While I started my career on Dell Precision workstations, I have spent the last 10 years with HP workstations under my desk. They have served me well, which is why I used them for five generations. At the beginning of 2016, I was given the opportunity to do a complete hardware refresh for director Scott Waugh’s post house, Vasquez Saloon, to gear up our capabilities to edit the first film shot for Barco Escape and edited fully in 6K. This time we ended up with Dell Precision 7910 workstations under our desks. After having a chance to use them for a year, I decided it was time to share some of my experiences with the top-end Precision workstation.
My 7910 has two Xeon E5-2687W V3 processors, each with 10 cores running at 3.1Ghz. Regardless of which CPU speed you select, always fill both sockets of a high-end workstation, as that doubles your memory bandwidth and enables the last two PCIe slots. Therefore, choose dual 4-core CPUs instead of a single 8-core CPU, if that is the performance level you are after. It has 128GB of DDR4 memory, divided across eight sticks that are 16GB each. Regardless of size, maximum performance is achieved with at least as many sticks of RAM since there are memory channels. This system has four memory channels per CPU, for a total of eight channels. I would recommend at least 64GB of RAM for most editing systems, with more for larger projects. Since we were cutting an entire feature with 6K source files, 128GB was a reasonable choice that served us well.
Both our systems are usually pretty quiet, which is impressive considering how powerful they are. They do generate heat, and I don’t recommend running them in a room without AC, but that was outside of our control. Air-cooled systems are only as effective as the environment they are in, and our situation wasn’t always optimal.
PCIe SSDs are a huge leap forward for storage throughput. This workstation came with a PCIe x16 Gen3 card that supports up to four M.2 NVMe https://en.wikipedia.org/wiki/NVM_Express SSDs at full speed. This allows up to 2500MB/s from each of the four ports, which is enough bandwidth to play back 6K DPXs at 24p in Premiere without dropping frames.
Now capacity is limited with this new expensive technology, topping out at 1TB per $700 card. My 512GB card can only store seven minutes of data at maximum throughput, but for smaller data sets, like VFX shots, this allows a system to cache meaningful quantities of data at very high speed without needing a large array of disks to sustain the required I/Os.
Once we open the tool-less case, one of the obvious visual differences between the Dell and HP solutions is that the Precision 7910 splits the PCIe slots, with two above the CPUs and five below. I assume the benefits to this are shorter circuit paths to the CPUs, and better cooling for hot cards. It hasn’t made a big difference to me, but it is worth noting. Like other dual-socket systems, two of the slots are disabled if the second CPU is not installed.
In my case, I have the SSD card in the top slot, and a Red Rocket-X in the next one down. The Thunderbolt 2 card has to be installed in the slot directly below the CPUs. Then I installed my SAS RAID card and the Intel X540 10GbE NIC, leaving space at the bottom for my Quadro GPU.
Another unique feature of the case layout is that the power supply is located behind the motherboard, instead of at the top or bottom of the system. This places the motherboard at the center of the chassis, with components and cards on one side, and power and storage bays on the other. There are a variety of integrated ports, with dual-Gigabit NICs, PS/2, audio, serial, and six USB ports. The only aspect I found limiting was the total of four USB 3.0 ports, one in front and three in back. I have on occasion been using all of them at once for my external drive transfers, but having a USB 3.0 hub in most of Dell’s monitors can help with this issue. Hopefully, we will see USB-C ports with double that bandwidth in the next generation, as well as integrated Thunderbolt 3 support to free up another PCIe slot.
Besides the slim DVD drive, there are four 3.5-inch hard drive bays with tool-less cages, and a 5.25-inch bay, which can be optionally reconfigured to hold four more 2.5-inch drives. The next model down, the Precision 7810, is similar, but without the top two PCIe slots and only two 3.5-inch drive bays. My drive bays are all empty because the PCIe SSD is my only internal storage, but that means that I could easily add four 8TB SAS drives for 32TB of internal storage with no other accessories required. And I may use the 5.25-inch bay for an LTO drive someday, if I don’t end up getting an external one.
If I do get an external SAS drive, it could be connected to one of the two SFF 8643 connectors on the motherboard. These new connectors each support four channels of 12Gb SAS, with one of them hooked to the 3.5-inch drive back plane by default. The integrated SAS controller supports up to eight channels of SAS or SATA data, capable of RAID-0 or -1. Using RAID-5 or -6 requires a separate dedicated card, in my case the Areca 1883x. At least one integrated M.2 slot would be great to see in the next refresh, as those SSDs become more affordable.
