speed with shallow . Weights typically range from 4 to 6 pounds for compact sets like the G-Series, facilitating easier compared to bulkier predecessors. These lenses maintain compatibility with standard 35mm stocks, such as Vision3, provided the format covers or Academy apertures to accommodate the squeezed image without .

Manufacturers and Proprietary Systems

Key Lens Makers and Trademarks

, founded in 1954 by Robert Gottschalk, emerged as a dominant force in Hollywood's anamorphic lens production, initially manufacturing projection attachments for the format before developing its own taking lenses. The company shifted to a rental-only model in 1964, which revolutionized access to high-end optics by allowing productions to lease premium equipment without prohibitive upfront costs, thereby influencing industry standards and enabling widespread adoption of anamorphic cinematography in major films. 's anamorphic lines, such as the C Series and later primes, became staples in blockbusters, underscoring its market leadership through the with usage in hundreds of high-profile titles. Bausch & Lomb played a pivotal role in early anamorphic commercialization through its lenses, developed in collaboration with 20th Century Fox starting in 1953 and used until 1967, when the trademark was phased out amid evolving formats. This trademarked system, featuring 2x squeeze optics, set the benchmark for presentation and earned an Academy Award in 1954 for its innovative design. Todd-AO, introduced in 1955 as a 70mm process, extended into anamorphic variants for 35mm with 2.35:1 using 2x squeezed on reduction prints from 65mm negatives or direct 35mm anamorphic productions, distinguishing it as a wide-format alternative to standard 35mm anamorphics. The trademark encompassed both non-anamorphic and squeezed , impacting epic productions through the late . In modern developments, ARRI's longstanding partnership with , dating back over a century but expanding significantly in the , produced the Master Anamorphic series starting in , offering high-performance 2x squeeze primes with minimal distortion and enhanced flare control for digital and film workflows. Cooke Optics introduced its Anamorphic/i lines in 2013, including full-frame coverage variants with 1.8x squeeze and organic , emphasizing color matching and aberration control across focal lengths from 25mm to 180mm; the line expanded with Full Frame Plus models in 2018. Vantage Film's Hawk anamorphics, launched in the early 2000s with series like V-Series and V-Lite, provide 2x and 1.3x options renowned for intense flares, elliptical , and versatility in capturing cinematic depth.

Origination and Projection Systems

In anamorphic origination, the camera is configured with a squeeze lens mounted in front of a prime or zoom taking lens to compress the horizontal field of view onto the recording medium, typically achieving a 2x squeeze for a final 2.39:1 aspect ratio from a 1.195:1 captured frame. Proper alignment of the anamorphic element is essential to ensure uniform compression across the frame and minimize artifacts like vertical pincushion distortion or breathing; this is accomplished using precision shims and calibration procedures that adjust the lens-to-sensor distance to within 6 micrometers. Integration with the camera's viewfinder or external monitors involves applying a digital de-squeeze factor in real-time, allowing operators to compose shots in the intended widescreen proportions without optical distortion in monitoring. Projection systems for anamorphic content vary by era and medium. In analog film theaters, projectors employ anamorphic attachments—often 0.5x expander es—to unsqueeze the horizontally compressed image during exhibition, restoring the full aspect while projecting onto curved screens for optimal . Modern projectors, such as or 8K DLP or laser models, receive pre-de-squeezed imagery via Digital Cinema Packages (DCPs), where the active image area for scope formats is defined at 4096 × 1716 pixels within a 4096 × 2160 to maintain the 2.39:1 ratio without physical lens intervention. Workflows differ significantly between analog film printing and digital intermediate (DI) processes. In traditional analog pipelines, the squeezed camera negative is contact-printed or optically enlarged onto positive print stock using matched anamorphic optics to preserve the compression, resulting in release prints that require de-squeezing only at ; this method adheres to SMPTE standards for aperture and squeeze uniformity but limits flexibility for adjustments. Conversely, DI workflows scan the squeezed negative at high resolution (e.g., or higher), apply software-based de-squeezing during and conforming, and output to either re-squeezed film prints via laser recorders or native de-squeezed DCPs compliant with specifications, enabling precise calibration for color, density, and across digital ecosystems. A notable case is the 2016 film The Magnificent Seven, which was shot on 35mm film using Panavision C, G, and E Series anamorphic lenses with a 2x squeeze to capture 2.39:1 imagery. The negative was scanned for digital intermediate processing and output to DCI-compliant DCPs for 4K digital projection.

