Tag: first

  • TTartisan teases its first AF lens, a 32mm F2.8 for multiple full-frame, APS-C camera systems

    TTartisan has announced it will soon release a 32mm F2.8, its first autofocus lens. Very little information about the lens is revealed, aside from the mount options, which will include Canon RF, Canon EOS M, Fujifilm X, Nikon Z and Sony E mount camera systems.

    As it stands, this particular focal length is going up against quite a bit of competition in nearly every lens mount it’ll be offered in. The F2.8 aperture isn’t exactly inspiring, so its selling point across all lens mounts will likely be its price point, which hasn’t yet been announced.

    We’ll share another article when the lens and its more detailed specifications are released.

    Articles: Digital Photography Review (dpreview.com)

  • The ZV-E10, Sony’s First Interchangeable-Lens Vlog Camera, Will Ship on the 24th

    The post The ZV-E10, Sony’s First Interchangeable-Lens Vlog Camera, Will Ship on the 24th appeared first on Digital Photography School. It was authored by Jaymes Dempsey.

    The Sony ZV-E10 will ship on August 24th

    Next week, Sony will release its distinctive new vlogging camera, the ZV-E10, which features a compact build, APS-C image quality, and interchangeable lenses.

    Sony’s new camera is “designed from the ground up for vlogging and vloggers,” and aims to provide content creators with a blend of beginner-friendliness, top-notch video, and compactness for a uniquely effective shooting experience. 

    While Sony already offers a vlogging camera, the ZV-1, the ZV-E10 aims to keep the best of the former model while improving upon it in a number of ways. Most notably, the ZV-1 is a fixed-lens camera, while the ZV-E10 is compatible with Sony’s range of E-mount glass. The ZV-E10 also outperforms the ZV-1 in terms of image quality, thanks to its powerful APS-C, 24 MP sensor.

    And when it comes to video, the ZV-E10 brings the goods. You get 4K/24p shooting with no crop and no pixel binning (4K/30p with a crop factor), not to mention 1080p up to 120 fps, mic and headphone jacks, an excellent inbuilt mic, S-Log recording, and top-notch autofocus. Plus, the high-resolution LCD swivels to the side, so you can preview your video while vlogging:

    The Sony ZV-E10 vlogging camera

    Sony has even packed in several video-focused features designed for vloggers and other video beginners, such as a “Background Defocus” option, which instantly widens the lens aperture for a beautiful background blur effect. You also get a “Product Showcase Setting,” which tells the camera to focus on products rather than faces.

    In other words, if you’re a beginner vlogger, you can get started with pro-looking videos from the get-go. 

    The ZV-E10 will also perform well as a beginner stills (or hybrid) camera. The 24 MP sensor comes straight from the highly regarded a6100 and works alongside Sony’s class-leading Real-Time Eye AF and Real-Time Tracking. You can expect an impressive 11 frames-per-second continuous shooting, plus touchscreen autofocusing – making the ZV-E10 an excellent option for action photography, fast-paced walkaround shooting, and more.

    The ZV-E10 will begin shipping on August 24th, though it is currently available for preorder. Prices start at $ 698 USD (body only), though you can also grab the ZV-E10 as part of a camera-lens kit.

    If you’re a vlogger or a content-creation beginner and you’re looking for a standout option, the ZV-E10 is not only a powerful camera, but also very reasonably priced. Sony’s first interchangeable-lens vlogging model is bound to be a hit – so grab it next week!

    Now over to you:

    What do you think of the ZV-E10? Are you impressed? Would you buy it? Or is it missing features you’d like to see in a vlogging camera? Share your thoughts in the comments below!

    Credit: All images courtesy of Sony.

    The post The ZV-E10, Sony’s First Interchangeable-Lens Vlog Camera, Will Ship on the 24th appeared first on Digital Photography School. It was authored by Jaymes Dempsey.


    Digital Photography School

  • Update: Images appear to confirm Nikon’s Z9 is being tested at the Olympics, gives us the first look at its back side

    Update (July 30th, 2021 at 1:30pm EDT): We have added a new tweet from the Photolari Twitter account that shows new images of what appears to be the same Nikon camera shown off in the two images from yesterday.


    Today, Twitter account Photolari shared a tweet with a pair of photos showing what appears to be Nikon Z9 mirrorless cameras in the wild at the Olympics.

    The original tweet has been deleted, but digicame-info managed to save the above images before their removal. Nikon has confirmed some details of its forthcoming flagship mirrorless camera, but only shown renderings of the front of the camera. These new images reveal the back side of the pro-style camera body, which appears to feature Nikon’s signature circular eyepiece, dual joysticks, a directional pad and a generous array of buttons. Below is a breakdown of the buttons (many of which are surely going to be customizable):

    There appears to be black gaffer tape around the screen of the camera, obscuring what may or may not be an articulating display.

    DPReview confirmed with Nikon earlier this week that it had its Z6 II and Z7 II mirrorless cameras and Z mount lenses on-hand at the 2020 Tokyo Olympics, but there was no mention of its unreleased Z9 mirrorless camera. It’s been confirmed Canon has photographers testing out its forthcoming EOS R3 mirrorless camera at the Olympics as well, so it’s no surprise Nikon is using the Olympic Games as a testing ground as well for its professional camera system.

    Below is a new tweet from the Photolari Twitter account showing off two new images of what appears to be the same camera shown off in the above images:


    Articles: Digital Photography Review (dpreview.com)

  • What you need to know before buying your first lens

    Updated June 2021

    A camera is nothing without a lens, and while the bundled ‘kit’ lenses sold with many interchangeable lens cameras (ILCs) are good enough to get started, they’re quite limiting. If you want to explore the full potential of your camera – and your own creativity – you should consider adding another lens or two to your collection. But with a bewildering variety of lenses out there, how do you know which ones are right for you?

    In this guide we’ll lead you step-by-step through the process of understanding the different kinds of lenses available, and choosing the right one for your needs.

    Lenses and sensors

    Lenses themselves know nothing of the sensor mounted behind them, but different sized sensors change the visual impact of the lens (specifically the focal length and aperture) on the final image.

    Among interchangeable lens cameras today there are three commonly-used sensor sizes: Four Thirds, APS-C and full-frame. The examples given in the rest of this article are lenses designed for full-frame bodies but we’ll also discuss what impact sensor size will have.

    How are lenses named?

    Looking at the lens pages on manufacturers’ websites can be a little intimidating for a budding photographer. Lens names often include long lists of letters and numbers, which certainly sound impressive but can also be thoroughly confusing. Luckily you can safely ignore most of them to start off with, and concentrate mainly on just a few factors:

    • Focal length – this defines how wide or zoomed-in a view the lens provides
    • Aperture – expressed as ‘F’ or ‘f/’ this describes how much light the lens can gather and its ability to blur the image background
    • Image Stabilization – some lenses include optical stabilization units to counteract the blurring effects of hand shake
    • Format – describes the sensor size the lens is designed to work with
    • Lens mount – determines whether the lens will physically fit your camera

    We’ll look into each of these in more detail below.