Dell also includes their system management software Dell Precision Optimizer to help you get the maximum performance from the system. It allows users to monitor and chart CPU and GPU use as well as memory and disk usage. It can configure system settings like Hyperthreading, Power Usage and V-Sync, using pre-built profiles for various industry applications. It won’t tune your system for video editing as well as an expert who knows what they are doing, but it is better than doing nothing right out of the box.
Over the last year, we have run two of these workstations on a 6K feature film, taking them right to the limit on a regular basis. It was not uncommon to be encoding R3D dailies to H264 in AME, while rendering a VFX shot in AE, and playing back in Premiere, on both systems simultaneously, pulling data from each other’s local storage arrays over the network. And while I won’t say that they never crashed, stability was not an issue that seriously impacted our workflow or schedule. I have been quite impressed by what we were able to accomplish with them, with very little other infrastructure. The unique split chassis design makes room for a lot of internal storage, and they run reliably and quietly, even when chock full of powerful cards. I am looking forward to getting a couple more solid years of use out of them.
Mike McCarthy is an online editor and workflow consultant with 10 years of experience on feature films and commercials. He has been on the forefront of pioneering new solutions for tapeless workflows, DSLR filmmaking and now multi-screen and surround video experiences. If you want to see more specific technical details about these topics, check out techwithmikefirst.com.
Nvidia has announced a number of new professional graphic cards, filling out their entire Quadro line-up with models based on their newest Pascal architecture. At the absolute top end, there is the new Quadro GP100, which is a PCIe card implementation of their supercomputer chip. It has similar 32-bit (graphics) processing power to the existing Quadro P6000, but adds 16-bit (AI) and 64-bit (simulation). It is intended to combine compute and visualization capabilities into a single solution. It has 16GB of new HBM2 (High Bandwidth Memory) and two cards can be paired together with NVLink at 80GB/sec to share a total of 32GB between them.
This powerhouse is followed by the existing P6000 and P5000 announced last July. The next addition to the line-up is the single-slot VR-ready Quadro P4000. With 1,792 CUDA cores running at 1200MHz, it should outperform a previous-generation M5000 for less than half the price. It is similar to its predecessor the M4000 in having 8GB RAM, four DisplayPort connectors, and running on a single six-pin power connector. The new P2000 follows next with 1024 cores at 1076MHz and 5GB of RAM, giving it similar performance to the K5000, which is nothing to scoff at. The P1000, P600 and P400 are all low-profile cards with Mini-DisplayPort connectors.
All of these cards run on PCIe Gen3 x16, and use DisplayPort 1.4, which adds support for HDR and DSC. They all support 4Kp60 output, with the higher end cards allowing 5K and 4Kp120 displays. In regards to high-resolution displays, Nvidia continues to push forward with that, allowing up to 32 synchronized displays to be connected to a single system, provided you have enough slots for eight Quadro P4000 cards and two Quadro Sync II boards.
Nvidia also announced a number of Pascal-based mobile Quadro GPUs last month, with the mobile P4000 having roughly comparable specifications to the desktop version. But you can read the paper specs for the new cards elsewhere on the Internet. More importantly, I have had the opportunity to test out some of these new cards over the last few weeks, to get a feel for how they operate in the real world.
I was able to run tests and benchmarks with the P6000, P4000 and P2000 against my current M6000 for comparison. All of these test were done on a top-end Dell 7910 workstation, with a variety of display outputs, primarily using Adobe Premiere Pro, since I am a video editor after all.
I ran a full battery of benchmark tests on each of the cards using Premiere Pro 2017. I measured both playback performance and encoding speed, monitoring CPU and GPU use, as well as power usage throughout the tests. I had HD, 4K, and 6K source assets to pull from, and tested monitoring with an HD projector, a 4K LCD and a 6K array of TVs. I had assets that were RAW R3D files, compressed MOVs and DPX sequences. I wanted to see how each of the cards would perform at various levels of production quality and measure the differences between them to help editors and visual artists determine which option would best meet the needs of their individual workflow.
I started with the intuitive expectation that the P2000 would be sufficient for most HD work, but that a P4000 would be required to effectively handle 4K. I also assumed that a top-end card would be required to playback 6K files and split the image between my three Barco Escape formatted displays. And I was totally wrong.
