On July 25, 1917, at 120 Haramachi, Koishikawa-ku, Tokyo (now 4-chome, Hakusan, Bunkyo-ku), Nippon Optical Industries Co., Ltd. was founded with the aim of domesticating optical instruments such as rangefinders and microscopes.
On July 25, 1917 (Taisho 6), at 120 Haramachi, Koishikawa Ward, Tokyo City (now 4-chome, Shirayama, Bunkyo Ward), Nippon Optical Industry Co., Ltd. was founded with the aim of domesticating optical equipment such as rangefinders and microscopes. It was the first step in Nikon’s century-long journey.
On July 25, 1917, Japan Optical Industry Co., Ltd. was founded at 120 Haramachi, Koishikawa Ward, Tokyo (now 4‑chome, Hakusan, Bunkyo Ward).
The origin of Nikon: the birth of 'Nippon Kogaku Kogyo' (Japan Optical Industry).
On July 25, 1917 (Taisho 6), at 120 Haramachi, Koishikawa Ward, Tokyo City (now 4-chome, Hakusan, Bunkyo Ward), Japan Optical Industry Co., Ltd. was founded with the aim of domesticating optical instruments such as rangefinders and microscopes.
Established: July 25, 1917 (Taisho 6).
The ultra-compact binocular 'Micron', released in 1921, was one of the first binoculars for which Nikon performed all development, design, and manufacturing. It received praise as a small, high-performance binocular.
In 1921, eight engineers were recruited from Germany, where optical technology was advanced. Dr. Lange, a world-renowned authority on lens design, along with experienced microscope designers Ahot, Bernick, and Dilman, led the efforts.
The ultra-compact binocular "Micron", released in 1921 (Taisho 10), was the first binocular in which Nikon performed all development, design, and manufacturing. It received praise as a small, high-performance binocular. Remakes were released in 1948 (Showa 23) and 1997 (Heisei 9), and it remains a popular model still on sale.
In 1921 (Taisho 10), eight engineers were recruited from Germany, where optical technology was advanced. Led by Dr. Lange, a world-renowned authority in lens design, and including Ahatt, an experienced microscope designer, Bernick, an expert in precision machinery, and Dirman, specializing in lens design and calculation, their guidance brought a leap forward in technology.
Eight engineers from Germany, where optical technology was advanced, were recruited.
The ultra-compact binocular 'Micron', released in 1921 (Taisho 10), was one of the binoculars for which Nikon performed all development, design, and manufacturing for the first time.
During the Great Kanto Earthquake in September 1923, the glass research factory suffered equipment damage, temporarily halting research. In February 1924, restoration work was completed and research at the glass research institute resumed.
In September 1923 (Taisho 12), the glass research factory suffered damage to its equipment during the Great Kanto Earthquake, temporarily halting research. In February 1924, restoration work was completed and research resumed at the glass research institute.
In September 1923, the glass research factory suffered damage in the Great Kanto Earthquake.
During the Great Kanto Earthquake, the glass research factory suffered equipment damage, temporarily halting research.
During the 1923 (Taisho 12) September Great Kanto Earthquake, the Glass Research Factory suffered equipment damage and research was temporarily halted.
During the Great Kanto Earthquake in September 1923, the glass research factory suffered equipment damage, temporarily halting research. In February 1924, restoration work was completed and research at the glass research institute resumed.
In February 1924, research at the Glass Research Institute resumed.
Research at the glass research institute was resumed.
Restoration work was completed in February 1924, and research resumed at the Glass Research Institute.
In 1925, the 'JOICO' microscope was released. It was a groundbreaking microscope at the time, capable of magnification up to 765×.
In 1925 (Taisho 14), the "JOICO microscope" was released. It was a groundbreaking microscope at the time, capable of magnifying up to 765×.
In 1925, the 'JOICO' microscope was released.
In 1925 (Taisho 14), JOICO released the JOICO microscope.
In 1927, they successfully annealed glass for the pentaprism of a rangefinder.
By March 1927 (Showa 2), approximately 70 large-scale melts and over 220 test melts were performed. The purpose was solely to improve glass quality and establish mass production techniques.
In March 1927, approximately 70 large melts were performed.
Research at the glass research institute was resumed, focusing on improving glass quality and establishing mass‑production techniques.
