This page will provide you with everything you need to know about industrial computers and PCs, as well as the best source for industrial computers in the United States.
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An industrial computer is, as the name suggests, a computer for industrial workloads, such as automation, manufacturing (production of goods), and autonomous robotics. Industrial PCs are often preferred for industrial workloads because they tend to be made from industrial-grade components, which are more dependable and durable than their consumer counterparts and are pushed to extremes for mission-critical reliability. As such, industrial computer hardware tends to be somewhat more expensive than regular desktop PCs. However, the total cost of ownership proves to be a major return on investment in terms of reliability and performance.
Industrial computers, such as those provided by Premio, are great for industrial workloads because they are built to operate in harsh environments, so if you need to deploy systems in an environment that is extremely cold, extremely hot, or tends to be subjected to frequent shocks and vibrations, you should choose an industrial option as they tend to be engineered and built to withstand harsh environments.
Although one might not need an industrial computer on their desk at home, these robust computing solutions are deployed on a large scale for enterprise applications and workloads in IoT.
The key characteristics of rugged industrial computers are that they are designed and built to provide reliability, stability, and efficiency regardless of the environment in which they are placed. They are especially great to reduce the downtime that you would typically expect from a consumer-grade PC that was not designed for industrial workloads.
Industrial PCs are used in industrial settings for process control and inspection of goods or components and data acquisition. Industrial computers come with I/O cards that can be plugged in to control the various types of equipment that you may find in an industrial setting. Additionally, serial ports, analog ports, and digital ports can be added to Premio’s industrial computers as required by your specific applications.
Learn more about the most popular I/O Ports used in industrial computing.
Industrial computers are different from regular desktop computers in that they are used in very specific ways depending on the tasks you want them to perform and the environment in which they are deployed. Although it may seem that industrial PCs are the same are regular PCs because they have the same main components, such as CPU, Ram Memory, Hard Drives and Graphics Cards, they are much different in terms of use cases and the environments in which they can operate.
This is so because the parts used in them are industrial-grade parts, and the systems are designed in a manner that enables them to withstand a wider temperature range, wider input voltage spikes, power protection, ingress protection, and shock and vibration, just to name a few.
Also, these purpose-built computer systems are built in a way that allows them to withstand tremendous amounts of shock and vibration, something that regular PCs will not be able to do for prolonged periods of time. Also, these computers adhere to strict standards and guidelines for electronics for military deployments.
For example, a popular specification to look for in industrial computers is its compliance with MIL-SPEC-810G in regards to shock and vibration; these are 50G Shock & 5GRMs vibration.
Industrial computers must be reliable, meaning they must be able to perform optimally 24/7 because downtime in an industrial setting usually translates into lost revenue.
We will now explain some of the main differences between industrial computers and regular computers in more detail.
The most significant difference between industrial computers and regular desktop computers is the build quality. Industrial computers are often deployed in environments where the computer systems are exposed to extreme heat, extreme cold, debris, dust, vibrations, and shocks. As such, rugged industrial computers are designed and built to be able to withstand such conditions.
For example, at Premio, we pay special attention to the materials used in the outer enclosure of our computers; we reinforce our motherboards to ensure that they can withstand frequent shocks and vibrations. Also, we’ve eliminated all cables from the system to ensure that our industrial computers can withstand frequent shocks and vibrations without having any cables come loose.
Additionally, we have eliminated fans from our fanless industrial PCs to reduce the amount of moving parts that could fail, as well as eliminated the introduction of dust and debris into the system. Failed and failing fans are the leading reasons why so many computers fail. So, by eliminating them, we’ve made our computer systems much more reliable, requiring less maintenance.
Learn more about how passive cooling works and fanless computing designs.
The second main difference between regular computers vs. industrial computers is that industrial computers are made from industrial-grade components. Industrial grade components are more rugged than consumer parts because they have been rigorously tested to ensure that they can achieve optimal performance even when they’re deployed in harsh environments.
At Premio, everything from the PCB motherboards to the electrical soldered capacitors is specifically chosen and integrated into the system to ensure that our industrial PCs can reliably operate in harsh environments that are not friendly to computer systems.
Additionally, another major benefit of using industrial-grade components is the longevity of the lifecycle. For example, Intel’s Internet of Things Group’s embedded roadmap for their silicon commits to a 15-year lifecycle for support and availability. This is a huge benefit for industrial applications that require long life and a locked bill of material for ultimate reliability.
