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1 FUJIFILM Europe GmbH FUJIFILM North America Corporation FUJIFILM Corporation FUJIFILM (China) Investment Co., Ltd. FUJIFILM Hong Kong Limited FUJIFILM Asia Pacific Pte Ltd. FUJIFILM Australia Pty Ltd Europe / Middle East / Africa FUJIFILM Europe GmbH Heesenstr. 3, 4049 Duesseldorf, Germany TEL: +49 (0) FAX: +49 (0) cctv@fujifilm.eu FUJIFILM France S.A.S. 6 Rue Etienne Jules Marey BP BOIS D'ARCY Cedex France TEL: +33 (0) FAX: +33 (0) webmaster@fujifilm.fr Fujifilm Russia st Magistralny tup., a, business center Magistral Plaza, 4th floor, 390, Moscow, Russia TEL: +7 (49)7973 FAX: +7 (49) cctv@fujifilm.eu Japan / North East Asia FUJIFILM Corporation Device & Electronic Imaging Products Div. 34 Uetake, Kitaku, Saitama City Saitama, 33964, Japan TEL: +8 (0)48668 FAX: +8 (0) China FUJIFILM (China) Investment Co., Ltd. Device Business Division 8F, Shanghai ONELUJIAZUI, No.68 YinCheng Road(M), Pudong New Area, Shanghai, P.R.China 0 TEL: FAX: http: // Hong Kong / Taiwan FUJIFILM Hong Kong Limited Device Division Unit 7, /F., Metroplaza Tower, 3 Hing Fong Road, Kwai Fong, N.T., Hong Kong. Tel: (8) Fax: (8) 748 Southeast Asia & West Asia Fujifilm Asia Pacific Pte Ltd. New Industrial Road, Fujifilm Building Singapore 360 TEL: +6 (0) FAX: +6 (0) Oceania FUJIFILM Australia Pty Ltd. 4 Old Pittwater Road, Brookvale, N.S.W., Australia TEL: +6 (0)9466 FAX: +6 (0) North & Latin America FUJIFILM North America Corporation Devices Division High Point Drive, Wayne, NJ TEL: FAX: Authorized Fujifilm Service Agent. Due to a continuous process of product improvement, design and specifications are subject to change without notice. All photos, illustrations, drawings and other images in this brochure are intended for illustrative purpose only. For your safety Be certain to read the instructions for use before using any equipment. FFBX07 03.

2 Contents Lens Selection Guide Technologies of 4D High Resolution Shooting Range Chart Technical Information Resolution (Pixel pitch) HFM series HFXAM series HFSA series HFHA series CFHA series 4D High Resolution The 4D High Resolution is the FUJINON lenses unique performance. It maintains a high level of consistent image sharpness at the center as well as around the edges, while mitigating resolution degradation that typically occurs when changing a working distance or aperture value.