    Focal length

    The first number used to describe a lens is its focal length; in combination with the camera’s sensor size, this defines the angle of view covered by the lens, with smaller ‘mm’ numbers indicating a wider angle or more ‘zoomed out’ view. Zoom lenses are named using two numbers which indicate the extremes of the range, for example 24-70mm for a typical kit zoom lens. Fixed focal length lenses which don’t zoom (also known as ‘prime’ lenses) just have a single number (e.g. 50mm).

    Here, we can see this lens’ key specifications expressed in terms of its focal length span (‘zoom range’) which is 18-35mm, and its minimum aperture range, which is F3.5 at 18mm, and F4.5 at 35mm.

    The image below shows how the angle of view varies with focal length. In this instance it shows the effect of these lenses mounted on a full-frame camera. The same focal length lenses, mounted on a smaller, APS-C sensor would give a narrower, more cropped-in angle of view, and an even narrower coverage if mounted on a Micro Four Thirds format camera.

    The effect is as is as though you’ve ‘zoomed’ the lens, but instead you’ve only magnified a smaller portion of its projected image. As a result, the focal lengths that are useful on one sensor format will differ from those that you’d use for the same purpose on another sensor.

    Illustration showing the coverage given by a series of popular focal lengths. These are shown for a full-frame sensor; each would cover a smaller area if used with an APS-C or Four Thirds sensor.
    Lens type
    35mm ‘full-frame’
    APS-C / DX Four Thirds
    Ultra wide angle 24mm and wider 16mm and wider 12mm and wider
    Wide angle 28mm 18mm 14mm
    Standard (Normal) 50mm 30mm 25mm
    Telephoto 80mm and longer 55mm and longer 42mm and longer

    For the sake of convenient comparison, lenses are often referred to by their ’35mm equivalent’ focal length; for example a 18-55mm kit lens for APS-C may be described as a 28-90mm equivalent. This means simply that an 18-55mm lens on an APS-C format camera covers the same angle of view as a 28-90mm lens does on a full-frame camera.

    Aperture

    The aperture specification of a lens describes how much light it is capable of gathering. Aperture simply means ‘hole’; in this context, the hole that lets light pass through the lens and onto your camera’s sensor.

    Lens apertures can be expressed in several different ways, with F4, f/4, 1:4 all meaning the same thing. Confusingly, a smaller number means the lens has a larger maximum aperture – a bigger hole – and therefore can gather more light; an F2.8 lens collects twice as much light as an F4, for example.

    ‘Whole stop’ Aperture values
    F1.4 F2.0 F2.8 F4.0 F5.6 F8.0 F11 F16

    This table lists the common aperture values that are one ‘stop’ apart: each value lets in twice as much light as the one to its right.

    A lens with a larger maximum aperture allows you to shoot in lower light, and (for example) take pictures indoors without using flash. Wide apertures also give decreased depth of field (i.e. how much of the picture in front of and behind the focus point appears sharp), which is an important aspect of creative photography.

    Longer lenses give less depth of field for the same aperture, when focused at the same distance. And, because you need a shorter focal length to get the same image framing on an APS-C or Micro Four Thirds camera, you’d need a larger aperture if you want to achieve the shallow depth of field you’d get on a full-frame camera.

    A large aperture such as F1.4 gives a shallow depth of field, blurring backgrounds and foregrounds to isolate a subject in a picture. The 24mm F1.4 used to take this picture also allows you to shoot indoors in low light without having to resort to flash.

    It’s worth noting that lenses are usually described by their maximum aperture value. When you see an aperture range written on the side of a lens (e.g. F3.5-5.6), those are the maximum aperture values at the wide and long ends of its zoom range, respectively. You can usually reduce the size of the aperture if you need more of your image to be in focus.

    Image stabilization

    Image stabilization increases the amount of sharp images you get by correcting vibration caused (usually) by natural hand-shake when shooting without a tripod.

    In-body stabilization (where the camera’s sensor moves to counteract accidental movement) is increasingly common, but many lenses offer their own stabilization mechanisms to compensate for shake. In-lens stabilization is especially effective when using long telephoto lenses, where in-body stabilization is generally not as effective. Many cameras can use in-lens stabilization in conjunction with their in-body systems, to provide a greater degree of correction.

    Image stabilization systems reduce the blur caused by camera shake, allowing sharp pictures to be taken even in low light, at long focal lengths or at high magnifications.

    If you own a camera that doesn’t have stabilization built into the body, you’ll probably want to consider buying stabilized lenses, especially when it comes to telephotos.

    The various lens manufacturers all call lens-based optical image stabilization by different names, with corresponding initials in the lens names, so here’s what you need to look out for when buying:

    • Canon – Image Stabilization (IS)
    • Fujifilm and PanasonicOptical Image Stabilization (OIS)
    • Nikon – Vibration Reduction (VR)
    • Sony – Optical Steady Shot (OSS)
    • Sigma – Optical Stabilization (OS)
    • Tamron – Vibration Control (VC)

    Format coverage

    Having said that sensor format has a significant impact on the way lenses behave, it’s also worth considering that some lenses only work on certain sensor formats. In several instances, camera makers use the same mount for their APS-C and full-frame cameras. In most of these situations, full-frame lenses will work on the smaller APS-C models, but APS-C lenses end up restricting full-frame cameras to a cropped APS-C mode.

    Some photographers start with an APS-C camera and then buy full-frame compatible lenses for it, to lower the amount of money they have to spend if they later buy a full-frame camera that uses the same mount. In general, we’d advise buying lenses that suit your needs now, rather than ones that may better suit a camera you don’t yet own.

    Lens mounts

    Each camera maker uses its own proprietary lens mount, meaning that lenses can’t be swapped across brands; a Canon lens won’t fit on a Nikon body, for example, and you’ll cause damage to both lens and camera if you try. The two exceptions are Micro Four Thirds, which was developed jointly by Panasonic and Olympus, and L-mount, a full-frame collaboration between Leica, Panasonic and Sigma.

    Most companies are now focusing their efforts on their Mirrorless camera mounts, so this is where the newest and most advanced lenses are emerging. Many DSLR-mount lenses can be adapted to work on the mirrorless cameras made by the same brand (older designs are less likely to offer a full range of functions) but lenses for mirrorless cameras cannot be used on DSLRs.