Related and Alternative Formats

Super 35 Format

Super 35 (S35) is a non-anamorphic widescreen film format that exposes the full silent-era aperture on 35 mm film stock, measuring 24.89 mm wide by 18.66 mm high, to capture a native 1.33:1 aspect ratio image. This allows for subsequent cropping in post-production or printing to achieve theatrical ratios like 1.85:1 or 2.39:1 without the need for optical compression. The format originated in the early 1980s when British cinematographer Joe Dunton revived the earlier Superscope 235 process for his 1981 documentary , using a full-aperture gate to maximize negative area on standard stock. adopted and refined the approach as a cost-effective alternative to anamorphic shooting, promoting it under the Super 35 name starting around 1983 to leverage existing spherical lenses and simplify production workflows. It saw early commercial success in narrative features, notably (1988), where it was used for to blend live-action and elements efficiently. Technically, Super 35 requires no image squeeze during capture, relying instead on optical printing or digital cropping to extract the frame from the larger negative area. When cropped to 2.39:1, it uses approximately 24.89 mm of horizontal image width by 10.41 mm vertical height on the negative, providing horizontal resolution comparable to standard anamorphic (around 2,000 lines in prints), but with a different grain structure due to the unsqueezed —often appearing finer vertically but potentially coarser overall in prints from the reduced vertical area. Compared to anamorphic formats, offers advantages such as simpler, lighter spherical lenses that are more affordable and versatile for , along with streamlined that avoids desqueeze artifacts. However, for 2.39:1, the cropping discards about 44% of the captured vertical (or around 28% for 1.85:1), potentially leading to losses in detail and increased visible grain when enlarged for release prints.

Techniscope Process

Techniscope is a motion picture camera that utilizes a two-perforation (2-perf) pulldown per , effectively halving the standard frame height to achieve a image without anamorphic compression during photography. Introduced in 1960 by the division of Corporation, it features a frame size of approximately 22 mm in width by 9.5 mm in height, yielding a native that, after processing, supports a 2.35:1 presentation through optical enlargement. This format was designed as an economical alternative for producing films, particularly appealing to low-budget productions in during the 1960s. The development of stemmed from efforts to minimize costs amid the rising demand for cinema following the introduction of formats like . engineers created the system to allow standard cameras to capture twice as many frames per length of negative, reducing material expenses by about 50% compared to traditional 4-perf formats. It gained prominence in Italian cinema, notably in the "spaghetti western" genre, with Sergio Leone's 1966 film The Good, the Bad and the Ugly serving as a landmark example that showcased its viability for epic-scale storytelling on limited budgets. Over 500 films were produced using by the late 1960s, primarily in and other cost-conscious markets, before its use declined with improvements in and alternative methods. In the Techniscope process, the camera advances the film by two perforations per frame instead of the standard four, exposing a compact horizontal image using spherical lenses. After development, the negative undergoes optical printing where each 2-perf frame is enlarged vertically by a factor of two and horizontally compressed (squeezed) to fit a standard 4-perf positive stock, creating an anamorphic print compatible with conventional projectors equipped with unsqueezing lenses. This blow-up step, often performed via Technicolor's dye-transfer printing system, expands the small negative area to full-frame size while applying the necessary squeeze for projection. The primary advantage of Techniscope lies in its cost efficiency, as it consumes half the negative of full-height formats, making it ideal for extended productions without sacrificing the ability to project in 2.35:1. However, the smaller negative area results in lower and increased visible upon enlargement, particularly noticeable on large theater screens. Compared to traditional anamorphic processes, which capture a full-height image with squeezed for inherently higher fidelity, Techniscope prioritizes economy over image quality, often leading to a coarser appearance despite the optical enhancements during printing.