Industrial computers are designed with dust and debris protection in mind. This is so because industrial computers are often deployed in areas, such as factories, kiosk machines, cabinets, vehicles, or mines, where this is a large amount of dust and debris that can damage the computer systems.
As such, many industrial computers have a fanless design that does not have any vent holes in the enclosure. The fanless design of industrial computers permits them to operate in dusty and debris-filled environments because the system is completely closed off from the outside environment.
The removal of fans means that air does not need to be circulated inside the system, which allows industrial pc makers to manufacture their systems without any openings. This enables fanless systems to operate in such environments without the operator having to worry about dust and debris making their way into the system, damaging internal components.
This is different from regular desktop PCs that use fans to circulate air throughout the system to cool it down. Active cooling can often damage computers because it introduces dust and debris into the system, causing fans and other components to fail.
Industrial computers are more flexible than personal computers in that they can withstand a wider range of temperatures. For example, a regular desktop PC can operate at a temperature range between 10°C to 50°C without experiencing any problems.
However, fanless industrial computers can run optimally at temperature that range between -40°C to 85°C. Industrial fanless PCs are able to operate at such low temperatures because the closed system is passively cooled via the use of heatsinks. Heatsinks make fanless industrial computers possible because they transfer heat away from the internal heat-generating components to the body of the computer, which dissipates the heat into the surrounding air.
Another advantage that industrial computers have over standard personal computers is that industrial PCs are designed and built to withstand frequent and continuous shocks and vibrations. Systems that are not built to withstand shocks and vibrations will not last in an environment where they will be moved around and frequently subjected to jolts and shocks. This is so because the motherboards could flex, or connecters may become loose. That’s why we’ve built our industrial computers using reinforced mechanical designs and eliminated the use of cables, which eliminates the possibility that a cable may come loose from its connection. Our current rugged industrial computers are able to handle 5GRMs of vibrations, as well as 50Gs of shock in accordance with the MIL-STD-810G Standard, as mentioned earlier.
When it comes to expandability and longevity, industrial computers are much more expandable than regular desktop computers and therefore have a lengthier lifespan. Many of the components that are found in industrial PCs can last up to 15 years, providing you with a long-term embedded computer solution that you just can’t get with regular PCs.
Industrial PCs are sought after for industrial workloads because they are able to manage a variety of data inputs that transmit valuable data for real-time decision making. Industrial PCs can take in all of these inputs thanks to the variety of input and output (I/O) ports that you can configure them with. We will now discuss the different I/O ports that you can spec your system with.
Serial ports are by far the most commonly used port in industrial computers. They enable communication between your industrial computer and legacy devices that are still used in manufacturing plants today. Although serial ports do not have the fastest data transfer rates, they are still widely used today because of the flexibility and reliability that they offer. Regardless of which legacy serial port you’re using, your industrial PC can be specked with the following ports: RS-232, RS-422, RS-485. The type of port that you will need depends on the application and devices that you want to connect to.
USB ports are the standard port for many devices thanks to the increased bandwidth that they offer. For example, current industrial PCs now have USB 3.1 Gen 2 ports that can connect to smart IoT sensors and pass data at 10Gbps. The second benefit of using USB ports is that they come equipped with intelligent power management capabilities that permit you to send devices to sleep when they’re not in use. That said, we understand that those who deploy our products often require both serial ports and USB ports, and that’s why at Premio, we offer you the ability to spec your industrial PC system with both serial and USB ports in scalable offerings.
The third great thing about industrial systems is that they come with different display outputs that include VGA, HDMI, DVI, and DP. We understand that many still use the VGA port because many legacy devices still use analog signals instead of digital ones. So we’ve continued to offer it on our industrial PC systems. However, if you want the best resolution and highest refresh rate, you have the option of using the HDMI and DP ports.
DIO refers to digital I/O, and GPIO stands for General Purpose I/O. These ports are used for electrical devices or sensors that do not have a common interface. They use two digital signals with two possible values represented as On or Off. This makes these ports great for sensing switch contacts in industrial settings where On/Off signals are often sent and received.
Lan Ports allow data transfer rates of up to 10GbE per LAN port. These ports are often used on industrial computers because they provide uplink and downlink for data from network infrastructure, providing the necessary data transmission from modems, routers, switches, and other computers across your network. RJ45 LAN ports can also be configured with PoE (802.3at).