    Mount Mount type Sensor formats Notes
    Canon EF DSLR

    • Full-frame

    EF-S DSLR

    • APS-C

    Canon EF-S lenses cannot be mounted on full-frame DSLRs but other brands’ EF-mount APS-C lenses can.
    EF-M Mirrorless

    • APS-C

    EF and EF-S lenses can be adapted to work on EF-M cameras
    RF Mirrorless

    • Full-frame

    Most EF-mount lenses work well on RF mount via an EF/RF adapter.
    Four Thirds
    • Olympus
    • Panasonic
    Micro Four Thirds Mirrorless • Four Thirds
    Fujifilm X Mirrorless • APS-C
    L-Mount Alliance
    • Leica
    • Panasonic
    • Sigma
    L Mirrorless

    • Full-frame
    • APS-C (TL)

    Only Leica has made TL-mount (APS-C) cameras and lenses.
    Nikon F DSLR

    • Full-frame
    • APS-C (DX)

    F-mount was modernized over many decades but only relatively modern ‘AF-S’ designs offer AF when adapted onto Z-mount cameras
    Z Mirrorless

    • Full-frame
    • APS-C (DX)

    Pentax K DSLR

    • Full-frame (FA)
    • APS-C (DA)

    As with Nikon, there are variants of the K mount, but most lenses work with the latest DSLRs
    Sony E Mirrorless

    • Full-frame (FE)
    • APS-C (E)

    Other lens makers use ‘E’ for both APS-C and full-frame lenses, so it’s worth checking which format they cover

    A number of third party manufacturers, including Tamron, Tokina and Sigma make lenses for other makers’ lens mounts, with the older DSLR mounts benefiting from the widest support. Sony allows some third-parties to make lenses for its mirrorless E-mount system but Nikon and Canon have, so far, been protective of their new Z and RF mounts, meaning there are fewer third-party options available.

    Zoom vs. Prime

    Zoom lenses have become almost ubiquitous over the past few years, and at first sight buying a lens which is restricted to a single angle of view might seem pointless. But prime lenses still have some very real advantages; compared to zooms they tend to be smaller and lighter, have faster maximum apertures, and give sharper, cleaner images. These factors make them extremely useful for specific purposes, for example low light shooting or blurred-background portraiture where a large maximum aperture is advantageous.

    Almost counterintuitively, the restrictive nature of using a single focal length can encourage creativity by forcing you to visualize your composition before you shoot. Shooting with primes forces you to think more about what you want to include and exclude from your photo and also makes you consider where you’re standing, and the impact this has on perspective in your image. For instance, a long focal length, shot from a distance can compress your subject and the background, whereas a wide-angle lens placed near your subject will exaggerate the distance between it and the surroundings.

    Fixed focal length ‘prime’ lenses are often much smaller and lighter than zooms covering the same angle of view. This is Nikon’s Z-mount 35mm F1.8 lens alongside its standard 24-70mm F2.8 zoom – the size advantage is obvious.

    Some popular lens types

    Standard zoom

    A standard zoom is a general-purpose lens that covers a range of focal lengths from wide-angle to moderate telephoto. The most obvious example is the kit lens that came with your camera (generally something like an 18-50mm for APS-C or a 24-70mm for full-frame). It offers versatility but can become limiting when you find yourself wanting to get more creative. The kit lens can be upgraded to an optic with more range or a faster F2.8 maximum aperture, with better optical performance, like the Canon RF 24-70mm shown F2.8 below.

    Most manufacturers offer general-purpose upgrades to their kit lenses with expanded zoom ranges suitable for a wide range of subjects, such as this Canon RF 24-70mm F2.8.

    Telephoto zoom

    Often the second lens that photographers buy, a telephoto zoom effectively allows you to ‘get closer’ to your subject by enlarging it within the frame. It’s therefore useful for photographing such things as sports, wildlife, distant nature scenes, or children running around playing. By narrowing your field of view, a long lens can have the effect of compressing your subject and background, often making it appear as though the background is magnified and closer to your subject.

    Telephoto zooms such as this Nikon Z 70-200mm F2.8 S allow you to zoom in on your subjects and compress them against the background.

    Superzoom

    Superzooms are all-in-one lenses which cover a full range of focal lengths from a moderate wide-angle to long telephoto. In one package they combine the range of the kit zoom that came with the camera, plus that of a telephoto zoom, and therefore make perfect general purpose travel lenses. The technical image quality is often not quite as good as two separate lenses, and the maximum aperture tends to be small (a higher F-number), meaning worse low light performance and less ability to achieve shallow depth of field. However, for many users this is more than made up for by their convenience.

    Superzoom lenses such as the Tamron 28-200mm F2.8-5.6 Di III RXD encompass a wide range focal lengths from wide-angle to telephoto, in a relatively compact single lens.

    Wide-angle zoom

    A wide-angle zoom extends the angle of view out beyond that captured with the standard zoom, allowing you to capture broad sweeping vistas or architectural wonders. It’s therefore a popular choice for landscapes, cityscapes, architecture, interior shots, and night- and astro-photography.

    Wide zooms such as the Sony 16-35mm F2.8 pictured here let you fit more in the frame.

    Macro lens

    ‘Macro’ is used to describe a lens with extreme close-focusing ability, which allows you to take photographs of small objects such as insects or flowers. Some zoom lenses use ‘macro’ in their name to indicate closer-than-usual focusing ability, but true macro lenses tend to have fixed focal lengths. In general, the longer the focal length, the further away you can be from your subject. (Nikon calls these lenses ‘Micro’ or ‘MC’ lenses instead, which is technically more accurate.)

    Macro lenses like the Sigma 105mm F2.8 DG DN Macro allow you to shoot closeups in fine detail.

    Fast prime lens

    Fast prime lenses come in all focal lengths, from wide angle to ultra-telephoto, but what they share in common is the ability to capture a lot of light, blur backgrounds and offer high optical quality.

    We’ve traditionally found 35mm (or the equivalent 23mm or 17mm on APS-C or Four Third sensors) to be a pretty good do-everything focal length, in terms of not being too wide or too zoomed-in. An F1.8 maximum aperture can give shallow depth of field and lets you work in low light without the need for flash, while remaining compact and lightweight. Wider-angle and longer focal length primes are also available, as are lenses with even faster maximum apertures (F1.4 and brighter) that typically offer higher quality optics, let you work in lower light and give even shallower depth-of-field to help isolate your subject.

    A ‘fast’ prime, such as this Canon 35mm F1.8, can let you shoot in low light without flash, while isolating your subject against a blurred background. They are also typically smaller than zoom lenses.

    Other lens features

    There are a few other aspects of build and operation which you may wish to consider when buying a lens:

    Autofocus

    Autofocus performance can vary significantly between lenses, and autofocus performance can make a huge difference between capturing the perfect moment at a sports event or social occasion and having a frustrating photographic experience.

    Mirrorless camera systems are still relatively new, and there’s a subtle interplay of optical design and focus motor that effects performance. For instance the ring-type ultrasonic motors that were great for focusing on DSLRs aren’t as well suited to focusing on mirrorless cameras, particularly for the smooth, subtle movements required for video autofocus. As such, it’s difficult to make generalizations, so it’s worth checking reviews of the lens you’re planning to buy.