Contemporary Applications

Digital Cinema and Post-Production

Since the 2000s, anamorphic format has been integrated into digital cinema workflows, allowing filmmakers to capture wide aspect ratios using electronic sensors while preserving the characteristic squeezed image. Digital cinema cameras, such as the ARRI Alexa series, support anamorphic lenses that apply a standard 2x horizontal squeeze to the image projected onto the sensor. For instance, the ARRI Alexa LF records the squeezed image directly without in-camera de-squeezing, utilizing areas of its 4.5K sensor to meet 4K resolution mandates when paired with 35mm format 2x anamorphic lenses. This approach maintains the format's widescreen potential, typically aiming for a 2.39:1 aspect ratio after de-squeezing, by leveraging the full horizontal resolution of sensors like the Alexa's 4448 x 3096 pixels in ARRIRAW or ProRes formats. In , de-squeezing is handled through specialized software that restores the image's proportions while accounting for pixel aspect ratios (PAR). Tools like Blackmagic Design's enable users to adjust clip attributes, setting custom PAR values—such as 2.0 for 2x anamorphic—to automatically de-squeeze footage during editing and , ensuring accurate preview and output without resampling artifacts. Similarly, The Foundry's Nuke recognizes anamorphic media via and applies de-squeezing in its viewer and nodes, supporting non-square pixel workflows for . Codecs like incorporate PAR in their container format, allowing squeezed images to be encoded (e.g., at 2048 x 858 pixels for 2K scope) and decoded correctly in compatible systems, preserving quality across editing pipelines. Digital anamorphic workflows adhere to (DCI) standards, which specify 2.39:1 as the scope for theatrical projection, with resolutions like 4096 x 1716 pixels for DCPs to accommodate de-squeezed content. Metadata flags for anamorphic handling, often embedded in MXF or files per SMPTE ST 377-1, indicate squeeze factors and PAR to ensure interoperability during distribution and playback. These standards facilitate seamless projection on DCI-compliant systems without additional hardware, bridging analog anamorphic origins to digital delivery. A notable example is the 2015 film The Revenant, directed by Alejandro G. Iñárritu and shot by , which employed XT, Alexa M, and Alexa 65 cameras with Zeiss Master Anamorphic lenses to capture squeezed 6K imagery under natural light conditions. The production's digital pipeline included de-squeezing in for a 2.39:1 master, optimized for HDR workflows that enhanced dynamic range in and formats, resulting in a reference-grade 4K UHD release that highlighted the format's immersive depth and detail.

Recent Industry Trends

In recent years, the anamorphic format has experienced a revival in the film industry, driven by its ability to deliver immersive widescreen visuals in prestige productions. This resurgence is reflected in major awards contenders, including the 2025 Oscar-nominated and winning film Anora, which was shot on 35 mm film using 4-perf anamorphic format to enhance narrative depth and aesthetic appeal. The format's integration with advanced technologies, such as LED volumes and visual effects, has amplified its appeal; for example, virtual production pipelines now leverage anamorphic optics to combine real-time environments with post-production enhancements seamlessly. In television and streaming, anamorphic format contributes to a cinematic quality that elevates episodic content. The series (2019–), produced by and Disney+, prominently features Panavision's full-frame Ultra Vista 1.65x anamorphic lenses, which were paired with LED wall-based virtual production to create expansive, immersive scenes while preserving the format's signature flares and . Platforms like have facilitated this trend by approving cameras for anamorphic capture in UHD deliverables, enabling squeezed footage that unsqueezes to ratios without loss, thus supporting the format's use in original series and films. Looking toward future directions, anamorphic format shows promise in ultra-high-resolution applications, including 8K workflows, where specialized lenses maintain optical compression for even wider aspect ratios on sensors capable of capturing detailed, distortion-free images. The broader shift to capture and over analog aligns with goals in the industry, reducing environmental impacts from chemical processing and enabling more efficient anamorphic implementations across global productions. Market data underscores this momentum, with the global lenses sector—including anamorphic variants—projected to expand from USD 7.41 billion in 2024 to USD 7.90 billion in 2025, signaling sustained adoption in blockbusters and streaming content.