Besides when using the higher-end options within Premiere’s Lumetri-based color corrector, all of the cards were fully capable of every editing task I threw at them. To be fair, the P6000 usually renders out files about 30 percent faster than the P2000, but that is a minimal difference compared to the costs. Even the P2000 was able to playback my uncompressed 6K assets onto my array of Barco Escape displays without issue. It was only when I started making heavy color changes in Lumetri that I began to observe any performance differences at all.
Color correction is an inherently parallel, graphics-related computing task, so this is where GPU processing really shines. Premiere’s Lumetri color tools are based on SpeedGrade’s original CUDA processing engine, and it can really harness the power of the higher-end cards. The P2000 can make basic corrections to 6K footage, but it is possible to max out the P6000 with HD footage if I adjust enough different parameters. Fortunately, most people aren’t looking for more stylized footage than the 300 had, so in this case, my original assumptions seem to be accurate. The P2000 can handle reasonable corrections to HD footage, the P4000 is probably a good choice for VR and 4K footage, while the P6000 is the right tool for the job if you plan to do a lot of heavy color tweaking or are working on massive frame sizes.
The other way I expected to be able to measure a difference between the cards would be in playback while rendering in Adobe Media Encoder. By default, Media Encoder pauses exports during timeline playback, but this behavior can be disabled by reopening Premiere after queuing your encode. Even with careful planning to avoid reading from the same disks as the encoder was accessing from, I was unable to get significantly better playback performance from the P6000 compared to the P2000. This says more about the software than it says about the cards.
The largest difference I was able to consistently measure across the board was power usage, with each card averaging about 30 watts more as I stepped up from the P2000 to the P4000 to the P6000. But they all are far more efficient than the previous M6000, which frequently sucked up an extra 100 watts in the same tests. While “watts” may not be a benchmark most editors worry too much about, among other things it does equate to money for electricity. Lower wattage also means less cooling is needed, which results in quieter systems that can be kept closer to the editor without being distracting from the creative process or interfering with audio editing. It also allows these new cards to be installed in smaller systems with smaller power supplies, using up fewer power connectors. My HP Z420 workstation only has one 6-pin PCIe power plug, so the P4000 is the ideal GPU solution for that system.
It appears that we have once again reached a point where hardware processing capabilities have surpassed the software capacity to use them, at least within Premiere Pro. This leads to the cards performing relatively similar to one another in most of my tests, but true 3D applications might reveal much greater differences in their performance. Further optimization of CUDA implementation in Premiere Pro might also lead to better use of these higher-end GPUs in the future.
Mike McCarthy is an online editor and workflow consultant with 10 years of experience on feature films and commercials. He has been on the forefront of pioneering new solutions for tapeless workflows, DSLR filmmaking and now multiscreen and surround video experiences. If you want to see more specific details about performance numbers and benchmark tests for these Nvidia cards, check out techwithmikefirst.com.
What do you need to know about the latest pro laptop from Apple? Well, the MacBook Pro is fast and light; the new Touch Bar is handy and sharp but not fully realized; the updated keys on the keyboard are surprisingly great; and working with ProRes QuickTime files in resolutions higher than 1920×1080 inside of FCP X, or any NLE for that matter, is blazing fast.
When I was tasked with reviewing the new MacBook Pro, I came into it with an open mind. After all, I did read a few other reviews that weren’t exactly glowing, but I love speed and innovation among professional workstation computers, so I was eager to test it myself.
I am pretty open-minded when it comes to operating systems and hardware. I love Apple products and I love Windows-based PCs. I think both have their place in our industry, and to be quite honest it’s really a bonus for me that I don’t rely heavily on one OS or get too tricked by the Command Key vs. Windows/Alt Key.
Let’s start with the call I had with the Apple folks as they gave me the lowdown on the new MacBook Pro. The Apple reps were nice, energetic, knowledgeable and extremely helpful. While I love Apple products, including this laptop, it’s not the be-all-end-all.
The Touch Bar is nice, but not a revolution. It feels like the first step in an evolution, a version 1 of an innovation that I am excited to see more of in later iterations. When I talked with the Apple folks they briefed me on what Tim Cook showed off in the reveal: emoji buttons, wide gamut display, new speakers and USB-C/Thunderbolt 3 connectivity.
They had an FCPX expert on the call, which was nice considering I planned on reviewing the MacBook Pro with a focus on the use of nonlinear editing apps, such as Adobe Premiere Pro, Avid Media Composer and Blackmagic’s Resolve. Don’t get me wrong, FCPX is growing on me — it’s snappy jumping around the timeline with ProRes 5K footage; assigning roles are something I wish every other app would pick up on; and the timeline is more of a breeze to use with the latest update.