    Electronic manual focus (‘focus by wire’)

    Many modern lenses have no physical connection between the focus ring and the focusing lens elements, as was the case in older SLR and DSLR lenses. Many cameras use this to provide speed-sensitive manual focus, where a quick turn of the focus ring results in a bigger focus jump than a slow movement. This lets you jump quickly to the part of the focus range you want, but can be awkward if you’re trying to manual focus while shooting video.

    To get round this, some cameras offer a ‘linear’ focus response mode, where the focus always moves by the same amount in response to how much you turn the focus ring: letting you practice and anticipate the amount by which you need to turn the ring.

    Manual focus lenses

    Although modern autofocus is excellent, there is still a huge number of manual focus lenses on the market. These include designs optimized for shooting video and traditional, high-quality designs, through to unusual, specialist lenses that would be near-impossible to make autofocus along with the creations of small companies without the experience (or access to lens mount protocols) to manufacture AF lenses.

    Ultra-wide angle lenses, tilt-shift lenses and some very expensive lenses designed to be mechanically simple but optically excellent are out there, and are worth considering.

    Build quality and weather sealing

    Premium lenses often include weather sealing. This can extend from an o-ring around the mount through to a series of seals at every joint, as with this Panasonic lens.

    As a general rule, the more expensive a lens is, the better built it is likely to be. The kit lenses that come with cameras tend to rather lightweight and plastic in construction. If you spend a bit more, you can get something more durable. Some lenses incorporate environmental seals against dust and water; in general this tends to be towards the top end of the price spectrum, but Pentax and Olympus in particular offer a decent range of mid-priced sealed lenses.

    System addict…

    One last word. When choosing a camera system to invest in, it’s important to appreciate that the lens has just as great an impact on the image quality as the camera. Lenses tend to last longer than cameras too, becoming obsolete less quickly than bodies, so it can be worth spending a little bit extra to get the quality or flexibility you really want. But, while DSLR systems are much more extensive, most new lens development is focused on Mirrorless cameras, so these may prove more future-proof.

    Bear in mind that most mirrorless lens systems are still only a few years old, so they may be missing the type of lens you want, for now. That said, the system with most options isn’t inherently any better than a smaller system that includes all the lenses you need.

    Even if you don’t have a very specific application that needs specialized lenses (or other accessories) in mind, it’s worth doing some research before committing to one system or another. Oh, and once bitten by the lens buying bug, many enthusiasts find it hard to stop; you have been warned…

    Glossary

    Angle of view – Describe the view offered by a lens, measured as the angle between the furthest extremes of the lens’s coverage. If this is confusing, imagine the view in front of you as a semicircle of 180 degrees: a ‘wide-angle’ lens can see a bigger segment of the semicircle than a ‘long’ (telephoto) one.

    Depth of field – This describes how much of the scene in front and behind the point of focus appears acceptably sharp. An image with shallow depth of field leaves the background (and foreground) appearing blurry and out-of-focus. An image with deep depth of field contains a greater amount (depth) of sharp detail.

    Fast / slow lens – An informal way of describing a lens’ aperture in terms of its relation to exposure time. ‘Fast’ lenses have large maximum apertures (low F-numbers), which allow the use of shorter, ‘faster’ shutter speeds. ‘Slow’ lenses have smaller maximum apertures, and typically require longer, ‘slower’ shutter speeds.

    Focal length – Expressed in millimeters, focal length describes the angle of view of a lens. Telephoto lenses have a long focal length, and wide-angle lenses have a short focal length. The longer the focal length, the narrower the angle of view and the more zoomed-in it appears.

    Long / wide lens – A way of describing the field of view offered by a lens. Long lenses are more zoomed-in, while wide lenses are zoomed-out and capture a wider angle of view.

    Micro Four Thirds – A mirrorless system founded by Panasonic and Olympus, based around a 17.3 x 13mm sensor (224 sqmm) format known as Four Thirds. The system allows some very compact camera/lens packages, particularly for very long telephoto lenses. This system includes some high-end video cameras.

    APS-C – A common sensor format used by interchangeable lens camera manufacturers. APS-C format sensors measure around 24 x 15mm (~360 sqmm), and this format offers a balance of image quality, size and price in between Four Thirds and ‘full-frame.’

    Full-frame – A sensor format the same size as a frame of 35mm film – the dominant film format of the 20th and early 21st Centuries. Measures 36 x 24mm (864 sqmm), giving a significant image quality benefit compared to smaller formats, but resulting in larger, more expensive camera/lens combinations. Despite the name, sensor larger formats do exist, in sizes known collectively as ‘medium format’.

    Prime lens – A lens with a fixed focal length, which cannot zoom in or out. A technical term not to be confused with Amazon Prime.

    Zoom lens – A lens whose field of view (described in terms of focal length) can be adjusted, allowing you to zoom-in or out on a subject, to achieve a different composition without changing your position.

    35mm / full-frame equivalent – A way of understanding the characteristics of a lens when used on a non-full-frame camera by relating it to the 35mm film format that’s familiar to many photographers. Most commonly used in reference to focal length: e.g a 28mm lens on an APS-C camera is equivalent to a 42mm lens on a full-frame camera.

    Articles: Digital Photography Review (dpreview.com)

  • Video: A ‘Retro Review’ of the 20-year-old Canon Pro90 IS, Canon’s first digital camera with optical image stabilization

    Gordon Laing, Editor of Camera Labs, is back again with another episode of ‘Retro Review.’ In this video, he puts the Canon Pro90 to the test to see how well it holds up two decades after it was released.

    At the time of its release, the Canon Pro90 IS was Canon’s flagship PowerShot camera. It retailed for $ 1,300, used a 3.3MP sensor and had a design similar to its Pro70 predecessor, but featured a 10x zoom lens compared to the 2.5x zoom lens on the Pro70. It was also Canon’s first camera with optical image stabilization.

    As impressive as the optics were though, the camera had an interesting design quirk—the image circle of the lens didn’t fully cover the 1/1.8″ sensor, so the resulting images were digitally cropped down to just 2.6MP. Incredibly, the camera featured a Raw capture mode though, in addition to JPEG support (with various compression ratios) as well as QVGA (329 x 240 pixel) video recording.

    To find out more, set some time aside to watch the entire 12 minute video. To see more Retro Review content and other interesting insights on vintage tech, head over and subscribe to Laing’s Dino Bytes YouTube Channel.