References

  1. [1]
    What Is Anamorphic Format?: 4 Features of Anamorphic Lenses
    Aug 1, 2022 · What Is the Anamorphic Format? ... The anamorphic format is a technique cinematographers use to create a widescreen image from a standard ...
  2. [2]
    anamorphic format - The Virtual Production Glossary
    anamorphic format ... A film format characterized by the fact that the image captured on the negative is horizontally squeezed by the use of a special lens. It is ...
  3. [3]
    [PDF] All About Anamorphic - Film and Digital Times
    By the way,. Ben Hur was shot in MGM Camera 65 anamorphic format, which was squeezed not 2x but 1.25x. That format became known as. Ultra Panavision 70, and was ...
  4. [4]
    OSA Centennial Snapshots: New Visions of Movies
    Apr 1, 2016 · Intriguingly, French astronomer Henri Chrétien (1879–1956), who invented the first anamorphic motion picture lens, claimed that the widescreen ...
  5. [5]
    [PDF] CinemaScope The Modern Miracle You See Without Glasses
    Apr 24, 2013 · Although Scope faded fairly quickly, its physical premise, anamorphic optics, has remained an important filmmaking resource. Scope's innovations ...
  6. [6]
    Cinerama: Revolutionizing the Film Industry in the 1950s
    Jul 3, 2024 · Anamorphic widescreen, originally trademarked as CinemaScope by 20th Century Fox, produced an aspect ratio of 2.35:1 and eventually became a ...
  7. [7]
    The Five Pillars of Anamorphic – Disproportionate Breathing
    ### Summary of Anamorphic Breathing
  8. [8]
    The Five Pillars of Anamorphic – Bokeh
    ### Summary of Anamorphic Bokeh
  9. [9]
    The Five Pillars of Anamorphic – Magnification and Perspective
    Panavision's Dan Sasaki explores the qualities that lend anamorphic capture a more natural perspective than Super 35.
  10. [10]
    Summary of Current Wide-Screen Processes
    Apr 3, 2020 · Basically an anamorphic process, the squeezing of the image is done in the laboratory, after the negative is shot.
  11. [11]
    What is an Anamorphic Lens? How to Get that Cinematic Look
    May 25, 2025 · A brief journey through history will help us appreciate the anamorphic format and its unlikely invention and popularity. And if you're a ...
  12. [12]
    Understanding Anamorphic Lenses - RED cameras
    Anamorphic lenses are specialty tools which affect how images get projected onto the camera sensor. They were primarily created so that a wider range of aspect ...
  13. [13]
    A Guide to Anamorphic Lenses for Cinematic Filmmaking
    An anamorphic lens is a type of camera lens that horizontally compresses a wide image to fit onto a standard camera sensor or film frame. This optical ...
  14. [14]
    Introduction of CinemaScope - In 70mm
    Nov 20, 2014 · The first patents for anamorphic lenses were granted in the late 19th century. CinemaScope was derived from an anamorphic-lens system created ...
  15. [15]
    Behind the Cinematic Look of Anamorphic Lenses – A Short Guide ...
    Apr 26, 2024 · the Cinematic Look of Anamorphic Lenses – squeezed onto sensor. The first patent for an anamorphic lens was registered way back in 1898 in ...
  16. [16]
    2-Perf vs 3-Perf vs 4-Perf: 35mm Film Formats Explained
    Aug 13, 2023 · 4-perf offers the largest exposure area of 35mm film at 18.7mm tall. Because more surface area is used the film grain will be smaller and the image will be of ...
  17. [17]
    Anamorphic lens captures cinematic look for Champions League Final
    Jun 16, 2023 · He continues: “A second advantage of anamorphic images is a visual effect, that horizontal band, or line of blue/blue light, which is generated ...
  18. [18]
    Cinemascope - The Allure of Panoramic Film - Art in Context
    Nov 23, 2023 · Chrétien's groundbreaking invention, the anamorphic lens, is at the heart of Cinemascope's origin. This lens allowed for the horizontal ...
  19. [19]
    Cooke Anamorphic Lenses Bring Class and Character to a Clean ...
    Mar 31, 2017 · We worked aggressively to avoid bad things such as the “anamorphic mumps”, where the closer a face is to the lens the wider it becomes. Also, ...
  20. [20]
    All Mumped Up, or Do “Mump Monks” Exist? - Hollywood Elsewhere
    Unfortunately these lenses had an inherent distortion known today as 'the CinemaScope Mumps'. CinemaScope Mumps occur due to the variable 'squeeze' coefficient ...
  21. [21]