3 Please download the specification sheet HFM series Megapixel, /3 <Main features> Advanced optical performance suitable for the topoftherange series When the iris (aperture) is set at the orange F4 marker on the lens barrel, the HFM series delivers the resolving power greater than.µm pixel pitch on a /3inch sensor (equivalent to megapixels). The HFM series is capable of maintaining ultrahigh definition with a.7 µm pixel pitch within the whole frame area. Each pixel with high optical performance enables stable checking of product dimensions and appearance. The HFM series bring out maximum performance of the image sensor with 3.4µm pixel pitch(imx). FUJINON lenses unique 4D High Resolution performance. Orangecolored F4 marker on the lens barrel General machine vision lenses share the issue of resolution degradation when the working distance or aperture is changed. The HFM features FUJINON lenses unique 4D High Resolution performance. It maintains a high level of consitent image sharpness at the center as well as around the edges, while mitigating resolution degradation that typically occurs when changing a working distance or aperture value. This enables the consistent delivery of highresolution images under a wide variety of installation and shooting conditions. Ease of installation and high reliability Despite being highresolution lenses with.7µm pixel pitch, all the five models come in a compact form factor with the external dimension of just φ33mm. This allows installation flexibility even in manufacturing facilities with space constraints. General machine vision lenses use iris and focus locking screws with a head protruding out from the lens body, potentially causing interference within the machine vision system. The HFM series come with regular locking screws as well as headless compact screws, which can be countersunk into the lens body to minimize interference with the machine vision system, thereby increasing flexibility in system installation and design. The lenses are built with a metal barrel for durability and robustness. Industryleading low distortion design of no more than 0.0% The lenses unique optical design minimizes troublesome distortion. in industrial applications requiring accuracy such as dimension measurement. The series boasts an industryleading low distortion rate of no more than 0.0%. The aspherical glass 3 mold lens enabled the smallest body and low distortion. At the working distance of 0cm In the case of HF68M 3: Installed to HF88M and HF8M When locked with a headless compact screw. No head protruding from the lens body. HF88M 8 F.8F () M30. x 0. Cmount 9.03 Φ HF8M F.8F () M30. x 0. Cmount HF68M 6 F.8F () M30. x 0. Cmount Technology Supporting the HFM Series Highprecision glass mold aspherical lens technology Achieving both miniaturization and low distortion In lens design, reducing the number of lenses and forming an image by abruptly bending light that enters the lens achieves miniaturization. Distortion cannot be controlled if the lenses are only composed of the commonly used spherical lens. However, the aspherical lens can yield the same results of using multiple spherical lenses, enabling the control of distortion with far fewer lenses. Aspherical lenses require precision processing. Fujifilm can design and manufacture aspherical lens within its own group. The precision processing required in the design stage and its mass production is realized by accurate die machining technology. The HFM series realizes both miniaturization and low distortion by implementing the highprecision glass mold aspherical lenses. General MV lens only with spherical lenses Aspherical lens MV lens with an aspherical lens HF8M F.8F 0.0. () M30. x 0. Cmount HF30M 3 F.0F () M30. x 0. Cmount

4 Maintaining HighResolution is about Controlling Aberration. 3 Technologies Supporting 4D HighResolution Please download the specification sheet Floating design technology Controls the drop in resolution caused by changing shooting distances The lenses are designed to show the best resolution at the shooting distance most commonly used (designed distance). At this distance, the aberrations (color fringe/peripheral blur/distortion) are ideally corrected. Although conventional lens design technology optimally controlled aberration at the designed distance, aberration occurred at other distances and lowered resolution. The wide angle lens in particular had issues with its tendency for curvature of field (peripheral blur). HFM serles The HFM series has implemented floating design technology. Floating lens elements behind the iris move to focus and enable the HFM series to retain its highest resolution regardless of the shooting distance. HFXAM series Megapixel, /3 Lens with floating design Conventional lens Focusing group Focusing group Eccentricity adjustment technology Retaining consistent resolution to the periphery of the image HF6XAM HF8XAM HFXAM Misalignment of the axis of the lenses during the manufacturing process prevents the intended performance from being exhibited. It is crucial to align the axis of the lenses to the micrometer level during its manufacturing process. The HFM series realized highresolution consistent all the way to the periphery of the image. This is accomplished by detecting all lens core misalignment using proprietary inspection equipment of Fujifilm manufacturing technology and aligning the whole lens constructions with micrometer level adjustments. Fujifilm s proprietary manufacturing technology is utilized by applying the precision technology needed for manufacturing broadcast lenses that require highdimensional and consistent qualities, to the manufacture of miniature lenses such as camera modules for mobile phones. No misalignments Lenses are misaligned 6 F.9F () M37. x 0. Cmount.88 Φ39 8 F.6F () M. x 0. Cmount Φ9.. F.6F () M. x 0. Cmount 79.6 Φ9.. Glass matching technology (Fujifilm original optical design software FOCUS ) Controls the drop in resolution caused by changing aperture value Lateral chromatic aberration (color fringe) is the main cause for the drop in resolution when changing the aperture value. Due to the different refractive index of the wavelength, imaging position sometimes differs by colors. This leads to the color fringing at the edge of the frame. To control of this aberration combination of the glass materials matters. While general glass materials can correct only the colors of RGB(Red, Green, Blue), Extralow Dispersion glass material enables the correction of all three colors at high level. By implementing glass with Extralow Dispersion characteristics to control lateral chromatic aberration, the HFM series have succeeded to maintain the high resolution even when changing the aperture value. Fujifilm s has developed its original lens design software FOCUS (Fujifilm Class Library and Utilities System), which enables to decide the best glass materials from the infinite combination of possibilities. HF6XAM 6 F.6F () M. x 0. Cmount Φ HFXAM F.6F () M. x 0. Cmount Φ HF3XAM 3 F.9F () M. x 0. Cmount Φ9. 4.