The other side to this is that in my 13 years of working in television post I have never worked on a show that primarily used FCP or FCPX to edit or finish on. This doesn’t mean I don’t like the NLE, it simply means I haven’t relied on it in a professional working environment. Like I said, I really like the road it’s heading down, and if they work their way into mainstream broadcast or streaming platforms a little more I am sure I will see it more frequently.
Furthermore, with the ever-growing reduction in reliance on groups of editors and finishing artists apps like FCPX are poised to shine with their innovation. After all that blabbering, in this review I will touch on FCPX, but I really wanted to see how the MacBook Pro performed with the pro NLEs I encounter the most.
Let’s jump into the specs. I was sent a top-of-the-line 15-inch MacBook Pro with Touch Bar, which costs $3,499 if configured online. It comes with a quad/-core Intel Core i7 2.9GHz (up to 3.8 GHz using Turbo Boost) processor, 16GB of 2133MHz memory, 1TB PCI-e SSD hard drive and Radeon Pro 460 with 4GB of memory. It’s loaded. I think the only thing that can actually be upgraded beyond this configuration would be to include a 2TB hard drive, which would add another $800 to the price tag.
Physically, the MacBook Pro is awesome — very sturdy, very thin and very light. It feels great when holding it and carrying it around. Apple even sent along a Thunderbolt 3 (USB-C) to Thunderbolt 2 adapter, which costs an extra $29 and a USB-C to Lightning Cable that costs an extra $29.
So yes, it feels great. Apple has made a great new MacBook Pro. Is it worth upgrading if you have a new-ish MacBook Pro at home already? Probably not, unless the Touch Bar really gets you going. The speed is not too far off from the previous version. However, if you have a lot of Thunderbolt 3/USB-C-connected peripherals, or plan on moving to them, then it is a good upgrade.
I ran some processor/graphics card intensive tests while I had the new MacBook Pro and came to the conclusion that FCPX is not that much faster than Adobe Premiere Pro CC 2017 when working with non-ProRes-based media. Yes, FCPX tears through ProRes QuickTimes if you already have your media in that format. What about if you shoot on a camera like the Red and don’t want to transcode to a more edit-friendly codec? Well, that is another story. To test out my NLEs, I grabbed a sample Red 6K 6144×3160 23.98fps clip from the Red sample footage page, strung out a 10-minute-long sequence in all the NLEs and exported both a color-graded version and a non-color-graded version as ProRes HQ QuickTimes files matching the source file’s specs.
In order to work with Red media in some of the NLEs, you must download a few patches: for FCPX you must install the Red Apple workflow installer and for Media Composer you must install the Red AMA plug-in. Premiere doesn’t need anything extra.
Test 1: Red 6K 6144×3160 23.98fps R3D — 10-minute sequence (no color grade or FX) exported as ProRes HQ matching the source file’s specs. Premiere > Media Encoder = 1 hour, 55 minutes. FCPX = 1 hour, 57 minutes. Media Composer = two hours, 42 minutes (Good news, Media Composer’s interface and fonts display correctly on the new display).
You’ll notice that Resolve is missing from this list and that is because I installed Resolve 12.5.4 Studio but then realized my USB dongle won’t fit into the USB-C port — and I am not buying an adapter for a laptop I do not get to keep. So, unfortunately, I didn’t test a true 6K ProRes HQ export from Resolve but in the last test you will see some Resolve results.
Overall, there was not much difference in speeds. In fact, I felt that Premiere Pro CC 2017 played the Red file a little smoother and at a higher frames-per-second count. FCPX struggled a little. Granted a 6K Red file is one of the harder files for a CPU to process with no debayer settings enabled, but Apple touts this as a MacPro semi-replacement for the time being and I am holding them to their word.
Test 2: Red 6K 6144×3160 23.98fps R3D — 10-minute color-graded sequence exported as ProRes HQ matching the source files specs. Premiere > Media Encoder = one hour, 55 minutes. FCPX = one hour, 58 minutes. Media Composer = two hours, 34 minutes.
It’s important to note that the GPU definitely helped out in both Adobe Premiere and FCPX. Little to no extra time was added on the ProRes HQ export. I was really excited to see this as sometimes without a good GPU — resizing, GPU-accelerated effects like color correction and other effects will slow your system to a snail’s pace if it doesn’t fully crash. Media Composer surprisingly speed up its export when I added the color grade as a new color layer in the timeline. By adding the color correction layer to another layer Avid might have forced the Radeon to kick in and help push the file out. Not really sure what that is about to be honest.