    The Difference Between Anamorphic and Spherical Lenses
    They also improve image quality by enhancing vertical resolution and reducing the appearance of grain. Anamorphic lenses are incredibly expensive. In terms of ...
  22. [22]
    Aspect Ratios - Widescreen.org
    The advantages to this format include making the film stock last twice as long as 4-perf filming, cost savings by using spherical lenses instead of anamorphic, ...Missing: limitations | Show results with:limitations
  23. [23]
    L'HYPERGONAR | Il Cinema Ritrovato Festival
    The first patent was obtained by Chrétien on 9 December 1926, for color photography; application to widescreen followed on 29 April 1927. The use of Hypergonar ...Missing: details demonstrations
  24. [24]
    A History of Widescreen and Wide-Film Projection Processes
    Feb 9, 2010 · French physicist Henri Chretien developed a similar “squeeze” lens called Anamorphoscope in 1927 ... The patent describes it as switching ...<|control11|><|separator|>
  25. [25]
    Anamorphic History - Film and Digital Times
    Sep 16, 2012 · Chrétien developed the Hypergonar lens in 1927 for photography and cinematography. The format didn't take off until 1952, when Twentieth Century ...Missing: 19th | Show results with:19th
  26. [26]
    Henri Chrétien and his magnificent contribution to the - NASA ADS
    During each World War he devoted his time primarily to the solution of optical problems stemming from military requirements. Chr~tien's educational ...
  27. [27]
    Summary of Current Wide-Screen Processes
    Apr 3, 2020 · The sprockets, movement, etc., were altered by Mitchell Camera Corporation to take standard Eastman 65mm film. Each frame is 5 sprocket holes ...Missing: early | Show results with:early
  28. [28]
    Web Exclusive - American Cinematographer
    The first patents for anamorphic lenses were granted in the late 19th century. ... Todd-AO used obsolescent Mitchell BFC 65mm film cameras, to which an ...
  29. [29]
    CinemaScope(1952–1967) - FILM ATLAS
    ... Hypergonar” lens that French inventor Henri Chrétien had developed in the 1920s. Some of these lenses were still in existence and Fox made initial tests ...
  30. [30]
    Distorting Reality - What are Anamorphic Lenses? - Cooke Optics
    Anamorphic lenses capture a wider horizontal view by optically distorting the image, using a 'squeezing' attachment, and are typically twice as wide as the ...Missing: military applications
  31. [31]
    Cinépanoramic(1953–1956) - FILM ATLAS
    ... films in the anamorphic format, a dozen short and medium-length documentaries were produced in Cinépanoramic between 1954 and 1956, including Michel Rocca's ...Missing: definition | Show results with:definition
  32. [32]
    A Century in Exhibition – The 1950s: Turmoil, TV, and Technological ...
    Apr 15, 2020 · 1953 was a landmark year due to the introduction of widescreen shooting format CinemaScope, first used with 20th Century Fox's The Robe.
  33. [33]
    The CinemaScope Rebound - - CineMontage
    Mar 1, 2012 · In 1953, there had been 200 to 250 exhibitor requests per week to Fox for CinemaScope installations. By April 1954, there were approximately ...
  34. [34]
    The Robe - AFI Catalog - American Film Institute
    ... movie box-office receipts due to television. More than 10,000 spectators were drawn to the first exhibition of CinemaScope held in New York in late Apr 1953.
  35. [35]
    WARNERS ADOPTS FOX FILM PROCESS; Will Use CinemaScope ...
    “We are adopting CinemaScope,” he continued, “in an effort to clarify and standardize for the exhibitors and the public a single process, thus eliminating any ...
  36. [36]
    [PDF] ALEXA Anamorphic De-squeeze - VFX Camera Database
    Jul 7, 2011 · A. SMPTE specification for anamorphic projection from 1957 (PH22.106-1957) finally standardized the aperture to. 2.35:1. An update in 1970 ...
  37. [37]
    Syndicate PL modifed – Bauch & Lomb Baltar Cinemascopes.
    Film makers in the U.K. and the European continent were a bit slower to adopt CinemaScope as a mainstream technical advancement, for valid economic reasons ...Missing: global | Show results with:global
  38. [38]
    History & Awards - Panavision
    Pairing this camera with lenses that produced a 1.25x anamorphic squeeze allowed MGM to extract a high-quality image in any release format. In the years that ...
  39. [39]
    The Importance of Panavision - In 70mm