    Articles: Digital Photography Review (dpreview.com)

  • Incredible video showcases world’s first 8K VR drone footage of Iceland’s Mt. Fagradalsfjall volcano

    Incredible new footage, captured with an 8K Insta360 Pro 2 mounted to the bottom of a DJI drone, shows the Mt. Fagradalsfjall volcano in Geldingadalur, Iceland as it continues to erupt. The immersive visuals were captured by Ragnar Th. Sigurðsson, founder of Arctic Images, and drone pilot Arnar Þór Þórsson in collaboration with Perlan Museum, ‘which hosts a state-of-the-art 8K planetarium and other exhibitions on Iceland’s geographic wonders.’

    The Mt. Fagradalsfjall volcano erupted for the first time in roughly 800 years back on March 19, 2021. Since then, it’s been spewing lava from its fissures, making for incredible visuals that have brought photographers from around the world to see the geological phenomenon. We’ve already seen a number of incredible videos captured with drones flying over the active volcano, but none of which allow you to control what you’re seeing. Until now, that is.

    While YouTube limits playback to 4K, the footage was recorded in 8K using an Insta360 Pro 2 attached to the bottom of a DJI Matrice 600 drone. According to Insta360’s blog post detailing the creation of this video, the drone and camera flew over lava that reached reached temperatures as high as 1240°C degrees (2264°F). Despite the intense heat, which we’ve already seen is capable of melting drones, both the Insta360 Pro 2 and DJI Matrice 600 survived the flight.

    For the best viewing experience, make sure you’re using a browser that supports YouTube’s VR content and have plenty of bandwidth to stream the video at full resolution. Another option, if you have one on hand, is to use a VR headset to really immerse yourself in the footage.


    Image credit: Photos provided by Insta360

    Articles: Digital Photography Review (dpreview.com)

  • NASA Ingenuity helicopter prepares for the first powered, controlled flight on another planet

    NASA has announced that it is preparing to launch its Ingenuity Mars Helicopter no earlier than April 8. Ingenuity’s maiden flight will mark the first attempt at a powered, controlled flight of an aircraft on another planet. Before Ingenuity can lift off, the team must meet numerous challenging milestones.

    The Mars Perseverance Rover landed on Mars on February 18. Since then, the rover has been sending important images and data back to Earth while the team goes through different instrument checks and testing procedures. Since then, the Ingenuity Mars Helicopter has remained attached to the belly of Perseverance.

    However, the operation has experienced progress. On March 21, Perseverance deployed the ‘guitar-case shaped graphite composite debris shield’ that protected Ingenuity when Perseverance landed last month. Perseverance is now in transit to the ‘airfield’ where Ingenuity will attempt to fly. After Ingenuity is deployed, the helicopter will have 30 Martian days, known as sols, to perform its test flight campaign. This is equal to 31 Earth days.

    ‘When NASA’s Sojourner rover landed on Mars in 1997, it proved that roving the Red Planet was possible and completely redefined our approach to how we explore Mars. Similarly, we want to learn about the potential Ingenuity has for the future of science research,’ said Lori Glaze, director of the Planetary Science Division at NASA Headquarters. ‘Aptly named, Ingenuity is a technology demonstration that aims to be the first powered flight on another world and, if successful, could further expand our horizons and broaden the scope of what is possible with Mars exploration.’

    ‘When NASA’s Ingenuity Mars Helicopter attempts its first test flight on the Red Planet, the agency’s Mars 2020 Perseverance rover will be close by, as seen in this artist’s concept.’ Caption and image credit: NASA/JPL-Caltech

    It’s difficult enough to get a helicopter to Mars, and that accomplishment is the result of years of work by many talented people and considerable financial resources. When designing Ingenuity, the team had to ensure it was small and light enough to be an acceptable payload for Perseverance. The helicopter is solar-powered, and it must be efficient enough to have the required energy to operate on Mars and survive cold Martian nights.

    There are significant challenges to flying on Mars. The Red Planet has about one-third of Earth’s gravity, for starters, and the atmosphere is also only 1% as dense as Earth’s at the surface. The weather poses unique challenges, with nighttime temperatures dropping to -130° F (-90° C), which can wreak havoc on electrical components.

    ‘Members of the NASA Mars Helicopter team inspect the flight model (the actual vehicle going to the Red Planet), inside the Space Simulator, a 25-foot-wide (7.62-meter-wide) vacuum chamber at NASA’s Jet Propulsion Laboratory in Pasadena, California, on February 1, 2019.’ Caption and image credit: NASA/JPL-Caltech

    ‘Every step we have taken since this journey began six years ago has been uncharted territory in the history of aircraft,’ said Bob Balaram, Mars Helicopter chief engineer at NASA’s Jet Propulsion Laboratory in Southern California. ‘And while getting deployed to the surface will be a big challenge, surviving that first night on Mars alone, without the rover protecting it and keeping it powered, will be an even bigger one.’

    Once Ingenuity is in place, squarely in the center of its 33′ x 33′ (10m x 10m) airfield, the complicated deployment process can begin. ‘As with everything with the helicopter, this type of deployment has never been done before,’ said Farah Alibay, Mars Helicopter integration lead for the Perseverance rover. ‘Once we start the deployment there is no turning back. All activities are closely coordinated, irreversible, and dependent on each other…’

    ‘NASA’s Mars Perseverance rover’s descent stage was recently stacked atop the rover at Kennedy Space Center, and the two were placed in the back shell that will help protect them on their journey to Mars. In this image, taken on April 29, 2020, the underside of the rover is visible, along with the Ingenuity helicopter attached (lower center of the image). The outer ring is the base of the back shell, while the bell-shaped objects covered in red material are covers for engine nozzles on the descent stage. The wheels are covered in a protective material that will be removed before launch.’ Image and caption credit: NASA/JPL-Caltech

    If all goes according to plan, the deployment process will take six sols. On the sixth scheduled sol of the deployment phase, NASA states that ‘the team will need to confirm three things: that Ingenuity’s four legs are firmly on the surface of Jezero Crater, that the rover did, indeed, drive about 16 feet (about 5 meters) away, and that both helicopter and rover are communicating via their onboard radios. This milestone also initiates the 30-sol clock during which time all preflight checks and flight tests must take place.’

    Artist’s rendition of the Perseverance rover and Ingenuity helicopter. Image credit: NASA/JPL-Caltech

    Ingenuity is not carrying special instruments, and unlike the rest of the mission, its goals are not scientific. Ingenuity is solely an experimental engineering test flight. The team wants to see if it can fly on Mars. When Ingenuity is ready to fly, JPL mission controllers will send and receive flight instructions through Perseverance. Hopefully, early next month, Ingenuity will successfully launch from Mars’ surface. When it does, it will mark a monumental achievement for NASA, JPL and countless others.

