More and more, companies are embracing open concept work spaces—areas designed around optimizing human interaction and collaboration. And for many people, this kind of dynamic, synergistic work isn’t very likely if workers are tethered against the wall. Looking to create an active, team atmosphere where people and ideas thrive? You’re going to want power at the center—and in the center—of those spaces.

WHAT ARE MY OPTIONS?

The question reminds us a little of the old bear hunt story. But unlike the children’s tale, when it comes to confronting the challenge of power in the middle of the room, you can actually go over it, go under it, or go through it.

Trenching

With this first option, you don’t just go under the floor…you really go under the floor. Trenching is just what it sounds like—cutting a trench in the concrete to support required power and cable management. With this approach, you’re going to want some pros on your team beyond the folks handling the concrete work. An electrician will need to run the conduit and a networking expert should handle the data connections. Because of the physical commitment involved, the best fit for a trenched solution is usually a new build or a significant renovation project.

 

Raised Flooring

For this solution, we’re still on the floor—just not quite as far down. In a raised floor application, power is run between the actual floor and a product that sits on top. Those few inches gained with a raised floor translate into a myriad of power and cable management benefits. Power is free to be channeled where it’s needed and floor boxes installed in the floor provide easy access points for pulling cables through. However, raised flooring can become a tripping hazard issue by creating different levels of flooring in a space. But a raised floor solution can accommodate a lot of power—perfect for work spaces with a high demand for tech support, as well multipurpose work areas looking for greater power flexibility. Like trenching, this solution probably makes the most sense as part of a larger renovation project.

 

Ceiling Power Distribution

Now, we’re headed over…with power that runs through the ceiling. In this solution, ceiling tiles conceal power and other cables supported by trays that run from the wall to the middle of the room or forgo the ceiling tiles for an exposed, industrial style. Once there, power drops from the ceiling housed in a pole or similar structure. Please note that because of the additional distance traveled from point to point, extended cable lengths are often necessary. And because this application requires several structural considerations—including the need for a dropped ceiling product (unless you like the look of exposed cable hardware)—it’s usually best suited for new building projects.

Furniture Power Distribution

Our final solution involves running power through portable or stationery furnishings with outlet receptacles mounted on or in the furniture. Corded or hardwired—both are options—they simply require connection to a wall or floor power source. And flexibility isn’t only about how things are wired here. Running power through furnishings also means higher adaptability because power units can be easily moved as space demands change. Ultimately, furniture power distribution is a great fit for existing or remodeled spaces that’s aren’t looking for a more permanent, infrastructure-based solution.

THINKING IT OVER

Regardless of the approach chosen, power distribution in any workplace is an important consideration and asking the right questions is sure to mean fewer headaches (and wasted dollars) as you move forward. So, here are a few issues to keep in mind as you consider making your own workplace a more dynamic and collaborative “center” of attention:

  1. How much money and time are you prepared to invest?
  2. How much power do people using the space need? How much data?
  3. How involved is the project—will an electrician or other experts be needed?
  4. Are you paying attention to safety concerns?
    • Avoid any opportunities for tripping hazards
    • Be sure to check whether an electrical permit is required for your project
  1. Have you explored all the design and power options for your space?
    • Stay open to the possibilities!

Building automation is a rising trend in today’s real estate marketplace. The automation of workplace functions allows a Facilities team to increase efficiency and track the use patterns of a space, as well as enables users to schedule events. These “smart building” systems use common communication protocols to talk to each other and share information with a central “brain.” A smart platform also allows integration with other building systems and the company’s IT infrastructure itself. Here, we’ll dive into what building automation really looks like, how it works and how your workplace can apply this technology to its best advantage.

AUTOMATION: HOW SMART IS SMART?