    Much earlier, in 1927, Henri Chretien, a French inventor, had constructed a lens with a specific distortion which he gave the name Hypergonar, but which was ...
  40. [40]
    Digital intermediate - Wikipedia
    1990: The Rescuers Down Under – First feature-length film to be entirely recorded to film from digital files; in this case animation assembled on computers ...
  41. [41]
    The Evolution of the Digital Intermediate - Post Magazine
    Mar 1, 2015 · ... movie called Air America in the early '90s. They went back and scanned that at 4K, and we cut that into the movie. It was color corrected ...
  42. [42]
    How did one appreciate cinematography back in the days of vhs?
    Feb 1, 2024 · -Most movies looked the same on VHS. Most are not color graded correctly, and this tends to make every movie look the same. Also, showing films ...Why were non-anamorphic dvds ever a thing? Wouldn't it be easier ...Anamorphic lens on a 20-year-old Camcorder : r/cinematographyMore results from www.reddit.comMissing: decline anamorphic
  43. [43]
    Anamorphic format - Wikipedia
    Anamorphic format is a cinematography technique that captures widescreen images using recording media with narrower native aspect ratios.History · Development · Lens makers and corporate... · Origination
  44. [44]
    Anamorphic lenses on Imax film - Cinematography.com
    Aug 20, 2008 · Anamorphic 65mm has been done in the past. ... In short, it's 5-perf 65mm with a 1.25x anamorphic squeeze for a maximum aspect ratio of 2.76:1.IMAX and 35mm Anamophic - Cinematography.comWhy didn't Vista Vision ever catch on? - 35mm - Cinematography.comMore results from cinematography.com
  45. [45]
    Wide Screen Apertures and Aspect Ratios
    Anamorphic Widescreen Photography. Current Anamorphic Aperture. Camera Aperture - .864" x .732". 2.4:1 Aperture - .825" x .690". Pre-1957 Anamorphic Aperture.
  46. [46]
    [PDF] The Cooke Book 4/2016 - Movie Men
    Apr 4, 2016 · Understanding the factors that influence depth of field for dif- ferent cinematographic systems becomes critical to their artistic use.
  47. [47]
    Spherical vs. Anamorphic Lenses - Cooke Optics
    They are more likely to exhibit softness and distortion at the edges of frame. Anamorphics also tend to be slower and have a greater close-focus distance than ...
  48. [48]
    Primo Anamorphic Lenses | Panavision
    Like their spherical counterparts, Primo Anamorphic primes deliver high contrast and resolution, even field illumination, consistent color balancing between ...Missing: cinematographer | Show results with:cinematographer
  49. [49]
    Zoom and Squeeze: Can You Use an Anamorphic Adapter on a ...
    Anamorphic adapters are often heavy, and attaching them to a zoom lens can significantly alter the camera's weight and balance, making it challenging to handle.
  50. [50]
    G Series Anamorphics - Panavision
    G Series lenses are characterized by their high contrast, high resolution, balanced aberration control, excellent glare resistance, tightly controlled ...Missing: characteristics | Show results with:characteristics
  51. [51]
    Master Anamorphic Lenses - ARRI
    The Master Anamorphic series comprises nine high-performance prime lenses ranging from 28 mm to 180 mm, accompanied by 1.4x and 2.0x ARRI ALURA LDS Extenders.Missing: compatibility | Show results with:compatibility
  52. [52]
    [PDF] Anamorphic Now - Film and Digital Times
    The upgraded set matches the E series, Primo AL series, and G series lenses. There are several custom versions with enhanced flare and close focus. Panavision G ...
  53. [53]
    Panavision C Series Anamorphic Lenses - ShotOnWhat
    Panavision C Series Anamorphic Lenses | 275 Titles ; Transformers: The Last Knight (2017) ·, 3D | 2K Project | Color | 1.85:1 | 154 Minutes ; Blade Runner (1982).Missing: market statistics
  54. [54]
    History + Heritage - Bausch + Lomb
    The first films made with the CinemaScope lens premiered in movie theaters, bringing widescreen movie projection to the big screen. history image element.Missing: Fox trademark 1953-1967
  55. [55]
    Todd-AO - Wikipedia
    Todd-AO is also the name of the widescreen, 70 mm film format that was ... The company built a series of anamorphic lenses in the 2.35:1 scope format ...History · Timeline · Films produced in 70 mm Todd... · Awards
  56. [56]