    Articles: Digital Photography Review (dpreview.com)

  • First impressions of the Sony 50mm F1.2 GM

    First impressions of the Sony FE 50mm F1.2 GM

    It seems that every camera company is flexing its optical muscles these days to churn out F1.2 lenses. Sony, not one to be left behind, just released its first F1.2 prime, the FE 50mm F1.2 GM. One can’t help but ponder if Sony made this lens, at least in part, to dispel the myth that the smaller lens mount diameter – compared to its mirrorless peers – makes such fast lenses impossible (Sony claims F0.63 E-mount lenses can be made, but don’t make business sense).

    Either way, while the Planar T* FE 50mm F1.4 ZA optic was impressive in its own right, offering a very flat field of focus and minimal aberrations, the 50mm F1.2 appears to exceed it in nearly every respect.

    Click through for a closer look.

    Size and weight

    The FE 50mm F1.2 GM is surprisingly compact and lightweight for what it offers. Next to the Planar T* 50mm F1.4 ZA, it’s nearly the same size and at 778g weighs exactly the same, despite offering half a stop more light gathering and shallow depth-of-field capability. Both lenses are exactly the same length: 108mm. The F1.2 GM has a slightly larger diameter, with the largest section of its barrel measuring 87mm compared to 83.5mm for the F1.4 ZA. This can be explained by the approximately 36% increase in surface area required for an F1.2 aperture compared to F1.4. Still, the filter diameter is a modest 72mm.

    Mount each lens on a camera body, close your eyes, and you won’t be able to tell which lens is attached. Well, save for the nicer rubberized manual focus ring on the F1.2 GM.

    The Sony optic is the smallest and lightest of its competitors, weighing 18% less than Canon’s RF 50mm F1.2 and 30% less (and 30% shorter) than Nikon’s 50mm F1.2 S.

    Build quality and sealing

    Despite its compact size, the 50mm F1.2 GM feels very well-built. Similar to other lenses in the GM-series, it’s rated as ‘dust and moisture resistant’, with seals around all buttons and rings. A rubber gasket around the mount should help protect against moisture and other elements entering the camera body. Sony says that hybrid metal and engineering plastic has been used for durability and to reduce the weight of the lens. Finally, a fluorine coating on the front element should make water, oils, fingerprints and dirt easy to clean off.

    External controls

    The FE 50mm F1.2 GM lens offers a number of external controls. A focus mode switch allows you to quickly switch between auto and manual focus. Two focus hold buttons can be customized to any function available to all other custom buttons on the camera body. The manual focus ring has a nice rubberized texture that makes it easy to grasp and that also differentiates it from the aperture ring. The focus ring offers a linear focus response for intuitive focus pulls in video and stills…

    External controls (continued)

    The aperture ring has a texture similar to the lens barrel but with ‘teeth’ to make it easy to grasp and turn. F-stops are marked in 1/3 EV steps. The aperture ring can be ‘clicked’ or ‘de-clicked’, with the latter setting making it easier to smoothly change the aperture if you wish to vary the depth-of-field while shooting video.

    Optical design

    The optical construction comprises 14 elements in 10 groups. Three extreme aspherical (XA) elements – shown here in orange – help minimize aberrations and reduce the overall size of the optics. These XA elements also play a role in maintaining high resolution across the frame at wide apertures.

    Bokeh

    Enhanced surface precision of the molds used to create those XA elements in the last slide helps ensure smooth bokeh. Pictured at the top left in this image (courtesy of Sony) is a conventional aspherical lens surface, leading to an undesirable circle of confusion (top right). At the bottom left is a surface trace of one of Sony’s XA lens surfaces with 0.01µm surface precision, creating a clean circle of confusion (bottom right) and generally pleasing bokeh.

    Sony claims that spherical aberration has been carefully controlled at the design and manufacturing stages for smooth foreground and background bokeh, and the comparative images Sony showed us against competitors were convincing, though we’ll reserve final judgement for after our own testing.

    Bokeh

    An 11-bladed aperture ensures circular out-of-focus highlights even as you stop down. In the image above you can see perfectly circular discs even after stopping the lens down 1.7 stops, which would be difficult for a lens with 9 or 10 aperture blades to do. Though there are many other factors that contribute to pleasing bokeh, this should help the F1.2 GM pleasantly render out of focus lights and produce smoother, more Gaussian bokeh.

    There’s some mechanical vignetting that leads to cat’s eye effect wide open as you can see on the left, but it mostly disappears as you stop down to F1.8 and is completely gone by F2, as you see on the right.

    Sharpness

    MTF traces provided by Sony suggest impressive performance wide open (leftmost MTF graph), with over 90% contrast retained for higher resolution 30 lp/mm detail (green) at the center of the frame continuing out at least 6mm from the center of the imaging circle. Meanwhile, this 30 lp/mm trace, indicative of lens’ sharpness, never dips below 60% anywhere in the frame, typically hovering nearer to 70% at image peripheries.

    The fact that the sagittal and tangential traces generally closely follow each other indicate that astigmatism is well-controlled, which suggests that bokeh should have a pleasing rendering, which bears out in our initial impressions.

    A quick note on reading these graphs: sagittal or radial traces are solid while tangential traces are dotted. Orange traces are for 10 lp/mm detail, often indicative of lens’ contrast performance. The higher the traces, the better.

    Sharpness

    What does sharpness at F1.2 look like in real-world shooting? Have a look at this image at 100%. Depth of field is razor thin at F1.2, but Sony’s Eye AF is generally accurate enough, and AF speeds with this lens are responsive enough, that hit rates are high. Which brings us to…

    Autofocus

    Two independent floating focus groups allow for close focusing distances, and are driven by four ‘extreme dynamic’ linear motors (two per focus group). We’re told by Sony that these linear motors are very efficient at generating linear motion, as they don’t require any translation of rotational motion to linear motion, as ring-type and stepper motors do. The results speak for themselves, both in this demonstration video from Sony and in our own independent tests that confirm the 50mm F1.2 GM is the fastest-to-focus lens of its type. We measure only a mere 0.65s for the lens to rack from minimum focus distance (0.4m) to infinity, and 0.5s to rack from 0.7m – still a very close working distance for the 50mm focal length – to infinity.

    In comparison, the tiny FE 35mm F1.8 optic takes a similar 0.5s to rack from its minimum focus distance to infinity, while the Nikkor 35mm F1.8 S takes a bit over 1s to do so. And those lenses are more than a stop slower.

    The minimum focus distance of 0.4m (15.8″) yields a maximum magnification of 0.17x. Unfortunately, focus breathing, or a change in magnification with focus distance, is pretty significant and might be an issue for video shooters.

    Longitudinal chromatic aberration

    When it comes to fast lenses of this type, longitudinal chromatic aberration, abbreviated simply as LoCA, is one of the major aberrations we tend to worry about, especially as it tends to be hard to remove in post-processing and can be distracting. It shows up typically as magenta and green fringing in front of and behind the focus plane, respectively, around high contrast objects in the image.