When people talk about a “smart building” what they’re referring to is the autonomous control of a facility—both distributed control and the building’s automation systems. Distributed control systems include things like monitors, mechanical functions, security, fire, lighting, HVAC and ventilation systems, either within a single building or across a campus. Building Automation System (BAS) functions are all about keeping an eye on things—maintaining climate within a specified range, lighting rooms based on occupancy schedules, monitoring performance and device failures and provide malfunction alarms accordingly.

It’s not hard to see how such automation systems reduce building energy and maintenance costs through pre-emptive maintenance and the quick detection of tech issues. In fact, smart energy management practices can often pay for themselves in a short period of time—and help companies tell a powerful sustainability story for customers, partners and employees alike.

QUICK FACTS

 

According to the Department of Energy, businesses consume 70% of the electricity load in the U.S. and waste 30% of the energy used per year.

 

 

 

By 2020, 19.5% of all buildings in the US will be automated, with 50 million connected devices.

 

 

 

Focusing on HVAC, lighting, and some types of electrical loads, mid-sized buildings implementing a proactive energy management program can expect savings from 10% to 25%.

TAKING CARE OF BUSINESS

Here are just a few ways in which automation can help today’s workplaces do what they do…better.

 SMART BUILDING ENERGY MANAGEMENT:

Within a business environment, some controls can and should be in the hands of the people who work there (individual level control), while others automatically kick in based on whether people are actually in the space or not (occupancy level control).

For example, with individual level control, an employee can engage the HVAC system in a conference room using an interface on their IP phone, if they happen to be working after office hours or on a holiday. At the Occupancy Level, unused equipment or appliances will power on and off automatically, without any needed user intervention—like automated blinds that adjust according to heat and light, or lighting that turns on according to movement within a space.

In either case, tracking real-time energy utilization for any building from a central location can help a Facilities team determine energy consumption patterns, design spaces more efficiently, and identify areas of improvement across departments. Better awareness of energy consumption levels and their sources can also enable companies to negotiate power contracts and better verify the billing info provided by those utility companies.

To learn about Byrne’s workplace energy management system, visit their Circuitrac website here. 

ROOM RESERVATION:

Think of it as air traffic control for a company’s busy meeting areas. Employees can use a scheduling app on their phone to book a room. And even without an app, room sensors tied to the workspace reservation system can note movement and change the occupancy status within the system—effectively reserving the room to prevent employees from double booking. These same sensors can also tie into digital room signage and displays to indicate whether a room is available, reserved or occupied.

SPACE UTILIZATION:

Work space is expensive, so employers want to maximize its use wherever they can. In building automation, sensors record the use of a room, eliminating the need for employees to register that information themselves. Then space utilization reports can track when certain environments are being used, to help organizations make decisions about how to best allocate square footage—they can even help inform the creation of smarter workplace design layouts based on usage.

SO, HOW DOES IT ALL WORK?

In order for your building automation system to operate, you need five things:

 

 

SENSORS

The eyes of the building

 

Sensors measure information such as CO2 output, temperature, humidity, daylight or room occupancy and come in several types.

 MOTION SENSORS

These use passive infrared technology to detect heat and movement and are usually mounted to the ceiling or an area where the sensor has full range of vision within the room. Motion sensors deliver a 90-95% accuracy rate—accuracy may be reduced when people sit for long periods of time. While these sensors can detect if a person is utilizing a space, they can’t specify how many.

DESK SENSORS

These sensors utilize the same passive infrared technology as their motion-based partners and are designed to detect the presence of a person in a particular spot—desk, conference table, etc. As with the motion sensors, desk sensors may inaccurately capture data when people sit too long, which is why they tend to be more useful in gathering simple vacancy data.

VOLUME COUNT SENSORS

Unlike the sensors mentioned above, these are ideal for capturing the number of individuals entering and exiting a room. Mounted above the room’s doorways, companies can precisely track occupancy and analyze usage versus capacity. This data also helps improve office design by identifying where people are congregating and by providing data to adjust and improve wasted space.