After prototype completion at the end of 1929 and further refinements, by 1931 it reportedly reached a level comparable to the original Tessa.
In 1929 (Showa 4), the first lens, "Anita 12cm F4.5", was completed. Subsequently, several types of lenses were successfully developed, and prospects for manufacturing photographic lenses became clear, prompting consideration of a product brand name.
The first lens, the 'Anitar 12 cm f/4.5', was completed.
The Anitar 12cm F4.5 prototype was completed at the end of 1929 (Showa 4), further refined, and by 1931 it reportedly reached a level comparable to the original Tessar.
The first lens, the Anitar 12cm F4.5, was completed in 1929 (Showa 4).
After the prototype was completed at the end of 1929 (Showa 4), further refinements were made, and by 1931 it reportedly reached a level comparable to the original Tessar.
In 1931, when the new Ueno building of the Tokyo Science Museum was completed, an 8-inch astronomical telescope was installed on the roof dome.
In 1931 (Showa 6), when the new Ueno Hall of the Tokyo Science Museum was completed, an 8‑inch astronomical telescope was installed on the roof dome. It was also called a 20 cm refracting equatorial mount and was considered Japan’s first genuine refracting equatorial telescope, boasting the largest aperture among domestic astronomical telescopes at the time. It underwent major renovation in 1954 and remained in operation for over 70 years until 2005 (Heisei 17), making it the longest‑running exhibit in Japan and continuously conveying the allure of astronomy to visitors. After its retirement, since April 2014 it has been on permanent display in the "Exploring the Cosmos" corner on the third basement floor of the Earth Hall at the National Science Museum.
The 'NIKKOR' trademark was registered.
An 8‑inch astronomical telescope was installed in the rooftop dome.
By 1931 it reportedly reached a level comparable to the original Tessar.
In 1931 (Showa 6), when the new Ueno Hall of the Tokyo Science Museum was completed, an 8-inch astronomical telescope was installed on the roof's astronomical dome.
Trademark application announcement for NIKKOR. Applied in July 1931,
In 1932, the brand name 'NIKKOR' was registered as a trademark.
This name was registered as a trademark in 1932.
The 'NIKKOR' trademark was registered.
Announced in April 1932,
Registered in December.
In 1933, the delivery of aerial photography lenses for map-making marked the beginning of the NIKKOR lens history.
In 1933 (Showa 8), the history of NIKKOR lenses began with the delivery of aerial photography lenses intended for mapmaking. The name "Aero-NIKKOR" was coined by prefixing "Aero" (meaning "sky") to NIKKOR. Initially, in addition to a 70 cm F5 lens, an 18 cm F4.5 NIKKOR lens for small aerial photography was delivered.
The Aero-NIKKOR lens for aerial photography is delivered.
In 1933 (Showa 8), the history of NIKKOR lenses began with the delivery of lenses for aerial photography used in mapmaking. The name 'Aero-NIKKOR' was coined, with 'Aero' meaning 'sky' as a prefix.
Although it first spoke in March 1948, the design drawings were completed in September 1946.
The first Nikon camera model, Nikon I, is completed.
Less than two years after the design drawings were completed in September 1946 (Showa 21), Nikon’s first camera, the Nikon I, was born in March 1948.
In September 1946, the design drawings for the Nikon I were completed.
The JOICO microscope is released.
A remastered version was released in 1948 (Showa 23) and remains a popular model still sold today.
In March 1948, Nikon's first camera model, the Nikon I, was released.
It was born in March 1948.
The first Nikon camera model, Nikon I, is released.
In 1949, the Nikon M model,
In 1950, the Nikon S model,
To promote photographic culture, the 'Nikkor Club' was established. Its founders included Ihei Kimura, Kenji Tomin, Jun Miki, Yusaku Kamekura, Kenji Mizoguchi, and Shuko Takamune.
The Nikon Club was established. Founders included Ihei Kimura, Kenji Tomon, Jun Miki, Yusaku Kamekura, Kenji Mizoguchi, and Shuko Takamune, among others. The club's bulletin, which has been published since 1953, features the founding issue on its front cover.
In 1953, the Nikon Club's bulletin was published.
The Nikkor Club is established.