    https://www.arri.com/resource/blob/41434/9093dd51fa56328b70f56a718bac0e22/2018-10-26-alexa-lf-and-anamorphic-lenses-pdf-data.pdf
  57. [57]
    ARRI/ZEISS Unveil Two New Master Anamorphic Lenses
    Nov 25, 2018 · The Master Anamorphic lens series, developed collaboratively by ARRI and Carl Zeiss, has set a new high standard for the optical performance of ...
  58. [58]
    Anamorphic/i FF lens - Cooke Optics
    The Anamorphic/i FF lenses feature a novel hybrid spherical and cylindrical lens element design. It produces a traditional organic, cinematic and anamorphic ...
  59. [59]
    Hawk Anamorphic Lenses 2x - Vantage Film
    The 2x front anamorphic format is the undisputed king of cinematic formats. The visual impact of anamorphic produces breathtaking intensity unlike any other ...Hawk V-LiteHawk V-Series
  60. [60]
    [PDF] Lens Back Focus Procedure v0.5
    Cooke. Anamorphic lenses are already calibrated to within +/- 6 micrometer. (0.006mm) tolerance and as such, Anamorphic lenses are already calibrated to match ...
  61. [61]
    [PDF] ALEXA LF & Anamorphic Lenses - ARRI
    Oct 26, 2018 · Most anamorphic lenses squeeze the image by a factor of two, but there are also lenses with other squeeze factors. In order to provide a ...
  62. [62]
    Digital Cinema System Specification: Compliance Test Plan - DCI
    Feb 8, 2023 · Verify that the display has a native resolution of either 4096 x 2160 or 2048 x 1080. In case the native resolution is 4096 x 2160, verify ...<|control11|><|separator|>
  63. [63]
    [PDF] THE ESSENTIAL REFERENCE GUIDE FOR FILMMAKERS - Kodak
    In it you will find technical information—about light meters, cameras, light, film selection, postproduction, and workflows—in an easy-to-read- and-apply format ...
  64. [64]
    [PDF] RGB HD- Efficiencies in the Digital Intermediate Process
    Regardless, whether anamorphic, hard matted, or matted in projection, at the end of the day the film image viewed will not display the full pixel resolution.
  65. [65]
    Mauro Fiore ASC on the cinematography of The Magnificent Seven
    “Panavision is really the best choice for anamorphic lenses. We shot side-by-side tests using film negative and the ALEXA 65 with medium format lenses. The ...Missing: origination case example
  66. [66]
    How are 35mm and Super 35 both 1.33:1?! - Cinematography.com
    Apr 19, 2004 · Super-35, when 4-perf, is the same as Full Aperture. This dates back to the Silent Era and is the largest area possible on the 4-perf frame, ...Super35mm vs Standard 35mm - Digital Sensor EquivalentsFull Aperture vs Super 35 - 35mm - Cinematography.comMore results from cinematography.com
  67. [67]
    The Making of "Dance Craze" by Joe Dunton - In70mm.com
    Apr 16, 2011 · He was the first person to make a 70mm print from 35mm in the new wave of Super 35 from 35mm – he launched it with "Greystoke" – and got the ...
  68. [68]
    Technical specifications - Who Framed Roger Rabbit (1988) - IMDb
    Super 35(source format, car chase); Spherical; VistaVision(effects shots). Printed Film Format. 35 mm(Eastman 5384); 70 mm(blow-up, Eastman 5384). Contribute to ...
  69. [69]
    Focal Lengths, Format Sizes - Film and Digital Times
    May 4, 2011 · Super 16 aperture =14mm; APS-C (digital still) = 27.3mm; Standard 35mm motion picture aperture = 28.8mm; 3-perf 35mm ANSI Super 35 = 28.5mm ...<|control11|><|separator|>
  70. [70]
    https://forum.blackmagicdesign.com/viewtopic.php?f=21&t=162633
  71. [71]
    Super 35 vs Full Frame: An Analysis | No Film School
    Here, the full format image has a 70mm focal length and Super 35 has a 48mm focal length (but share the same distance). The framing on both sensors is the same ...
  72. [72]
    Super 35 may not be the cause of film grain! | Home Theater Forum
    Oct 30, 2002 · With Super 35 the 'graininess' that's complained about isn't the presence of more grain, but that the grain is blown up to make release prints.
  73. [73]
    The Techniscope Wing - American WideScreen Museum
    Techniscope was a system to reduce film waste, using a 2.35:1 aspect ratio with a two-perforation frame, and was successful due to its ease of use.
  74. [74]
    Film Studies 101: Ten Movie Formats That Shook The World
    Jul 8, 2014 · Background: Super 35 has been used to shoot more than a thousand movies, and became a standard production format for music videos and TV shows.<|control11|><|separator|>