    There is almost no such fringing to speak of with the FE 50mm F1.2 GM, not even after drastic contrast adjustments that would exaggerate any LoCA present in the image, as we have done above (+45 in Adobe Camera Raw).

    Sony tells us the lack of this aberration is due in part to the XA elements, as well as the use of the latest advanced simulation technology.

    Flare, ghosting and sunstars

    Sony’s ‘Nano AR (anti-reflective) II’ coating helps reduce flare as well as the appearance of distracting ‘ghosts’, both caused by reflections off of the internal elements. Nano AR II was developed specifically for application to large optical elements with highly curved surfaces, such as the XA elements increasingly found in Sony’s lenses.

    The image above was shot by pointing the camera at the sun and angling it in such a way as to introduce as much flare and ghosting as possible. Results are impressive: there is very little loss of contrast, and the 2 or 3 visible ghosts (the purple and blue circles at upper right) aren’t too distracting or unsightly, instead appearing rather diffuse.

    The 11-blade aperture produces 22-point sunstars with point light sources in the frame, if you stop the aperture down (pictured here is F11).

    Lateral chromatic aberration

    As is the case with many modern, well corrected lenses, lateral chromatic aberration, which shows up as magenta and cyan or green fringing at image peripheries that does not improve significantly upon stopping down, isn’t much of an issue, particularly because it’s taken care of digitally. Above, the left half of the image is identical to the right half, except that it’s had any lateral CA removed using the included profile embedded in Sony Raw files (processed here in Capture One). Noticeable mostly at high contrast edges, lateral CA simply isn’t an issue after it’s been removed, either in your favorite Raw converter, or in-camera by selecting ‘Auto’ for ‘Chromatic Aberration Comp’ under the ‘Lens Comp’ option in the camera menu.

    This particular example is a crop from an extreme corner of the frame, so even if you leave lateral CA uncorrected – which you shouldn’t – this level of aberration is nothing to concern yourself over.

    Distortion

    We don’t tend to worry about distortion on 50mm prime lenses, but we do find it interesting that there is a noticeable amount of pincushion distortion if you go looking for it by comparing uncorrected vs. corrected images. The left half of this image is corrected while the right half is not; note the slight inward bend of the right edge of the stone wall on the right compared to the straight edge on the left. And the magnification of the rectangular tiles on the left relative to those on right, particularly obvious if you look at the center of the image.

    These artifacts are all due to distortion correction having been applied to the left half of the above image only. For whatever reason, Sony has chosen to leave some optical distortion behind in the optical formula for, albeit very easy, digital correction afterwards. It’s worth noting that, for now, Adobe Camera Raw allows for no such provision for distortion correction – not until Adobe has profiled this particular lens – while Capture One honors the built-in manufacturer distortion correction profile included in Raws shot with the 50mm F1.2 GM. This is one of the reasons we have chosen to include some Capture One conversions in our gallery of this lens.

    Price and availability

    The FE 50mm F1.2 GM is Sony’s 60th E-mount lens, its 40th full-frame E-mount lens, introduced right around the 5th anniversary of the introduction of Sony’s first GM lenses. From our initial testing we’d venture to say the FE 50mm F1.2 GM is probably one of Sony’s sharpest, fastest to focus, and most aberration free primes

    Expect to see it in the wild mid-May 2021, at an MSRP price of $ 1999 USD.

    Articles: Digital Photography Review (dpreview.com)

  • NASA’s ambitious Perseverance rover lands on Mars and sends back its first images

    The first image sent back to Earth from Perseverance following its successful landing on Mars. You can see Perseverance’s shadow in the foreground. Image credit: NASA

    On July 30, 2020, NASA launched its Mars Perseverance Rover on an Atlas V rocket from Cape Canaveral Air Force Station in Florida. Yesterday, February 18, 2021, Perseverance landed successfully on the red planet.

    The 2,260-pound (1,025kg) rover touched down with precision at an ancient river delta site in Jezero Crater. Perseverance is exploring an area where a lake existed nearly 4 billion years ago. The Perseverance mission has numerous objectives, including exploring its geologically diverse landing site, assessing ancient habitability, seeking signs of ancient life, gathering rock and soil samples, and demonstrating technology for future exploration by robots and humans alike.

    Map showing Perseverance’s landing site at the Jezero Crater on Mars. Image credit: NASA

    In the video below, you can see mission control react when Perseverance landed on Mars. Mission control was recorded using an Insta360 Pro 2 camera. When using a compatible browser, you can rotate the camera around mission control. The moment of elation is around the 1:46:00 mark. It’s an emotional moment for the team, and it’s cool to see it captured in 360 degrees.

    Perseverance will spend at least one Martian year (about two Earth years) exploring the landing site region. Onboard are seven instruments, including the MastCam-Z, SuperCam, Planetary Instrument for X-ray Lithochemistry (PIXL), and Scanning Habitable Environments with Raman and Luminescence for Organics and Chemicals (SHERLOC). The Mastcam-Z is an advanced camera system with panoramic and stereoscopic imaging capabilities. The camera, which can zoom, will analyze the minerals of the Martian surface. SuperCam is provides imaging, chemical composition analysis, and mineralogy at a distance.

    Engineers working on Perseverance. Image credit: NASA

    PIXL is an X-ray fluorescence spectrometer and high-resolution imager. PIXL will map the elemental composition of surface materials. SHERLOC provides fine-scale imaging and uses an ultraviolet laser to map mineralogy and organic compounds. SHERLOC is the first UV Raman spectrometer to land on Mars. SHERLOC also includes a high-res color camera for microscopic imaging of Mars’ surface.

    Mission control. Image credit: NASA

    It’s difficult to overstate what an accomplishment it is to land not only NASA’s most ambitious Mars rover yet, but also to do so during a pandemic. As Chelsea Gohd writes for Space.com, ‘This mission didn’t just propel technology and science forward, it demonstrated the incredible Perseverance of the human spirit. Despite everything, the teams at NASA were able to accomplish this incredible feat, which, even in ‘normal times,’ would have been difficult.’ Matt Wallace of NASA’s Jet Propulsion Laboratory (JPL) shared a similar sentiment following Perseverance’s successful landing, ‘It’s been a tough year. It’s been tough to do this mission in this environment. But the team, like they have with every other challenge, has stepped up to it…’

    An illustration of the Perseverance rover. Image credit: NASA

    If NASA had been forced to delay the launch from last July, the launch window would have been pushed back 26 months due to planetary alignment. Perseverance is a $ 2.7B mission, so a more than two-year delay is a tough pill to swallow. Instead, NASA was swift to enact COVID protocols, which came with unique challenges and ultimately allowed the mission to continue as scheduled.