Industrial PCs are often used because they can be equipped with lockable M12 connectors that are dust and water-resistant. These connectors were designed for rugged environments where computer equipment may be subjected to dust and water. Consumer-grade connectors will probably fail within a short period of time if used in such environments. The M12 connector is one of the most sought-after connectors in environments such as vehicle and transportation applications like railway, food processing, and beverage manufacturing for its reliability and durability. The main feature of this connector is that it can lock into place and has an ingress protection rating.
Industrial computing hardware is sought after because of its ability to save you money on energy costs. Our computer systems can be used to control factory equipment so that it performs optimally while using the least amount of energy possible, which means that less energy is wasted, thereby cutting down your energy costs. Also, since many industrial PCs are often deployed in scenarios of decentralized and unstable power, engineers focus their efforts on constructing power-efficient systems that can run reliably from battery power.
Industrial computers are essential for some industries. We will explain each of those industries in much detail below.
Industrial grade computers are great for manufacturing plants, especially those who want to automate the assembly process. In such an environment, industrial PCs can be used to manage motion control systems for product inspection, data logging, and data analysis for improved manufacturing productivity.
For example, the auto industry has dramatically benefited from industrial edge computers, which are used to automate the various processes involved in building a car. Industrial edge PCs allow automotive manufacturing plants to monitor such plants' day-to-day operations, track assets, and analyze data provided by the many sensors installed throughout their manufacturing plants.
Industrial PCs are great for industrial automation because of their reliability and ability to operate in a multitude offer different extreme environments. Also, the variety of mounting options in tight, compact spaces helps automation infrastructure integrate into their programmable logic controller or PLCs.
Kiosk machines are all around us; whether you’re at the airport or at the supermarket, you are likely to find an interactive kiosk machine around you. Kiosk machines are often powered by small industrial fanless PCs because they are both compact in size and powerful enough to power them. The rugged and fanless design of kiosk machine computers allows them to be deployed indoors and outdoors in extremely hot or cold environments.
Another distinct requirement across many kiosk machines is the abundance of smart IoT sensors and peripherals powered through high-speed ports like USB 2.0 and 3.0. Industrial fanless PCs provide enormous flexibility and can power many IoT sensors integrated into kiosk machines for self-service automation.
Also, more and more markets are beginning to adopt self-service kiosks in an effort to reduce staffing costs and improve overall customer satisfaction.
Industrial computers are essential for manufacturers because it enables them to perform quality control operations that include using digital measurement instruments to ensure that all measurements are precise, and products and components are manufactured according to predetermined specifications.
Traditionally, products were inspected by selecting a few samples from a large number of products, whereas today, more and more industrial computing hardware is being integrated to ensure that every product is inspected for defects and abnormalities.
Additionally, with the combination of machine vision, industrial computers are able to scan products and components much quicker and with greater accuracy and intelligence. All of these benefits of edge computing create an effective manufacturing process that’s quicker and reduces the number of defective products or components leaving the plant.
Industrial PCs also play an essential role in security and surveillance systems. For example, when it comes to the public transportation system, having an industrial PC capable of withstanding frequent shocks and vibrations is extremely important as such systems are often deployed in vehicles that are constantly moving. When it comes to camera systems, industrial computing systems are also essential because they can support multiple PoE ports that provide stable connections to IP cameras, which record video footage, thus improving passenger safety. Ultimate, industrial systems are essential for security and surveillance because they are rugged enough to withstand the harsh environments in which they are placed, which is usually outdoors.
Our industrial computers are often deployed in medical carts that are used inside and outside of hospitals. Medical carts are often used by ambulance operators to collect information about patients before transporting them to the hospitals. Such systems are often exposed to different environments, shocks, and vibrations, so they must be rugged enough to operate reliably regardless of the environment they’re deployed in.
Industrial computers are essential when it comes to the military. This is so because the military requires reliable industrial systems that can function reliably in different harsh environments, such as ground control or shipboard. Industrial computers are great for military applications because they have a long operating life that meets the requirements of the military. Also, industrial PCs can be ruggedized and customized to be able to perform reliably in harsh environments that are full of dust and water so that they’re effective for military operations.
Now that we have discussed the importance of industrial computers let’s take a quick look at industrial panel PCs. Industrial Panel computers are classified as industrial computers, and they are basically all in one industrial-grade computer systems where the screen, processor, hard drive, motherboard, and power supply are all housed in the same enclosure.
Panel PCs have a small footprint and are often used in food and beverage processing, automotive, and transportation industries. Panel computer systems are extremely optimized for rugged environments and can withstand water, dust, debris, grease, vibrations, and shocks.