  75. [75]
    https://www.arri.com/news-en/alexa-xt-and-alexa-65-on-the-revenant-
  76. [76]
    Shooting 2-perf on 35mm KODAK Film delivers visual grit to a…
    Mar 22, 2023 · 2-perf uses a two film-perforation negative pulldown per frame, instead of the standard four-perforation frame of normally-exposed 35mm film.
  77. [77]
    ALEXA LF FAQ | Learn & Help - ARRI
    Amongst other topics, the white paper covers two methods for shooting with anamorphic lenses for a 4K mandate: When shooting with 35 format 2x anamorphic lenses ...
  78. [78]
    How do I de-squeeze Anamorphic footage? - Blackmagic Forum
    Jun 22, 2022 · Select all clips, Right click on ones, go to menu and click on clip attributes, here under video tab you can find different aspect ratio for pixel.How to desqueeze anamorphic video with custom aspect ratio?Anamorphic DeSqueeze in Resolve - Blackmagic Forum • View topicMore results from forum.blackmagicdesign.comMissing: Nuke | Show results with:Nuke
  79. [79]
    About Anamorphic Media - Foundry Learn
    About Anamorphic Media. The Viewer automatically recognizes anamorphic clips and displays them with the correct aspect ratio.<|separator|>
  80. [80]
    Apple Video and Audio Asset Guide
    All encoded content must include pixel aspect ratio (pasp), preferably one that results in a display aspect ratio of 4:3 or 16:9. Native frame rate of original ...
  81. [81]
    What is Scope 2.39:1? - DCP Maker
    May 15, 2024 · 2.39:1, or Cinemascope, is a cinema aspect ratio used for immersive landscapes. It's a contemporary anamorphic standard, often called 2.35:1.
  82. [82]
    Recommended Practice Index | Society of Motion Picture ... - SMPTE
    A Recommended Practice is a document that states basic specifications, dimensions, or criteria that are not necessary for effective interchange and/or ...
  83. [83]
    ALEXA XT and ALEXA 65 on "The Revenant" - ARRI
    Oct 26, 2016 · Dive into the creative process behind 'The Revenant' with ARRI's ALEXA XT and ALEXA 65 in pivotal roles. Explore now!Missing: HDR | Show results with:HDR
  84. [84]
    The Revenant Cinematography Study – Tyrone Rubin Portfolio
    Mar 28, 2023 · Arri/Zeiss Master Anamorphic Lenses: These lenses were used for some of the film's wider shots, particularly in the landscape and nature scenes, ...
  85. [85]
    Revenant, The (4K UHD Review) - The Digital Bits
    Apr 25, 2016 · If you're looking for a reference-grade 4K video experience that beautifully illuminates the full impact of HDR and the raw power and potential ...
  86. [86]
    Cinema Lenses Market Outlook & Forecast to 2033
    Oct 13, 2025 · More than 61% of Hollywood-based production houses are investing in premium full-frame and anamorphic lenses to meet increasing visual ...
  87. [87]
    97th Academy Awards Nominations: Cameras & Lenses - DFI Rentals
    Feb 12, 2025 · In this listicle, we'll explore the cameras and lenses used in the current nominations for the 97th Academy Awards across three key categories.
  88. [88]
    Art of LED wall virtual production, part one: lessons from ... - fxguide
    Mar 4, 2020 · The Mandalorian used the Panavision's full-frame Ultra Vista 1.65x anamorphic lenses. The anamorphic squeeze allowed for full utilization of ...
  89. [89]
    Why is The Mandalorian shot in such a wide aspect ratio?
    Jan 31, 2021 · Shot on Arri's Alexa LF, The Mandalorian was the maiden voyage for Panavision's full-frame Ultra Vista 1.65x anamorphic lenses. The 1.65x ...
  90. [90]
    https://www.lensrentals.com/blog/2023/02/what-netflixs-approved-camera-attributes-mean-and-which-of-our-cameras-qualify/
  91. [91]
    ALEXA LF and 35mm format Anamorphic Lenses
    Aug 14, 2018 · You'd like to shoot with 35mm anamorphic lenses on Alexa LF. Can you satisfy the Netflix 4K UHD specification? Yes. You can do this with ARRI ...<|separator|>
  92. [92]
    Anamorphic Lenses in 8K – An Interview
    Jun 27, 2023 · New anamorphic lenses have been developed in smaller sizes using new optical techniques. We interviewed the designer.Missing: Europe Asia Bausch Lomb 1950s
  93. [93]
    2025 Film Industry Trends And Predictions - Boiling Point Media
    Mar 3, 2025 · Some predictions and trends that we've started seeing within the first two months of 2025 include the rise of VR, AR, and XR filming, a focus on sustainable ...Missing: anamorphic | Show results with:anamorphic