The photo magazine has been published since 1953.
The 8-inch astronomical telescope in the rooftop dome is extensively renovated.
In 1954, a major renovation was carried out, and for over 70 years until 2005 (Heisei 17), it remained the longest-running in Japan, continuously conveying the allure of astronomy to visitors.
In 1956 (Showa 31), the high‑resolution "Micro Nikon" was developed, prompting a flurry of inquiries from printing companies and electrical manufacturers regarding high‑resolution lenses.
At the 1958 Brussels World's Fair, the Nikon SP, along with Nikkor lenses and optical glass, won the Grand Prix.
At the 1958 Brussels World’s Fair (Showa 33), the Nikon SP won the Grand Prix alongside Nikon lenses and optical glass.
In 1958, the Nikon SP won the Grand Prix at the Brussels World’s Fair.
The Nikon SP wins the Grand Prix at the Brussels World’s Fair.
The Ultra-Micro Nikkor is developed.
In 1964, the first domestically produced Ruling engine, manufactured by Nikon under a Ministry of Education project, was completed.
In 1964 (Showa 39), under a Ministry of Education (now Ministry of Education, Culture, Sports, Science and Technology) project, Nikon completed the first domestic rolling engine. However, it did not reach practical levels in terms of precision and stability.
The first domestically produced Ruling Engine is completed.
The NIKKOR-H 300mm F2.8 lens is released.
In 1964, the first domestically produced Ruling Engine, manufactured by Nikon as part of a Ministry of Education project, was completed.
Development of the second Ruling Engine begins.
In 1967, Nikon began development of the second Ruling Engine.
The Nikon Photomic FTN, released in 1968, was selected.
The Nikon F is developed.
The Nikon F is released.
In January 1971, Nikon responded to a request from NASA and signed a supply contract for recording cameras for lunar landing and exploration.
In January 1971 (Showa 46), Nikon entered into a contract in response to a request from NASA (the U.S. National Aeronautics and Space Administration). The contract involved supplying recording cameras for the Apollo missions, from Apollo 15 scheduled for launch in July of that year to Apollo 17 scheduled for launch the following year. The development was based on the Nikon Photomic FTN, released in 1968.
In response to a request from NASA, the Nikon Photomic FTN is delivered as a camera for lunar exploration.
In 1971, Apollo 15 became the first mission to drive a car on the lunar surface. A special edition camera based on the Nikon Photomic FTN accompanied the mission.
In 1971, the second Ruling Engine was completed, and mass production of 2‑inch‑square diffraction gratings for the spectrometer "Nikon Monochromator G‑250" began.
In December 1971, Nikon developed the new optical glass PC102 'ED glass' and succeeded in scaling up and mass-producing it.
In December 1971 (Showa 46), Nikon developed a new optical glass, PC102 "ED glass". Through continuous melting, it was enlarged and mass‑produced ahead of competitors.
The new optical glass PC102 'ED Glass' is developed.
The NIKKOR-H 300mm F2.8 lens is released.
In January 1972, the "NIKKOR‑H 300mm F2.8" was released for news agencies and was used to photograph various events at the Sapporo Olympics.
The Nikon F, which combined Nikon's optical and precision technology, generated a great response domestically and abroad, and was produced for 15 years until 1973 (Showa 48), solidifying the Nikon and Nikon Club brands.
In 1973, production of the Nikon F was discontinued.
In 1976 (Showa 51), the groundbreaking CF optical system developed was expanded to a practical biological microscope, improving performance. By equipping the microscope with a CF optical system that has very low axial chromatic aberration and low magnification chromatic aberration, it became the highest‑performance microscope in the class for medical and dental students, allowing the use of accessories such as phase‑contrast devices, fluorescence illumination devices, and simple polarizing devices comparable to high‑end instruments.
In 1976 (Showa 51), the optical CF system developed that year was expanded to training biological microscopes to improve performance.
In March 1976, under the leadership of the Ministry of International Trade and Industry, the "Super LSI Research Association" was established, and was tasked with developing a reduced projection exposure apparatus that shrinks circuit patterns to one-tenth.