5 Please download the specification sheet HFHA series. Megapixel, /3 DF6HAB HF9HAB HFHAB HF3HAB 6 F.F6 7.3 x 43.8 (/") M7 x 0. Cmount /".84 Φ F.4F6 3.3 x 40. () M7 x 0. Cmount.00 Φ9. 3 F.4F6 9.4 x 4.6 () M. x 0. Cmount Φ F.6F 4.3 x.8 () M. x 0. Cmount 4 0. Φ9. 9. HF.HAB HF6HAB HF0HAB HF7HAB. F.4F6 39. x 9.4 () M. x 0. Cmount 4.9 Φ F.4F6 30. x.9 () M. x 0. Cmount Φ F.3F. x 7.6 () M. x 0. Cmount Φ F.8F 6.7 x.0 (), M30. x 0. Cmount 0.36 Φ9. 48

6 Please download the specification sheet Please download the specification sheet HFSA series Megapixel, /3 CFHA series. Megapixel, HF.SA HF6SA HFSA CF.HA CF6HA CFHA. F.4F 38.0 x 9.0 () M49 x 0.7 Cmount Φ F.4F 30. x.9 () M49 x 0.7 Cmount 8 0. Φ 70. F.4F 0.8 x.7 () M49 x 0.7 Cmount Φ 7.. F.4F 3. x 4. () M49 x 0.7 Cmount Φ F.4F 4.6 x 3.8 () M49 x 0.7 Cmount Φ 70. F.4F 9.9 x.7 () M49 x 0.7 Cmount Φ 7. HF3SA HF0SA HF7SA CF3HA CF0HA CF7HA 3 F.4F 4.0 x. () M49 x 0.7 Cmount Φ F.8F 9.7 x 7.3 () M49 x 0.7 Cmount Φ. 7 F.8F 6.7 x.0 () M49 x 0.7 Cmount Φ 76 3 F.4F 0.3 x.3 () M49 x 0.7 Cmount Φ F.8F 4. x.6 () M49 x 0.7 Cmount Φ. 7 F.8F 9.8 x 7.3 () M49 x 0.7 Cmount 0.0 Φ 76

7 Please download the specification sheet [Reference data] HFM Seires HF88M 0 0.0x 0.0x 0.0x 0.03x 0.00x 0.07x /" HF8M 0 0.0x 0.0x 0.04x 0.033x 0.06x 0.4x /" TF.8DA8.8 F.F6Close 89. x 69.3 () Cmount 7 6. Φ TF series 3CCD, /3 TF4DA8 4 F.F6Close 64. x 49.0 () M7 x 0. Cmount Φ9 46. TF4XA MP 4 F. 64. x 49. () M7 x 0.INSIDE M30. 0.OUTSIDE Cmount 4.7 Φ HF68M x 0.04x 0.08x 0.00x 0.060x 0.09x 0.3x HF30M 0.03x 0.04x 0.04x 0.0x 0.06x 0.06x 0.066x 0.083x 0.094x 0.9x 0.30x 0.6x 0.3x 0.38x /" /" HF8M x 0.030x 0.03x 0.03x 0.09x 0.067x 0.077x 0.09x 0.x 0.4x 0.07x /" This data shows simulation value. When attached with a extension, the optical performance of the lenses is not covered under warranty. The extension s of mm to 9mm can not be attached to the HFM series. Sensor size.8x9.6 /3 8.8x6.6 / 6.4x4.8 /3 4.8x3.6 TF8DA8B TFDA8 TFDA8B This product is for sale while stock lasts. 8 F.F6Close 33.4 x. () M. x 0. Cmount Φ9 39 F.F6Close 8.0 x 3. () M. x 0. Cmount Φ9 39 F.F6Close.0 x 8.3 () M. x 0. Cmount Φ9 39