 

SMART HUB (Controller):

The boss of the operation

 

The brains of your BAS (Business Automation System), these digital controllers receive input data, apply logic to that information (think algorithm, like Google does with their search data), then send out a command to other devices to adjust accordingly, based on the info gathered.

 

 

COMMUNICATION PROTOCOL

The channel your devices talk to each other on

 

The most commonly used communication channel, ZigBee radio communication protocol, is an openly available global communication standard that addresses the unique needs of low-power, low-cost wireless M2M (Machine-to-Machine) and IoT (Internet of Things) networks. In technical terms, it operates on an IEEE 802.15.4 physical radio specification and even on unlicensed frequency bands including 2.4 GHz, 900 MHz and 868 MHz. Zigbee offers a wireless range of 70m indoors/400m outdoors and uses military-grade AES 128 encryption for an exceptionally high level of information protection.

 

OUTPUT DEVICE

The IOT that controls your device

 

Once the controllers have gathered the data and determined what course of action your system should take, those commands are carried out by the system’s output devices. When the controller sends out a command, actuators and relays (the typical output devices) go into action—reducing or increasing the heat in a particular part of the building for example or dimming lights in unused areas.

 

DASHBOARD

How you view your data

 

Simply speaking, these are the screens or interfaces that work as a translator between a BAS system and the humans who operate it. This is where building data is reported (historical, consumable, run times, and system activity information) and can be used as a record of building operations. It also allows immediate diagnosis of a system without needing to be physically in front of the unit.

 

SMART JUST MAKES SENSE

Intelligent BMS systems integrate disparate BMS devices/networks onto a common network (IP) to enable unified automation and management, even though they may be manufactured by different vendors. In the future, we may even get to a single dashboard that can manage all BMS and Network/IT systems. Running a building should be a data-driven process. Analytics platforms like SkySpark, CopperTree, and others can pull in data from existing equipment and produce useful insights for facility managers to help make better operational decisions. Then the next logical step is to utilize that vast amount of operating data currently sitting unused by existing building control systems and turn it into actionable insights—so building operators can be free to focus on fixing problems, not out there searching to find them.

With today’s automated technologies, businesses are not simply in control of the function, safety and comfort of their buildings, they can operate those systems from a smarter position. One that not only increases employee satisfaction and informs better space allocation, but one that is sure to generate significant energy savings for years to come.

 

More than ever, people want to work where and how they work best. Thanks to the evolution of technology, that means taking advantage of outdoor spaces as well—but of course, powering up al fresco comes with its own challenges. The need for reliable outdoor power is not only increasing in the workplace, but in hospitality and residential spaces too. Here, we’ll cover the rising demand for integrated power in outdoor spaces, regulatory issues surrounding these solutions, options for powering and their pros and cons.

THE OUTDOOR CULTURE SHIFT

CORPORATE SPACES 

From impromptu meetings to other informal interactions, many of today’s companies are leveraging a variety of workspace options to attract and retain employees. For most workers, productivity, engagement and overall satisfaction go up in a flexible work environment. Employees also tend to gravitate to casual spaces where food and drinks can be enjoyed. These spaces hold mobility at a premium—with laptops, tablets, and smartphones everywhere—and with mobile tech comes the demand for charging power.

For many employers, the demand for alternative workspaces has naturally led to outdoor work-friendly areas, with the ultimate goal being able to work as effectively outside as you would indoors. When polled, 86% of indoor workers say they’d like to spend more time outside during the workday and 82% welcome the concept of a dedicated outdoor workspace. Large companies like Apple and Facebook have understood the impact of this trend on employee loyalty, productivity, and recruitment for some time. In fact, their outdoor spaces have been carefully planned and designed around this movement.

HOSPITALITY

The hospitality industry has also been increasing their efforts to expand and furnish outdoor spaces with comfortable seating, shading, and dependable charging options. Restaurant patrons are always looking for ways to charge their devices while visiting an establishment, and hotel guests have come to expect the same amenities in exterior spaces. Of course, movable tables and chairs are also an important way hotels and restaurants can support these environments.