In March 1976 (Showa 51), under the leadership of the Ministry of International Trade and Industry (now Ministry of Economy, Trade and Industry), the "Super LSI Technology Research Association (Super LSI Research)" was founded. Super LSI Research was commissioned by Nikon to develop a stepper and a shrinking‑projection exposure device that reduces circuit patterns to one‑tenth.
In March 1976, the Ultra‑LSI Technology Research Association was founded.
A solo dog sled journey covers 12,000 kilometers across the Arctic Circle.
In May 1976, reporters welcomed Okumura, who had traversed 12,000 km across the Arctic in a solo dog‑sled expedition to Alaska. At that time, most of the cameras directed at Okumura were Nikon.
The Nikon F2 Titanium Wemmars Special camera for dog sledding is completed after improvements.
In June 1977, Okumura requested Nikon to supply a camera for his solo dog‑sled journey to the North Pole.
In December 1977, three units of the "Nikon F2 Titanium WEML Special", the world's first titanium‑encased single‑lens reflex camera, were completed.
In the fall of 1978, NASA requested the manufacture of a camera to be mounted on the Space Shuttle.
In the autumn of 1978 (Showa 53), NASA requested Nikon to manufacture a camera for the Space Shuttle.
A camera is delivered to NASA's Space Shuttle.
In March 1978, the prototype unit No. 1 was delivered to Ultra‑LSI Research, and prototype No. 2 was subsequently completed; both received high praise.
The Space Shuttle cameras 'F3 Big Camera' and 'F3 Small Camera' are delivered.
In 1979, the wafer surface inspection device NICIS-MX2 was released, improving the efficiency of visual appearance inspection.
The "OptiStation" is a device that automatically transports wafers and streamlines visual appearance inspection. It was commercialized as a replacement for the wafer surface inspection device NICIS‑MX2, which was released in 1979 (Showa 54).
Starting around mid‑1979, Nikon began research in the field of electronic imaging. In 1984, together with Kyodo News, it released the world’s first 35mm film‑direct transmission device, the NT‑1000 (for monochrome photography), for the news industry. This device revolutionized the conventional system of sending enlarged prints over telephone lines. It could directly read images from 35mm negative and positive films, allowing simultaneous trimming and transmission of handwritten text while monitoring on a screen, meeting the immediacy required in newsrooms.
From around the middle of 1979 (Showa 54), investigations into the field of electronic imaging began.
Released the wafer surface inspection device 'OptiStation'.
In 1979 (Showa 54), the wafer‑surface inspection device NICIS‑MX2, released that year, was commercialized.
Announced the first domestic commercial steppers 'NSR-1010G'.
In February 1980, the first domestically produced commercial machine, the compact‑projection exposure device "NSR‑1010G", was announced.
In May 1980, the 250‑shot "F3 Big Camera" and the 72‑shot "F3 Small Camera" were delivered.
The following year, the "F3 Small Camera" was mounted on the Space Shuttle Columbia.
Manufactured the 'Nikon F3 Titanium WEML Special'.
In 1982, Nikon produced the "Nikon F3 Titanium WEML Special", based on the Nikon F3, for a solo dog‑sled journey of 3,000 km across Antarctica and for summiting the continent’s highest peak, Mount Vinson. However, the Falklands War that began in March of that year caused the expedition to be cancelled, and the camera was never used in the actual adventure.
In 1984, the world’s first 35mm film direct transmission device "NT-1000" was released, developed in collaboration with Kyodo News.
Starting around mid‑1979, Nikon began research in the field of electronic imaging. In 1984, together with Kyodo News, it released the world’s first 35mm film‑direct transmission device, the NT‑1000 (for monochrome photography), for the news industry. This device revolutionized the conventional system of sending enlarged prints over telephone lines. It could directly read images from 35mm negative and positive films, allowing simultaneous trimming and transmission of handwritten text while monitoring on a screen, meeting the immediacy required in newsrooms.
Released the world's first 35mm film direct transmission device 'NT-1000'.
In 1984, together with Kyodo News, Nikon released the world's first 35‑mm film‑direct transmission device "NT‑1000" (for monochrome photography) for news agencies.
In 1986, the large-board exposure apparatus "NSR-L7501G" was released, enabling support up to 75mm square.
In 1986 (Showa 61), Nikon released the large‑substrate exposure device NSR‑L7501G. At the time, semiconductor exposure machines had a maximum exposure area of 30 mm on a side; this device enabled exposure up to 75 mm.