8 Shooting Range Chart HFHA Seires /" /" /" /" /" /" /" /" /" /" /" /" /" /" HFXAM Seires HFXAM Seires HF6XAM HF8XAM HFXAM HF6XAM HFXAM HF3XAM HF.HAB HF6HAB DF6HAB HF9HAB HFHAB HF3HAB HF0HAB HF7HAB x 0.006x 0.007x 0.007x 0.0x 0.0x 0.0x 0.04x 0.0x x 0.0x 0.0x 0.0x 0.03x 0.03x 0.0x x 0.0x 0.04x 0.030x 0.08x 0.07x 0.8x x 0.04x 0.08x 0.00x 0.09x 0.094x 0.34x x 0.033x 0.03x 0.04x 0.060x 0.068x 0.079x 0.094x 0.6x 0.x 0.6x x 0.00x 0.04x 0.09x 0.078x 0.088x 0.x 0.7x 0.4x 0.76x 0.34x 0.3x x 0.0x 0.03x 0.0x 0.08x 0.03x 0.060x 0.079x 0.3x x 0.0x 0.03x 0.03x 0.04x 0.0x 0.06x 0.076x 0.099x 0.4x x 0.006x 0.007x 0.007x 0.0x 0.0x 0.0x 0.03x 0.04x x 0.0x 0.0x 0.0x 0.0x 0.03x 0.07x 0.08x x 0.03x 0.0x 0.07x 0.084x 0.x 0.6x 0.66x 0.4x x 0.04x 0.04x 0.0x 0.0x 0.060x 0.06x 0.07x 0.080x 0.09x 0.4x 0.3x 0.49x 0.89x 0.8x 0.409x x 0.04x 0.00x 0.03x 0.06x 0.09x 0.063x 0.067x 0.07x 0.078x 0.084x 0.09x 0.x 0.3x 0.8x 0.47x 0.73x 0.09x 0.6x 0.36x 0.68x.330x x 0.04x 0.0x 0.03x 0.0x 0.07x 0.09x 0.06x 0.067x 0.077x 0.08x 0.086x 0.09x 0.097x 0.4x 0.x 0.x 0.3x 0.44x 0.9x 0.78x 0.0x 0.33x 0.76x 0.338x 0.436x 0.64x /3 / /3.8x x x x3.6 Sensor size This data shows simulation value. When attached with a extension, the optical performance of the lenses is not covered under warranty. /3 / /3.8x x x x3.6 Sensor size This data shows simulation value. When attached with a extension, the optical performance of the lenses is not covered under warranty.

9 Shooting Range Chart CFHA series HFSA series /" /" /" /" /" /" /" /" /" /" /" /" CFHA series HF.SA HF6SA HFSA HF3SA HF0SA HF7SA CF.HA CF6HA CFHA CF3HA CF0HA CF7HA x 0.0x 0.0x 0.030x 0.08x 0.07x 0.x x 0.04x 0.08x 0.08x 0.07x 0.09x 0.6x x 0.0x 0.033x 0.03x 0.04x 0.04x 0.00x 0.06x 0.063x 0.086x 0.x 0.3x 0.87x x 0.00x 0.04x 0.08x 0.077x 0.087x 0.099x 0.x 0.37x 0.69x 0.x 0.30x x 0.04x 0.0x 0.04x 0.07x 0.06x 0.069x 0.079x 0.086x 0.094x 0.3x 0.4x 0.9x 0.47x 0.7x 0.0x 0.6x 0.340x 0.07x x 0.04x 0.0x 0.03x 0.0x 0.07x 0.09x 0.06x 0.067x 0.078x 0.08x 0.087x 0.09x 0.098x 0.x 0.x 0.x 0.3x 0.4x 0.6x 0.80x 0.0x 0.37x 0.8x 0.346x 0.x 0.644x x 0.0x 0.0x 0.030x 0.08x 0.07x 0.x x 0.04x 0.08x 0.08x 0.07x 0.09x 0.6x x 0.0x 0.033x 0.03x 0.04x 0.04x 0.00x 0.06x 0.063x 0.086x 0.x 0.3x 0.87x x 0.00x 0.04x 0.08x 0.077x 0.087x 0.099x 0.x 0.37x 0.69x 0.x 0.30x x 0.04x 0.0x 0.04x 0.07x 0.06x 0.069x 0.079x 0.086x 0.094x 0.3x 0.4x 0.9x 0.47x 0.7x 0.0x 0.6x 0.340x 0.07x x 0.04x 0.0x 0.03x 0.0x 0.07x 0.09x 0.06x 0.067x 0.078x 0.08x 0.087x 0.09x 0.098x 0.x 0.x 0.x 0.3x 0.4x 0.6x 0.80x 0.0x 0.37x 0.8x 0.346x 0.x 0.644x /3 / /3.8x x x x3.6 Sensor size This data shows simulation value. When attached with a extension, the optical performance of the lenses is not covered under warranty. /3 / /3.8x x x x3.6 Sensor size This data shows simulation value. When attached with a extension, the optical performance of the lenses is not covered under warranty.