Test 3: Red 6K 6144×3160 23.98fps R3D — 10-minute color-graded sequence resized to 1920×1080 on export as ProRes HQ. Premiere > Media Encoder = one hour, 16 minutes. FCPX = one hour, 14 minutes. Media Composer = one hour, 48 minutes. Resolve = one hour, 16 minutes
So after these tests, it seems that exporting and transcoding are all about the same. It doesn’t really come as too big of a surprise that all the NLEs, except for Media Composer, processed the Red file in the same amount of time. Regardless of the NLE, you would need to knock the debayering down to a half or more to start playing these clips at realtime in a timeline. If you have the time to transcode to ProRes you will get much better playback and rendering speed results. Obviously, transcoding all of your files to a codec, like ProRes or Avid DNX, takes way more time up front but could be worth it if you crunched for time on the back end.
In addition to Red 6K files, I also tested ProRes HQ 4K files inside of Premiere and FCPX, and both played them extremely smoothly without hiccups, which is pretty amazing. Just a few years ago I was having trouble playing down 10:1 compressed files in Media Composer and now I can playback superb-quality 4K files without a problem, a tremendous tip of the hat to technology and, specifically, Apple for putting so much power in a thin and light package.
While I was in the mood to test speeds, I hooked up a Thunderbolt 2 SSD RAID (OWC Thunderbay 4 mini) configured in RAID-0 to see what kind of read/write bandwidth I would get running through the Apple Thunderbolt 3 to Thunderbolt 2 adapter. I used both AJA System Test as well as the Blackmagic Disk Speed Test. The AJA test reported a write speed of 929MB/sec. and read speed of 1120MB/sec. The Blackmagic test reported a write speed of 683.1MB/sec. and 704.7MB/sec. from different tests and a read speed of 1023.3MB/sec. I set the test file for both at 4GB. These speeds are faster than what I have previously found when testing this same Thunderbolt 2 SSD RAID on other systems.
For comparison, the AJA test reported a write speed of 1921MB/sec. and read speed of 2134MB/sec. when running on the system drive. The Blackmagic test doesn’t allow for testing on the system drive.
What Else You Need to Know
So what about the other upgrades and improvements? When exporting these R3D files I noticed the fan kicked on when resizing or adding color grading to the files. Seems like the GPU kicked on and heated up which is to be expected. The fan is not the loudest, but it is noticeable.
The battery life on the new MacBook Pro is great when just playing music, surfing the web or writing product reviews. I found that the battery lasted about two days without having to plug in the power adapter. However, when exporting QuickTimes from either Premiere or FCPX the battery life dropped — a lot. I was getting a battery life of one hour and six minutes, which is not good when your export will take two hours. Obviously, you need to plug in when doing heavy work; you don’t really have an option.
This leads me to the new USB-C/Thunderbolt 3 ports — and, yes, you still have a headphone jack (thank goodness they didn’t talk with the iPhone developers). First off, I thought the MagSafe power adapter should have won a Nobel Peace Prize. I love it. It must be responsible for saving millions of dollars in equipment when people trip over a power cord — gracefully disconnecting without breaking or pulling your laptop off the table. However, I am disappointed Apple didn’t create a new type of MagSafe cable with the USB-C port. I will miss it a lot. The good news is you can now plug in your power adapter to either side of the MacBook Pro.
Adapters and dongles will have to be purchased if you pick up a new MacBook Pro. Each time I used an external peripheral or memory card like an SD card, Tangent Ripple Color Correction panel or external hard drive, I was disappointed that I couldn’t plug them in. Nonetheless, a good Thunderbolt 3 dock is a necessity in my opinion. You could survive with dongles but my OCD starts flaring up when I have to dig around my backpack for adapters. I’m just not a fan. I love how Apple dedicated themselves to a fast I/O like USB-C/Thunderbolt 3, but I really wish they gave it another year. Just one old-school USB port would have been nice. I might have even gotten over no SD card reader.
The Touch Bar
I like it. I would even say that I love it — in the apps that are compatible. Right now there aren’t many. Adobe released an update to Adobe Photoshop that added compatibility with the Touch Bar, and it is really handy especially when you don’t have your Wacom tablet available (or a USB dongle to attach it). I love how it gives access to so many levels of functionality to your tools within your immediate reach.