Released the large substrate exposure device 'NSR-L7501G'.
In 1986 (Showa 61), the large‑substrate exposure device "NSR‑L7501G" was released.
In 1988, Nikon released a still‑video camera system composed of the film‑free, monochrome‑only electronic camera QV‑1000C, the interchangeable lens QV‑Nicol, and the transmission device QV‑1010T. This technology eventually led to Nikon’s development of digital camera systems.
In 1988, Nikon released a still‑video camera system composed of the film‑free, monochrome‑only electronic camera "QV‑1000C", the interchangeable lens "QV‑Nikkor", and the transmission device "QV‑1010T".
On April 1, 1988, Nippon Optical Industry Co., Ltd. began a new chapter as "Nikon Co., Ltd."
On April 1, 1988 (Showa 63), Nippon Kogaku Kogyo Co., Ltd. became Nikon Corporation. By that time, the brand name "Nikon" already enjoyed high credibility across various fields. The name, widely recognized worldwide and trusted, was leveraged to facilitate the company’s development as an international enterprise.
Japan Optical Industry Co., Ltd. changed its name to Nikon Corporation.
On April 1, 1988 (Showa 63), Japan Optical Industry Co., Ltd. began a new chapter as "Nikon Corporation".
In 1996, a project directly overseen by the president was launched, embarking on the development of a new digital camera product with a two-year deadline.
In 1996 (Heisei 8), a project directly under the president was launched. Its goal was to develop a full‑blown new digital camera within a two‑year deadline. About ten elite members from design and other departments were assigned to the task. Initially, a field leader suggested that developing in two years was difficult given the limited accumulation of digital technology, and requested at least three years. However, Nikon replied, "We don’t have that time now," and proceeded with the two‑year development.
In 1996, a project directly overseen by the president was launched. Its purpose was to develop a new digital camera product within a two‑year timeframe. About ten elite members from the design and other departments were assembled to tackle this challenge.
A major digital camera development project was launched.
In 1996 (Heisei 8), a project directly overseen by the president was launched.
A remastered version was released in 1997 (Heisei 9) and remains a popular model still sold today.
In April 1998, the compact digital camera "COOLPIX 900" was released.
In April 1998, Nikon released the compact digital camera COOLPIX 900, and in September 1999, the professional digital single‑lens reflex camera D1. With superior image quality, usability, and features, and priced at a groundbreaking 650,000 yen—one‑third of competitors at the time—it sparked the widespread adoption of digital SLRs. Nikon continued to produce flagship models that exceeded professional expectations, and those qualities have been carried forward to the latest Nikon digital SLR, the D5.
Released the compact digital camera 'COOLPIX 900'.
In April 1998, the compact digital camera 'COOLPIX 900' was released.
In September 1999, the professional digital single-lens reflex camera "D1" was released.
In April 1998, Nikon released the compact digital camera COOLPIX 900, and in September 1999, the professional digital single‑lens reflex camera D1. With superior image quality, usability, and features, and priced at a groundbreaking 650,000 yen—one‑third of competitors at the time—it sparked the widespread adoption of digital SLRs. Nikon continued to produce flagship models that exceeded professional expectations, and those qualities have been carried forward to the latest Nikon digital SLR, the D5.
Released the professional digital SLR camera 'D1'.
In September 1999, the professional digital single-lens reflex camera 'D1' was released.
In February 2000, "FOCAS" made its first observation, discovering the most distant galaxy at 12.88 billion light-years away.
In February 2000 (Heisei 12), FOCAS made its first observation. It not only discovered the most distant galaxy in observation history, 12.88 billion light‑years away, but also identified nine of the ten objects listed in the 2006 "Top Ten Objects at the Farthest Distances" using the Subaru telescope’s prime‑focus camera, confirming their existence with FOCAS.
FOCAS had its first observation.
In 2005, the operation of the 8-inch astronomical telescope ended.
Discovered the star with the lowest iron composition using HDS.
According to the April 2005 announcement, 'HDS' discovered the star with the lowest iron composition in observation history and successfully measured its elemental composition. The star's iron content is only one quarter of a millionth of the Sun's.