Premio has been designing and manufacturing high-quality industrial-grade PCs for over 30 years in the United States. All our systems are manufactured using industrial-grade components.
We have a variety of rugged industrial computing solutions that can be tailored to customer requirements. Each family of industrial PCs that we offer is purpose-built and validated to ensure that it operates reliably while providing high-performance computing.
If you want to learn more, please visit our website industrial computer monitor.
Premio’s fanless mini PCs are great for entry-level industrial automation, providing excellent performance while using little power. Systems are minimalistic while maintaining all of the essential I/O ports that you require.
If you need to add additional ports, our systems come equipped with universal extension slots that can be used for the addition of extra ports through a daughterboard expansion module.
Premio’s rugged industrial fanless computers offer a more robust industrial computing solution that can be deployed in harsh environments that are extremely hot/cold, full of dust and debris, or are subject to frequent shocks and vibrations.
We also offer a series of in-vehicle computers that are specifically designed for deployment in vehicles. This series of industrial computers can integrate with protocols, such as CANBus, allowing it to operate in a variety of transportation applications.
Additionally, these specialized in-vehicle computer systems have a power ignition management feature that is able to control how the computer interacts with a vehicle’s DC battery in 12 or 24 VDC.
Our machine vision computers support PCIe/PCI expansion slots and digital I/O functionalities, ensuring high-quality images and accurate interactions with computer vision sensor devices.
Lastly, Premio’s waterproof industrial computers are IP rated 65/67 and can be equipped with robust M12 connectors that make them ideal for applications where water and dust are present.
If you have any general questions or comments regarding industrial computers or industrial PCs, do not hesitate to give us a call. So, if you want to buy industrial PC, you will find the option that's right for your workload at Premio.
Time to read: 10 min
Remember going through National Geographic magazines from 30 years ago? I spent hours poring over images of life at the extremes: expeditions in glacial caves, Amazonian insects, Saharan dust storms, and underwater coral. But for my young nephew’s generation, pictures are too static, largely due to one innovation: GoPro.
A GoPro is a drop-proof, waterproof video camera most often used to capture the most mundane aspects of people’s vacations, but is also used by semi-pros to capture underwater video and crazy adventures. Given the beatings I’ve seen GoPros take, I’m really impressed by the robustness of the GoPro’s housing design and how foolproof the seals are.
Whether or not you’re making the next breakout electronics product, waterproof enclosures are used in all types of industry, from oil fields to iPhone cases. In this article, we’ll explore the design aspects necessary to make sure you never ruin your company’s four-thousand-dollar prototype again.
Before diving in, we need to establish what the term “waterproof” means, because it’s subjective. For example, a smartphone case designed to keep rainwater from ruining a $1000 smartphone has different requirements than an electronics housing for monitoring deep-sea drilling equipment. So, how waterproof is waterproof enough for your application?
The International Protection (IP) marking system is the generally accepted method for evaluating electronics housings that’s also called the Ingress Protection marking system. It gives concrete meaning to the term waterproof by using standardized tests that must be passed to achieve different levels of waterproofness. The system has two unrelated numbers following the IP: The first number indicates the level of dustproofness, while the second indicates waterproofness.
If you want to only indicate the level of waterproofness, an “x” can be used in place of the first number. For example, IPx7 means we know how waterproof the enclosure is, but we neither know nor care about its dustproofness.
The higher the IP rating, the better the sealing design of the part/product. For instance, a product with an IP67 rating has much higher protection against the elements than a product with an IP14 rating. You can see the full spectrum of rating numbers below:
For most applications, the lowest rating considered “water resistant” is IPx4. This describes many older watches and means that the interior parts will keep working after a splash of water, but any more water will be an issue.
IPx5 is decent step up — if you spray your housing with water from any angle, the interior parts keep working. However, this level only stays waterproof if the spray is light, or just over 4 psi and relatively low flow. IPx5 is a good level for a “rain-proof” housing, which is why a lot of phone housings come from the factory with this level of waterproofing.
At IPx6, the testing is more intense. A housing must remain waterproof for several minutes with a 100-liter-per-minute jet at 15 psi. Most consumer electronics can’t survive this test, and if they can, their designers are bragging about their “IP Rated” product.
At IPx7, the test requires immersion in a meter of water for 30 minutes. If this test goes wrong, it goes really wrong, and you end up with scrap electrical parts.