It has super-fast feedback. When I adjusted the contrast on the Touch Bar I found that the MacBook Pro was responding immediately. This becomes even more evident in FCPX and the latest Resolve 12.5.4 update. It’s clear Apple did their homework and made their apps like Mail and Messages work with the Touch Bar (hence emojis on the Touch Bar). FCPX has a sweet ability to scrub the timeline, zoom in to the timeline, adjust text and more from just the Touch Bar — it’s very handy, and after a while I began missing it when using other computers.
In Blackmagic’s latest DaVinci Resolve release, 12.5.4, they have added Touch Bar compatibility. If you can’t plug in your color correction panels, the Touch Bar does a nice job of easing the pain. You can do anything from contrast work to saturation, even adjust the midtones and printer lights, all from the Touch Bar. If you use external input devices a lot, like Wacom tablets or color correction panels, the Touch Bar will be right up your alley.
One thing I found missing was a simple application launcher on the Touch Bar. If you do pick up the new MacBook Pro with Touch Bar, you might want to download Touch Switcher, a free app I found via 9to5mac.com that allows you to have an app launcher on your Touch Bar. You can hide the dock, allowing you more screen real estate and the efficient use of the Touch Bar to launch apps. I am kind of surprised Apple didn’t make something like this standard.
From a purely superficial and non-scientific point of view, the newly updated P3-compatible wide-gamut display looks great… really great, actually. The colors are rich and vibrant. I did a little digging under the hood and noticed that it is an 8-bit display (data that you can find by locating the pixel depth in the System Information > Graphics/Display), which might limit the color gradations when working in a color space like P3 as opposed to a 10-bit display displaying in a P3 color space. Simply, you have a wider array of colors in P3 but a small amount of color shades to fill it up.
The MacBook Pro display is labeled as 32-bit color meaning the RGB and Alpha channels each have 8 bits, giving a total of 32 bits. Eight-bit color gives 256 shades per color channel while 10-bit gives 1,024 shades per channel, allowing for much smoother transitions between colors and luminance values (imagine a sky at dusk going smoothly from an orange to light blue to dark blue — the more colors per channel allows for a smoother gradient between lights and darks). A 10-bit display would have 30-bit color with each channel having 10 bits.
I tried to hook up a 10-bit display, but the supplied Thunderbolt 3 to Thunderbolt 2 dongle Apple sent me did not work with the mini display port. I did a little digging and it seems people are generally not happy that Apple doesn’t allow this to work, especially since Thunderbolt 2 and mini DisplayPort are the same connection. Some people have been able to get around this by hooking up their display through daisy chaining something like a Thunderbolt 2 RAID.
While I couldn’t directly test an external display when I had the MacBook Pro, I’ve read that people have been able to push 10-bit color out of the USB-C/Thunderbolt 3 ports to an external monitor. So as long as you are at a desk with a monitor you can most likely have 10-bit color output from this system.
I reached out to Apple on the types of adapters they recommend for an external display and they suggest a USB-C to DisplayPort adapter made by Aukey. It retails for $9.99. They also recommend the USB-C to DisplayPort cable from StarTech, which retails for $39.99. Make sure you read the reviews on Amazon because the experience people have with this varies wildly. I was not able to test either of these so I cannot give my personal opinion.
In the end, the new MacBook Pro is awesome. If you own a recent release of the MacBook Pro and don’t have $3,500 to spare, I don’t know if this is the update you will be looking for. If you are trying to find your way around going to a Windows-based PC because of the lack of Mac Pro updates, this may ease the pain slightly. Without more than 16GB of memory and an Intel Xeon or two, however, it might actually slow you down.
The battery life is great when doing light work, one of the longest batteries I’ve used on a laptop. But when doing the heavy work, you need to be near an outlet. When plugged into that outlet be careful no one yanks out your USB-C power adapter as it might throw your MacBook Pro to the ground or break off inside.
I really do love Apple products. They typically just work. I didn’t even touch on the new Touch ID Sensor that can immediately switch you to a different profile or log you in after waking up the MacBook Pro from sleep. I love that you can turn the new MacBook Pro on and it simply works, and works fast.
The latest iteration of FCPX is awesome as well, and just because I don’t see it being used a lot professionally doesn’t mean it shouldn’t be. It’s a well-built NLE that should be given a fairer shake than it has been given. If you are itching for an update to an old MacBook Pro, don’t mind having a dock or carrying around a bunch of dongles, then the 2016 MacBook Pro with the Touch Bar is for you.