While adding charging products to outdoor spaces does pose upfront costs, hotels are poised to see a healthy return on investment as guests tend to linger outside with increased food and drink purchases. According to Trip Info, “They’re staying longer at the pool, they’re eating more, they’re drinking more, so it’s actually turning into a good source of revenue for property owners.”

MULTI-FAMILY LIVING

Apartment complexes are creating communal areas and co-working spaces for those who work remotely or from home. Outdoor spaces such as pool areas, rooftop decks and community centers are being equipped with WI-FI and easier access to outlets. Apartment buildings with shared outdoor spaces mean greater curb appeal and a more desirable living experience for potential renters—generating increased competition when compared to other complexes.

And when it comes to cost savings, traditional pronged-outlet energy use in communal living environments—like college campuses—can be reduced by providing gathering spaces with shared outdoor power access.

THE CHALLENGES OF HEADING OUTSIDE

True outdoor power—with direct exposure to the elements—requires adherence to some pretty strict regulations. Some other outdoor locations, even those with a permanent overhead covering, need to be regulated as well. When it comes to regulating outdoor power, here are a few things you need to know:

OUTDOOR RECEPTACLES 

  • GFCI (ground-fault circuit-interrupter) protection is required for all outdoor receptacles. Specific exceptions may be made for snow-melting or deicing equipment. GFCI protection can include GFCI receptacles or GFCI circuit breakers.
  • Homes must have at least one outdoor receptable at the front and rear of the house. They must be readily accessible from the ground and positioned no more than 6-1/2 feet above grade (ground level). Homes with attached decks and balconies with interior access (including a door to the indoors) must also have a receptacle no more than 6-1/2 feet above the deck or balcony walking surface. As a general recommendation, houses also should have a receptacle at each side of a deck or balcony, accessible from the ground. 
  • Receptacles in damp locations (under protective covers, such as a porch roof) must be weather-resistant and have a weatherproof (sometimes called weather-tight) cover
  • Receptacles in wet locations (exposed to weather) must be weather-resistant and have a weatherproof “in-use” cover. This cover provides sealed weather protection even when cords are plugged into the receptacle.

OUTDOOR WIRING

The primary safety concerns with outdoor wiring are shielding against moisture and corrosion, preventing physical damage, such as run-ins with shovels, lawnmowers, and managing issues related to underground burial that could cause a bad short circuit. Outdoor wiring projects are generally classified into two categories: functional and decorative. Functional brings lighting to common areas such as stairs, gates, and walkways. Decorative adds design to exterior space such as highlighting trees and shrubs with lighting.

  • Exposed or buried wiring/cable must be listed for its application. Type UF cableis the most commonly used nonmetallic cable for residential outdoor wiring runs. UF cable can be direct-buried (without conduit) with a minimum of 24 inches of cover. 
  • Wiring buried inside rigid metal (RMC) or intermediate metal (IMC) conduit must have at least 6 inches of earth cover; wiring in PVC conduit must have at least 18 inches of cover. 
  • Backfill surrounding conduit or cables must be smooth granular material without rocks. 
  • Low-voltage (no more than 30 volts) wiring must be buried at least 6 inches deep. 
  • Buried wiring runs that transition from underground to above ground must be protected in conduit from the required cover depth or 18 inches (whichever is less) to its termination point above ground, or at least 8 feet above grade. 

For more details on outdoor wiring, check out this article

TEMPORARY OUTDOOR POWER

Short term uses that require power for hard to reach locations or spaces without electrical power may use temporary outdoor power units. Temporary power units are economical, portable single-phase power distributors.

Temporary outdoor power is often used due to it being a safe and convenient method to provide power to things such as portable power tools and temporary lighting systems.