Pro-tip: Just because your housing can withstand the static pressure of water at a one meter depth doesn’t mean that it can withstand the water jet test from IPx6, so test both if the design will need to resist forceful spray.
With IPx8 we reach the level of a GoPro’s housing. An IPx8 rating means that your housing can withstand long-term immersion in water of some specified depth — for GoPro, that depth is 60 meters. At that depth, the housings are guaranteed to stay sealed at a pressure of 87 psi — incredible!
At IPx9, the tests focus on close-range, high pressure and high temperature spray downs. At this level, the enclosures start having esoteric specialty designs, and it’s not difficult to imagine standard sealing mechanisms failing.
So, now that you know what the levels of waterproofness are, the question remains: How do you create a seal that withstands those tests?
The National Electrical Manufacturer Association (NEMA) created a rating system that determines how protected a product is by determining the product’s ability to withstand exposure to oil, corrosives, snow, and other elements. Unlike the IP rating system, NEMA is mostly used in industrial applications and deals with more than just protection from water and dust.
To use the NEMA rating system, you must first determine if the product is to be used indoors or outdoors. Next, you determine which elements the product may encounter, whether the product will be hosed down, and finally, if the product will be exposed to corrosive agents, oil, or coolant.
According to the system, for indoor use you can have a rating between 1 and 13, which correlates to an increase in protection against elements found indoors. Like the IP system, the higher the rating, the better the protection. For outdoor use, there are ratings of NEMA 3, 3R, and 3S. NEMA 4 correlates to products used in conditions containing high-pressure water, such as washdowns.
NEMA ratings requirements (Source)Though there are nearly an infinite number of different types of seals, three of the most common are face gaskets, static o-ring seals, and dynamic o-ring seals. I’ll cover each briefly, but if you want to really dig into the depths of o-ring design, the Parker O-ring Handbook is one of the best (and most boring!) resources on the subject.
One of the great things about o-rings is that they’re a well-known technology — the recommendations haven’t changed in 50 years — so they’re sure to keep your design waterproof.
Static o-rings applications represent an ideal scenario: The connection you’re trying to seal is more or less round, convex, and the two mating parts will stay together forever (unlike Brad and Angelina, *sigh*), or will at least be mated most of the time.
O-rings come in a wide variety of sizes, denoted by the “dash” number. And no, o-rings aren’t sprinters — the dash number is an ASTM designation that indicates a standard size (chart here). Generally, the larger the last two numbers, the larger the o-ring ID (inside diameter), while a larger first number indicates a larger cross-section diameter.
O-rings come in many sizes, but only one shape. (Source)When using an o-ring as part of your seal design, you’ll need to design a groove where the o-ring can sit. Groove designs remain essentially the same whether you’re sealing two faces, a screw thread, or even a square peg in a round hole (Ok, maybe the last bit isn’t true, but the first two definitely are😉).
For the design, you need only to consider 4 elements:
The first step is to look at the ID of the seal, or calculate the IP if your shape isn’t round. For the GoPro case, this would be the sum of the four straight sides, plus the length of the four chords from the corner radii. Add these together, and you have your magic number. Just remember you’re looking for the internal perimeter, the inside of the groove, and you may end up calculating it a few times with different cross-section diameters.
Once you have the ID/IP, look at the ASTM charts to find your o-ring options with a similar, but smaller ID to account for the percentage stretch. For a static seal you’ll want the o-ring ID to be about 1-5% smaller than the groove ID. This gives the o-ring a tight fit against the sealing surface and keeps it from moving too much with external pressure.
Pro-tip: If you’re designing for internal pressure, you’ll want to consider the outside diameter instead, since that’s the sealing surface.
Remember to keep the cross-sectional area of the groove larger than the o-ringThe width of the groove is based on the cross-sectional diameter of your o-ring, which is based on the estimated variation of the surfaces you’re sealing against. So, if you plan on a tolerance of +/- 0.010” on the surfaces that are sealing, an o-ring of 0.010” is going to have trouble sealing some of those gaps. Likewise, if you have high-tolerance machined parts, getting a ¼” thick o-ring will be overkill.
Once you’ve determined the o-ring width, you can calculate the width of the groove using the o-ring volume and the cross-sectional areas of the groove and o-ring. In order to create a seal, you’ll need to compress the o-ring, and you need to plan on 10%-40% compression (also called the squeeze) of the o-ring. Also, make sure that the maximum cross-sectional area of the o-ring (including variations from tolerance) is smaller than the minimum cross-sectional area of the groove.