    This is the first image Perseverance sent back to Earth following its successful landing on Mars. Image credit: NASA

    Back to yesterday’s historic landing. Perseverance, or ‘Percy’ as some at mission control call the rover, landed at 3:55 p.m. ET. The landing went smoothly, and Percy wasted no time sending its first image back to Earth. Perseverance then sent a second image, showing the view from the rear of the spacecraft. Both images were captured using onboard ‘hazard cameras,’ and the protective covers were still in place. Future images will be more detailed and impressive, but these are nonetheless important photos. The images will be used to help the team very precisely locate Perseverance’s landing site on the Martian surface.

    The second image shows the view from the rear of Perseverance. Image credit: NASA

    For Perseverance, the next few days on Mars will be spent exploring the area. Its handlers will come to grips with the area and stabilize the rover’s onboard systems, including communications systems that will allow specialized software to be uploaded from Earth.

    A 3D-printed model of MastCam-Z. Image credit: NASA

    Per Space.com, ‘Perservance’s head-like, instrument-laden mast will also be deployed in these first few sols, allowing capture of great new imagery. For example, the rover’s MastCam-Z camera system is scheduled to take its first color panorama on sol 3.’ Mars 2020 deputy project manager Jennifer Trosper says that NASA will do about four days transitioning to new software before digging its teeth into planned scientific endeavors. It’s taken a considerable amount of time, money, and work to get to this point so that the team won’t rush anything.

    As you can see in this diagram, Perseverance includes a lot of onboard instruments and equipment. Among other objectives, the rover will use its instruments to analyze and gather information on the chemical and mineral composition of the Martian surface. Image credit: NASA

    Perseverance includes an onboard helicopter, Ingenuity. The four-pound helicopter will drop from the rover soon and, if all goes well, become the blueprint for future extraterrestrial exploration.

    An illustration of NASA’s new Mars helicopter, Ingenuity. Its maiden flight will mark the first powered flight on another world. Image credit: NASA

    If you want to take part in the celebration of Perseverance’s successful landing, NASA has set up a Mars Photo Booth. You can upload a selfie and place yourself on Mars, in mission control, or in front of a handful of other backgrounds.

    There’s a lot to look forward to over the next Martian year (and hopefully longer). Perseverance includes 23 cameras, so we should be treated to some amazing imagery throughout 2021 and beyond.

    Articles: Digital Photography Review (dpreview.com)

  • 10 Tips for Doing Your First Family Portrait Session

    The post 10 Tips for Doing Your First Family Portrait Session appeared first on Digital Photography School. It was authored by Louise Downham.

    family portrait tips

    Photographs from a good family portrait session will be treasured for many years to come. It’s an incredibly rewarding area of photography, but it can also be a little daunting for new photographers. You need to build a rapport with the family, keep the children on board, and meet the parents’ expectations with gorgeous photographs.

    Family portrait family group

    So where do you start? Which camera settings should you choose?

    Here are some important pointers to make your first session go smoothly, and to help you take great family portraits every time!

    1. Get down on their level

    If you’re photographing children, get down on their eye level. This will lead to far more engaging photographs, and will also help you interact better with the child.

    Family portrait girl with flowers

    2. Use the center AF point to focus

    Different focus settings suit different photographers, but using the center point to focus tends to be the most useful for family portraits. As you take more and more family images, you’ll get a feeling for whether this setting suits you.

    But it’s a great starting point for your first session.

    3. Choose an appropriate aperture

    Your aperture settings will be influenced by the style of photography you prefer.

    As a starting point, many lifestyle family photographers choose to shoot wide open for individual portraits (f/2.2 works really well if you’re after beautiful background bokeh), and around f/5.6 for group shots to ensure everyone is in focus.

    Here’s an example of the effect you get with a wide aperture:

    girl in the park family portrait
    This image was shot at f/2.2.

    And here’s what you get when shooting at f/5.6:

    Family portrait dad and son black and white
    This image was taken at f/5.6.

    4. Choose a fast shutter speed

    Children move fast, and sometimes unpredictably.

    That’s why you generally want a faster shutter speed, at least compared to your average portrait settings. A good place to start is 1/250s, which will still deliver sharp photos, even if children are rolling over or waving.

    If you have a situation where someone is moving very fast, such as a child jumping or racing off into the distance, choose a much faster shutter speed (such as 1/800s).

    family portrait baby held up high
    To capture a sharp shot of this child being tossed in the air, I shot at 1/800s.

    5. Use Auto ISO

    While you’re familiarizing yourself with the apertures and shutter speeds that work for family portrait sessions, consider setting your ISO to Auto. The results are usually satisfactory, and it’s one less thing to think about when shooting.

    As you gain experience and confidence, you can start to select the ISO manually.

    6. Experiment with metering modes

    Certain metering options suit some photographers better than others. As you take more family portraits, you’ll soon see which mode works best for you.

    To start with, try using Spot metering for individual portraits, and Evaluative metering (also known as Matrix metering) for group shots.

    family portrait mother and baby
    This photo was taken using Evaluative metering mode.

    7. Shoot in RAW format

    If you shoot in RAW, you’ll have a far greater range of colors and details in your images – which you can then use for stunning edits in Lightroom.

    8. Use Auto White Balance

    Set your white balance to Auto if you’re doing a location shoot.

    Why?

    Because you’ll be working with a variety of scenes with different lighting, and you won’t have much time to change the white balance as you go.

    Plus, correcting white balance is an easy edit in Lightroom, so you’d be better off spending the time engaging with the family you’re photographing.

    9. Choose your lenses carefully

    Carefully consider which lenses to take to the family portrait session.

    If you don’t have several lenses, consider renting some. This can be surprisingly economical, and it’ll give you the opportunity to try out different focal lengths to see which suit your style of shooting.

    Family portrait baby at 85mm
    This baby photo was taken with an 85mm lens.

    Using several lenses in a family portrait session will also help you vary your compositions, and it’ll ensure you can cope with most locations. A zoom lens like a 24-70mm will give you lots of flexibility, while a popular prime lens for family portraits is an 85mm lens (it creates very flattering photos!). A wide lens, such as a 35mm prime, will help you set the scene.

    As you gain experience photographing families, you’ll develop a sense of which lenses work best for your style. And once you know what you like, I recommend you invest in the highest-quality lenses you can afford.

    family portrait siblings at 35mm
    This sibling photo was taken with a 35mm lens.

    10. Set limits

    Limit yourself to capturing five versions of each scene. This will train your eye to look for the details and expressions you want to capture, and will teach you to include everything you need in a single photograph.

    Family portrait photography tips: Conclusion

    So there you have it – family portraits in a nutshell!

    Practice makes perfect, though, so be prepared to work hard and hone your camera skills. Above all, a friendly and professional attitude combined with careful preparation for each family portrait shoot should make for happy clients and repeat business.

    Do you have any family portrait photos you’re proud of? Share them in the comments below!

    The post 10 Tips for Doing Your First Family Portrait Session appeared first on Digital Photography School. It was authored by Louise Downham.


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