The new MacBook Pro chews through ProRes-based media from 1920×1080 to 4K, 6K and higher will play but might slow down. If you are a Red footage user this new MacBook Pro works great, but you still might have to knock the debayering down a couple notches.
Brady Betzel is an Emmy-nominated online editor at Margarita Mix in Hollywood, working on Life Below Zero and Cutthroat Kitchen. You can email Brady at email@example.com. Follow him on Twitter @allbetzroff.
With the lukewarm reaction of the professional community to the new Apple MacBook Pro, there are many creative professionals who are seriously — for the first time in their careers — considering whether or not to jump into a Windows-based world.
I grew up using an Apple II GS from 1986 (I was born in 1983, if you’re wondering), but I always worked on both Windows and Apple computers. I guess my father really instilled the idea of being independent and not relying on one thing or one way of doing something — he wanted me to rely on my own knowledge and not on others.
Not to get too philosophical, but when he purchased all the parts I needed to build my own Windows system, it was incredibly gratifying. I would have loved to have built my own Apple system, but obviously never could. That is why I am so open to computer systems of any operating system software.
If you are deciding whether or not to upgrade your workstation and have never considered solutions other than HP, Dell or Apple, you will want to read what I have to say about Lenovo‘s latest workstation, the P410.
When I set out on this review, I didn’t have any Display Port-compatible monitors and Lenovo was nice enough to send their beautiful Think Vision Pro 2840m — another great piece of hardware.
I want to jump right into the specs of the ThinkStation P410. Under the hood is an Intel Xeon E5-1650 v4, which in plain terms is a 6-core 3.6GHz 15MB CPU that can reach all the way up to 4.0GHz if needed using Intel’s Turbo Boost technology. The graphics card is a medium-sized monster — the Nvidia Quadro M4000 with 8GB of GDDR5 memory and 1664 CUDA cores. It has 4 DisplayPort 1.2 ports to power those four 30-bit 4096×2160 @60Hz displays you will run when editing and color correcting.
If you need more CUDA power you could step up to the Nvidia M5000, which runs 2048 CUDA cores or the M6000, which runs 3072 CUDA cores, but that power isn’t cheap (and as of this review they are not even an option from Lenovo in the P410 customization — you will probably have to step up to a higher model number).
There is 16GB of DD4-2400 ECC memory, 1TB 2.5-inch SATA 6Gb/s SSD (made by Macron), plus a few things like a DVD writer, media card reader, keyboard and mouse. At the time I was writing this review, you could configure this system for a grand total of $2,794, but if you purchase it online at shop.lenovo.com it will cost a little under $2,515 with some online discounts. As I priced this system out over a few weeks I noticed the prices changed, so keep in mind it could be higher. I configured a similar style HP z440 workstation for around $3,600 and a Dell Precision Tower 5000 for around $3,780, so Lenovo’s prices are on the low end for major-brand workstations.
For expansion (which Windows-based PCs seem to lead the pack in), you have a total of four DIMM slots for memory (two are taken up already by two 8GB sticks), four PCIe slots and four hard drive bays. Two of the hard drive bays are considered Flex Bays, which can be used for hard drives, hard drive + slim optical drive or something like front USB 3.0 ports.
On the back there are your favorite PS/2 keyboard port and mouse port, two USB 2.0 ports, four USB 3.0 ports, audio in/out/mic and four DisplayPorts.
I first wanted to test the P410’s encoding speed when using Adobe Media Encoder. I took a eight-minute, 30 second 1920×1080 23.98fps ProRes HQ QuickTime that I had filmed using a Blackmagic Pocket Cinema Camera, did a quick color balance in Adobe Premiere Pro CC 2017 using the Lumetri Color Correction tools and exported a Single Pass, variable bit rate 25Mb/s H.264 using Media Encoder. Typically, CUDA cores kick in when you use GPU-accelerated tools like transitions, scaling in Premiere and when you export files with GPU effects such as Lumetri Color tools. Typically, when exporting from tools, like Adobe Premiere Pro CC or Adobe Media Encoder, the GPU acceleration kicks in only if you’ve applied GPU-accelerated effects, color correction with something like Lumetri (which is GPU accelerated) or a resize effect. Otherwise if you are just transcoding from one codec to another the CPU will handle the task.