In 2006, nine celestial bodies observed by "FOCAS" were selected for the "Top Ten Celestial Bodies in the Most Distant Locations".
Launched the artificial satellite 'Daichi'.
Land-based observation technology satellite 'Daichi' (launched: January 2006).
Launched the infrared astronomy satellite 'Akari'.
Infrared astronomy satellite 'Akari' (February 2006).
In 2009, 11 units of the digital single-lens reflex camera "D3S" and replacement lenses were delivered to NASA.
In 2009 (Heisei 21), Nikon delivered 11 units of the digital single‑lens reflex camera 'D3S' and seven 'AF‑S NIKKOR 14‑24mm f/2.8G ED' interchangeable lenses to NASA (United States Space Agency) for recording and photography aboard the International Space Station (ISS).
Supplied a recording camera for the International Space Station (ISS).
In 2009 (Heisei 21), Nikon supplied NASA with 11 digital single-lens reflex cameras 'D3S' and seven 'AF-S NIKKOR 14-24mm f2.8G ED' interchangeable lenses for recording on the International Space Station (ISS).
In 2010, equipment such as "D3S" and "D3X" was supplied to the Russian Federal Space Agency.
In 2010, Nikon supplied the S.P. Korolev Rocket and Space Corporation 'Energia', which is contracted by the Russian Federal Space Agency to operate the International Space Station (ISS), with one 'D3S', two 'D3X' cameras, interchangeable lenses such as the 'AF‑S NIKKOR 400mm f/2.8G ED VR', software, and accessories for recording and photography in space. All of these were used in both the U.S. and Russian segments of the ISS, both inside and outside the spacecraft.
In 2010, Nikon supplied the S.P. Korolev Rocket and Space Corporation 'Energia', which is contracted by the Russian Federal Space Agency to operate the International Space Station (ISS), with one 'D3S', two 'D3X' cameras, interchangeable lenses such as the 'AF‑S NIKKOR 400mm f/2.8G ED VR', software, and accessories for recording and photography in space. All of these were used in both the U.S. and Russian segments of the ISS, both inside and outside the spacecraft.
Supplied cameras and lenses to the Russian Federal Space Agency.
In 2010, Nikon also supplied the Russian Federal Space Agency's contractor for ISS operations, S.P. Korolev Rocket and Space Corporation 'Energia', with one 'D3S', two 'D3X' cameras, interchangeable lenses such as 'AF-S NIKKOR 400mm f/2.8G ED VR', software, and accessories for recording in space.
Launched the Venus probe 'Akatsuki'.
Venus probe 'Akatsuki' (May 2010).
On September 14, 2013, JAXA launched the planetary spectroscopic observation satellite "HISAKI", and Nikon manufactured the primary mirror for the telescope.
On September 14, 2013 (Heisei 25), the Japan Aerospace Exploration Agency (JAXA) successfully launched the epsilon rocket carrying the planetary spectroscopy satellite SPRINT‑A from the Nishiura Space Observation Center in Kagoshima Prefecture. SPRINT‑A was subsequently placed into orbit and named 'HISAKI'. HISAKI is the world's first dedicated planetary‑observation space telescope that observes Venus, Mars, Jupiter, and other planets from an artificial satellite orbit around Earth at an altitude of about 1,000 km. Nikon participated in the project by manufacturing the telescope's primary mirror (20 cm aperture). The primary mirror's substrate is silicon carbide (SiC), a material that is extremely hard and difficult to machine, but Nikon completed it using precision machining techniques.
Launched the planetary spectroscopy satellite 'Hisaki' and manufactured its primary mirror.
On September 14, 2013 (Heisei 25), the Japan Aerospace Exploration Agency (JAXA) successfully launched the epsilon rocket carrying the planetary spectroscopy satellite SPRINT-A from the Nishiura Space Observation Center in Kagoshima Prefecture. SPRINT-A was subsequently placed into orbit and named 'HISAKI'. 'HISAKI' is the world's first dedicated planetary observation space telescope that remotely observes Venus, Mars, Jupiter, and other planets from an artificial satellite orbit around Earth at an altitude of about 1,000 km. Nikon participated in this project by manufacturing the telescope's primary mirror (20 cm aperture).