To see how Byrne is able to use temporary power options in your outdoor space, visit the Vesta website here.

WATERPROOF POWER OPTIONS

When it comes to waterproofing your power devices, you have a couple options.

Waterproof USB’s are becoming a trend in the industry because it allows users to take their devices where ever they go. Creating a waterproof USB eliminates the environmental sensitivity aspect in powering up. USB Type-C’s are protected with rubber seal connectors which keep water out, so liquid is unable to provide an electrical path between hot, neutral and ground terminals. These connectors are rated for IPX6 water-ingression performance, meaning they are tested in continuous water immersion over 1 meter, allowing durability for the long haul.

Another option is to waterproof your circuit board. Rather than protecting the USB connector from water, the printed circuit board attached to the connector can be waterproofed. Doing this eliminates the chance of water damage to the electronics. This process is done by using a waterproof coating seal on the printed circuit board and all the components on the circuit board so water can’t get in and damage the product. However, if left out in the rain repeatedly, the products will at some point being to corrode. So, it’s recommended to store your devices inside when not in use.

BATTERY POWER

There are many reasons why battery power makes sense for powering your outdoor spaces.

Powering your object with batteries allow for a cordless option. Giving you mobility to navigate and position your outdoor spaces anyway you choose, without being tied down by a cord. Rechargeable batteries also offer a wide power bandwidth, which means they can handle both small and large loads with ease. They’re also seriously low maintenance—basic service includes cleaning the corrosion buildup on the outside of terminals and occasional performance checks. And when your battery runs out, simply recharge with a standard battery charger. Battery chargers can power a number of battery types and operate in various ways such as through a wall outlet, USB port or car port.

SOLAR POWER

Solar power packs a great marketing message, delivering timely lessons about sustainability by harnessing readily available solar energy to solve a problem. Renewable, inexhaustible, non-polluting—solar power checks all the boxes.

And outdoor charging wins the affordability award too—costing much less, in most cases, than installed outdoor outlets. According to One Block Off the Grid, a leading online solar energy resource, adding solar panels to your home may bring in monthly savings well above $100 in many states. Extend this windfall across two decades—less than the length of a typical solar panel warranty—and this can translates to over $30,000 back in your pocket.

With so many ways to power the outdoors, it’s easier than ever to think outside the box—or office, or hotel room—and plug into what’s important.

In 2018, work spaces are entirely different than even 10 years ago. The days of “traditional” work spaces are quickly on dwindling, let alone the days of the “cubicle farm.” So what designs do matter for work spaces in 2018?

OPEN FLOOR PLANS

Open Floor Plans have been around for years, but we’re starting to see an increase in the use of this concept, moving from private offices and cubicles.

You read that right. Not only do these spaces not need “open door policies,” there aren’t even doors to close. Open floor plan offices encourage collaboration, shared work spaces, and everything that comes with them.

Designing work spaces has changed from a layout having just a few spaces within office buildings that are open concept to nearly the entire space as open floor plan. While the C-Suite may still have doors to close, the rest of the building likely will be sharing desks, outlets, and screens.

HOTELING AS A WORK SPACE

Working doesn’t have to be done at an assigned seat to be productive anymore. In fact, many people that come to the office take part in a trend called “Hoteling” or “Hot Desking”.

Hoteling doesn’t mean that you live at a hotel or even work in a hotel, instead it refers to using a scheduling system to reserve a desk for the day or a few hours. Hot Desking is similar, but deals with unassigned seating by a first come, first served basis.

Each of these concepts is moving us away from having an assigned or static desk and moving to an environment where you sit where you feel you’ll get your best work done. Heads down work could be in a space with more barriers and a quieter environment, collaboration could happen when your team decides to sit together for a day or two.

This surge in providing unassigned workspaces is already changing the face of many offices and can be seen in the rise of Co-Working Spaces.