In this test, it took Media Encoder about six minutes to encode the H.264 when Mercury Playback Engine GPU Acceleration (CUDA) was enabled. Without the GPU acceleration enabled it took 14 minutes. So by using the GPU, I got about a 40 percent speed increase thanks to the power of the Nvidia Quadro M4000 with 8GB of GDDR5 RAM.
For comparison, I did the same test on a newly released MacBook Pro with Touch Bar i7 2.9Ghz Quad Core, 16GB of 2133 MHz LPDDR3 memory and AMD Radeon Pro 460 4GB of RAM (uses OpenCL as opposed to CUDA); it took Media Encoder about nine minutes using the GPU.
Another test I love to run uses Maxon’s Cinebench, which simply runs real-world scenarios like photorealistic rendering and a 3D car chase. This taxes your system with almost one million polygons and textures. Basically, it makes your system do a bunch of math, which helps in separating immature workstations from the professional ones. This system came in around 165 frames per second. In comparison to other systems, with similar configurations to the P410, it placed first or second. So it’s fast.
Lenovo Performance Tuner
While the low price is what really sets the P410 apart from the rest of the pack, Lenovo has recently released a hardware tuning software program called Lenovo Performance Tuner. Performance Tuner is a free app that helps to focus your Lenovo workstation on the app you are using. For instance, I use Adobe CC a lot at home, so when I am working in Premiere I want all of my power focused there with minimal power focused on background apps that I may not have turned off — sometimes I let Chrome run in the background or I want to jump between Premiere, Resolve and Photoshop. You can simply launch Performance Tuner and click the app you want to launch in Lenovo’s “optimized” state. You can go further by jumping into the Settings tab and customize things like Power Management Mode to always be on Max Performance. It’s a pretty handy tool when you want to quickly funnel all of your computing resources to one app.
The Think Vision Pro Monitor
Lastly, I wanted to quickly touch on the Think Vision Pro 2840m LED backlit LCD monitor Lenovo let me borrow for this review. The color fidelity is awesome and can work at a resolution up to 3840×2160 (UHD, not full 4K). It will tilt and rotate almost any way you need it to, and it will even go full vertical at 90 degrees.
When working with P410 I had some problems with DisplayPort not always kicking in with the monitor, or any monitor for that matter. Sometimes I would have to unplug and plug the DisplayPort cable back in while the system was on for the monitor to recognize and turn on. Nonetheless, the monitor is awesome at 28 inches. Keep in mind it has a glossy finish so it might not be for you if you are near a lot of light or windows — while the color and brightness punch through, there is a some glare with other light sources in the room.
In the end, the Lenovo ThinkStation P410 workstation is a workhorse. Even though it’s at the entry level of Lenovo’s workstations, it has a lot of power and a great price. When I priced out a similar system using PC Partpicker, it ran about $2,600 — you can check out the DIY build I put together on PCPartpicker.com: https://pcpartpicker.com/list/r9H4Ps.
A drawback of DIY custom builds though is that they don’t include powerful support, a complete warranty from a single company or ISV certifications (ISV = Independent Software Vendors). Simply, ISVs are the way major workstation builders like HP, Dell and Lenovo test their workstations against commonly used software like Premiere Pro or Avid Media Composer in workstation-focused industries like editing or motion graphics.
One of the most misunderstood benefits of a workstation is that it’s meant to run day and night. So not only do you get enterprise-level components like Nvidia Quadro graphics cards and Intel Xeon CPUs, the components are made for durability as well as performance. This way there is little downtime, especially in mission-critical environments. I didn’t get to run this system for months constantly, but I didn’t see any sign of problems in my testing.
When you buy a Lenovo workstation it comes with a three-year on-site warranty, which covers anything that goes wrong with the hardware itself, including faulty workmanship. But it won’t cover things like spills, drops or electrical surges.
I liked the Lenovo ThinkStation P410. It’s fast, does the job and has quality components. I felt that it lacked a few of today’s necessary I/O ports like USB-C/Thunderbolt 3.
The biggest pro for this workstation is the overwhelmingly low price point for a major brand workstation like the ThinkStation P410. Check out the Lenovo website for the P410 and maybe even wander into the P910 aisle, which showcases some of the most powerful workstations they make.
Check out this video I made that gives you a closer look at (and inside) the workstation.
Brady Betzel is an Emmy-nominated online editor at Margarita Mix in Hollywood, working on Life Below Zero and Cutthroat Kitchen. You can email Brady at firstname.lastname@example.org. Follow him on Twitter @allbetzroff.