Since April 2014, it has been on permanent display in the "Exploring the Cosmos" corner on the third basement floor of the Earth Hall at the National Science Museum.
In 2017, Nikon celebrated its 100th anniversary, undertaking commemorative projects and establishing a new logo.
Established to commemorate the 100th anniversary of the company's founding in 2017.
Established Nikon Advanced Manufacturing Inc., the parent company of the additive manufacturing business, in the United States.
As part of the 100th‑anniversary celebration, Nikon established the 'Nikon 100th‑Anniversary Logo'. In addition to launching 100th‑anniversary commemorative products, events and campaigns were held worldwide.
Celebrated its 100th anniversary, launching commemorative projects and new products.
The 'WX' binocular series was released. It offers an overwhelming wide field of view and sharp, clear vision even at the periphery. It is a new lineup of high-performance models ideal for astronomical observation. The photo shows 'WX 7x50 IF'.
Nikon Imaging Japan Co., Ltd. will release the limited color "Black" of the golf laser rangefinder "COOLSHOT PROIII STABILIZED". Equipped with a hand‑shake correction function, it is the pinnacle model that can measure distance in 0.1 seconds. The release is scheduled for November 13, 2026, with reservations starting at 10:00 on November 5.
Nikon Imaging Japan Co., Ltd. has released the NIKKOR Z 120-300mm f/2.8 TC VR S, a large-aperture telephoto zoom lens compatible with full-frame/FX format mirrorless cameras. The lens maintains a constant maximum aperture of f/2.8 across the entire focal length range of 120mm to 300mm, and features the world's first built-in 1.4× teleconverter. This allows it to perform well in a wide range of sports scenes, from indoor to outdoor competitions, and extend the focal length up to 420mm in the super-telephoto range.
Nikon Imaging Japan Co., Ltd. will release a limited quantity of the black limited color version of the golf laser rangefinder "COOLSHOT PROIII STABILIZED". The device displays measurement results in 0.1 seconds and features a hand‑shake correction function. The product will be released on November 13, 2026, with reservations starting at 10:00 on November 5.
Nikon Imaging Japan Co., Ltd. has released the NIKKOR Z 120-300mm f/2.8 TC VR S, a large‑aperture telephoto zoom lens compatible with full‑frame/FX format mirrorless cameras. It offers a constant f/2.8 aperture across the entire focal range of 120mm to 300mm, incorporates the world’s first 1.4x teleconverter, and can be extended to 420mm. It delivers high image performance and natural bokeh for sports scenes.
Nikon has begun taking orders for the FX-6ASLH, the world's first sub-micron resolution FPD exposure system. With a resolution of 0.85 µm and compatibility with sixth-generation plate sizes, it is suitable for high-definition organic EL and LCD panel manufacturing for advanced smart devices. The product is scheduled to launch in December 2027.
Nikon has begun taking orders for the FPD exposure system "FX-6ASLH" that achieves a resolution of 0.85 µm (L/S). It supports the 6th generation plate size and is an optimal system for high‑resolution organic EL and LCD panel manufacturing for advanced smart devices. The launch is scheduled for December 2027.
Nikon has been selected for the NEDO "Post-5G Information and Communication System Infrastructure Strengthening R&D Project / Advanced Semiconductor Manufacturing Technology Development (Subsidy)" for the development of a digital exposure device with a resolution of 0.5µm (L/S). The proposal "Development of a high-resolution digital exposure device for advanced packaging" will address the theme of developing large-area and high-resolution exposure devices.
Nikon has been selected for the NEDO "Post-5G Information and Communication System Infrastructure Strengthening R&D Project / Development of Advanced Semiconductor Manufacturing Technology (Subsidy)" for the development of a 0.5µm (L/S) digital exposure device. They propose the development of a high-resolution digital exposure device for advanced packaging and are working on developing a large-area, high-resolution exposure system.
Nikon Corporation's laser radar 'APDIS MV5X' received the Good Design Award for 2026. It achieves up to six times faster scanning than before, while being compact and lightweight.
Nikon Corporation announced that it will launch the 1.5µm resolution digital exposure device 'DSP-110' in April 2027 for advanced semiconductor packaging. The DSP-110 supports large substrates and improves throughput by about 40% compared to the previous DSP-100 (1.0µm).