Tired of running numbers yet? Good news — we’re almost done, and you’ll finally be able to seal your housings tighter than the X-Files.Pro-tip: Check out our article on O-Ring Groove (Gland) Design
An ideal scenario in a dynamic piston seal—your seal will not look this good. (Source)Using a dynamic seal doesn’t mean you can open a housing underwater. However, many times parts need to move while exposed to rain or while submerged. So, how do you ensure the container stays waterproof?
Well, dynamic seals are just like static seals, but with less compression and more lubrication. All the rules and percentages apply, except that for a dynamic seal you need only 10%-30% compression.
Gasket design could be an article by itself. Or a book. Or perhaps even a small library. Generally, here’s the main thing you need to know about using gaskets as opposed to o-rings: gaskets excel in applications requiring complex face-to-face seals, especially with multiple cavities.
And today, we’re just looking at waterproof gaskets — so we can throw out everything needed for internal combustion engines and extreme high-pressure seals (sorry gearheads).
As with o-rings, for gaskets you need to consider the compression needed for your application and gasket thickness based (generally) on the tolerances of the two mating faces. The great thing about gasket design is that gaskets are generally custom, so no iterative calculations on standard sizes required. Yay for bespoke designs!
Not all gaskets will leak, but the ones on my first car did, and I’ve been biased towards o-rings ever since. (Source)With custom options, though, comes responsibility. When bolted together, the surfaces will warp between bolts. So, you must consider how to space the mounting hardware to sufficiently minimize the warp and still seal with the thickness of your specified gasket. What?
Basically, if you bolt two parts together on the four corners, the center area will be further apart than the corners. If that gap is greater than the thickness of your gasket, your housing will leak. Likewise, if the gasket is too hard and doesn’t allow for the roughness of the two surfaces, your housing will leak — so you need gasket material soft enough to accommodate machining marks unless you specify a smooth surface.
One of the consistent problems faced in using rubber seals is creep (not Radiohead, and not the kid in your class that kept staring at you) — the characteristic of elastomers that makes them tend to take on the shape of the surfaces around them and lose their original shape. The primary solution for creep is careful material selection. Many rubber-like materials developed since the beginning of the Space Age have been focused on reducing creep.
Pro-tip: I recommend researching materials heavily before selection, using MatWeb and the Parker website as guides to materials.
For most consumer applications and many industrial ones, the electronics will have some sort of interface that will need to allow for, well, humans to interface with them. Buttons are the most common interface method. For low-pressure applications, a molded rubber button that seals to the housing is common. They are cheap and easy, and more details can be found in this article on button design.
Photo by Daniel Alexander on UnsplashAnother option is a button made of a hard material, like stainless steel, which passes through the housing using a dynamic o-ring seal. This kind of button is typically used in heavy-duty applications like undersea housings, where high pressure could accidentally activate soft rubber buttons. Hard buttons are also common in places where tough chemical compounds make a rubberized button likely to fail.
Similarly, nearly any type of switch, from slide switches to knobs, can be designed into the housing using the calculations for a dynamic o-ring seal. But remember: More seals in your design means more seals that can fail. Use them with caution.
When designing a housing, lower resolution materials are great for getting the fit, function, and aesthetics right before you test the waterproof capabilities of the design. 3D printed PLA is a great first pass to see what the enclosure looks like, and materials like 3D printed ABS and Nylon work for testing part interfaces. And if you do decide to go with custom gaskets, you can try out the fit with a printed rubber-like first prototype.
Want more info on the materials available for 3D printing? Check out this guide.However, I wouldn’t put the electronics in one of these housings and throw it in the swimming pool — you’ll need to use high-resolution materials to get a seal against o-rings or gaskets. For that, you need material like VeroWhite/VeroBlack, ABS, or VisiClear. These materials print with high accuracy, so you can get a good quality seal.
For very high-pressure seals, you’ll need to take one step further and go with a CNC machined prototype to ensure control over the surface quality, before testing the design in deep water. Fictiv has the CNC manufacturing capabilities to keep costs down while giving you the high quality you’ll need for these types of tests. Check out the Fictiv Capabilities Guide for more details.
Whether your next design project is going to experience the extremes of a mission to Mars or is merely required to keep electronics safe during a light rain (or from a cup of coffee) you know know what to do:
Then you, your teammates, and most importantly, your boss can rest easy, knowing your enclosure is fully waterproof.
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