10 Technical Information Image Sizes Diagonal: D Image circle There are several types of imaging sensors for FA cameras, with different image sizes. The aspect ratio of FA camera is normally 4:3 (H:V). Product symbol C H Image sensor /3 Horizontal:H Image size (mm) Vertical:V Diagonal:D Brightness of a Lens (F No.) The F No. is an indication of the brightness of lens. The smaller the value, the brighter the image produced by the lens. The F No. is inversely proportional to the effective diameter of the lens and directly proportional to the focal length. The F No. is a value determined on the assumption that the transmittance of the lens is %. Virtually all lenses however, have different spectral transmittance, and thus, the same F No. can have different levels of brightness. F No. f d f Focal length of a lens d Effective diameter of a lens /" Vertical: V D 3mm camera lens (Reference) / 3mm Film Field of View and Focal Length Y Y' Horizontal: H L f Y : Object size Y' : Image size L : Object distance f : Focal length Angle of View The angle of view is the object size that can be captured at a specified image size, which is represented by angular measure. Normally the angle of view is measured assuming a lens is focused at infinity. When using a lens of the same focal length with a different image size, the angle of view will differ. H f (Focal length) D V tan tan Y' f 6.4. Y' Image size f Focal length Eg. The angle of view when the camera size is /" and the focal length is.mm: Y' 6.4 f. 8.7 () How to calculate the field of view If the distance to the object is finite, you can use the following formula to calculate the field of view. Eg. CCD camera with an 8mm lens is used, and the distance to the object is 3m. The maximum horizontal width as viewed on the monitor can be calculated as follows. Y' : 4.8 L : 0 f : 8 L YY' f 0 Y4.8 8 Horizontal width.8 m () How to calculate focal length If the distance to the object is finite, you can use the following formula to calculate the focal length. Eg. CCD camera with an 8mm lens is used, and the distance to the object is 3m. The maximum horizontal width as viewed on the monitor can be calculated as follows. Y' 4.8 L 0 Y 0 fy' L Y 0 f Focal length approx. 7 mm Depth of Field When focusing on a certain area in front of and behind the deep object appears in focus. This area is called the depth of field. This is because the focus appears sharp if the focus misalignment is under a certain volume. This certain volume is called the permissible circle of confusion. Reference The depth of field has following properties. )The larger the F No. is, the wider the depth of field becomes. )The shorter the focal length is, the wider the depth of field becomes. 3)The longer the distance to the object is, the wider depth of field becomes. 4)The backward depth of field is wider than the forward depth of field. Image sensor /" /4" Permissible circle of confusion 0.03 mm 0.0 mm 0.0 mm 0.0 mm mm The depth of field can be calculated by the following formula. Backward depth of field Forward depth of field Depth of field TrTf Focal depth F Tr FL f FL Tf FL f FL f Focal distance F F No. Permissible circle diameter of confusion L Object distance Permissible circle of confusion Distortion Distortion is an aberration where the geometric figure of the object is not reproduced faithfully at the image plane. It is normally represented by the level shift of an image point from its ideal position by a percentage of image height or width. Object Lens Barrel distortion Pincushion distortion Focal Length The focal length will be the distance from the back principal point to the image plane. Lower the focal length wider the image Tr Tf Depth of field Back principal point Image plane Focal depth MTF (Modulation Transfer Function) MTF (Modulation Transfer Function) represents the declining contrast rate when shooting a chart consisted of black and white lines. MTF (%) Focal length 0 Frequency MHz