STANDING WORKSPACES

Standing work desks are more than just a passing fad. Their sudden rise in popularity is linked to more than just health benefits. From a facility point of view this is saving valuable real estate or even allowing new workspaces to be deployed within an existing footprint.

Standing desks increase collaboration, focus, and productivity. You may have heard the phrase “sitting is the new smoking,” but you may not be familiar with all of the benefits of standing.

WHAT DOES THIS MEAN FOR YOU?

As new workers arrive in the office we need the workspaces to meet their needs not just for doing a task, but also meeting their social needs.  That means that our workspaces are changing and how we design them up makes a difference. The goal of a great workspace design is to provide the tools that someone will need, so that all they need to do is sit down, plug in and get to work.

With every day and the improvement technology tools at work, the way we work changes. And when the way we work changes, workspace design needs to change too. How is it affecting you? Let us know in the comments of this blog.

Welcome to the wonderful world of being able to work wherever you want. Well, almost.

Coworking spaces and Makerspaces have been on the rise since the integration of technology into the workplace. While both spaces are slightly different and used for different types of work, they both help usher in a new era of developing the freedom to work away from your specific office.

Whether to make working while traveling easier or to give remote workers a home base (other than their dining room table), both spaces are unique in that they foster a work community outside of a company’s four walls.

COWORKING SPACES AND WHY THEY’RE IMPORTANT TRENDS FOR DESIGNERS AND MARKETERS

In 2005-era San Francisco, Brad Neuberg realized he could create his own coworkers. By attending networking events and slowly gathering a group of like-minded individuals, Brad discovered that all it took was a shared space and passion for people to connect. They didn’t need to be employed by the same company, and in fact they learned much more from each other than from their companies. And with this idea, coworking spaces were invented.

This incredible trend has continued (and swept the world with it) for 13 years now.

Coworking spaces have completely changed the way employers view the 9 to 5 landscape. Gone are the days having to sit in front of a screen for 8 hours a day in an office (heaven forbid in a cubicle…). This new style of space has created a new culture around working.

Designers focused on developing and improving coworking spaces can’t ignore the high level of technology integration. The ability to connect PC or Mac to any outlet and any other gadget is critical.

The importance of coworking spaces is just that – they allow collaboration and they work. It’s the seamless integrations that often make the space. Add in a banging modern facade and you have the total package in a coworking space.

MAKERSPACES AND WHY THEY’RE IMPORTANT FOR DESIGNERS AND MARKETERS

Makerspaces are directly engineered for prototypers. In fact, they might even be better known by their nickname: hackerspaces.

These spaces are an entirely new realm outside of coworking spaces. They’re developed in an effort to foster a community that likes to build, invent, create, and learn. Rather than creating a networking space that encourages like-minded computer dwellers to collaborate, Makerspaces encourage the handcrafted to gather together.

Typically outfitted with technology such as 3D printers, models, software, and other electronics that enhance crafting, Makerspaces are still a rare find. And their rarity makes them that much more marketable.

It’s ever-important for designers to keep in mind that while Makerspaces are still in their infancy, they will only explode from here. Discovering the right technology to integrate, layouts to develop, and freedom to collaborate through open floor plans are imperative.

The Universal Serial Bus (USB) has quickly become an expected technology included in any new tech hardware. From smartphone chargers to flash drives and printer to computer connections. But what is the difference between the two most common USB versions, USB 2.0, USB 3.0 and USB 4.0?

5 KEY DIFFERENCES BETWEEN USB 2.0, USB 3.0 AND BEYOND

USB 2.0 was released in 2000 whereas USB 3.0 was released in 2008. In those 8 years, 5 major innovations improved the usage of USB 3.0. Coming in 2019, USB 4.0 will be released to address higher data transfer rates.

 

 

 

Transfer Rates (Speed)

 

USB 2.0 has a transfer rate of 480 Megabits per second (Mbps). Its counterpart USB 3.0 has a transfer rate of 10x that, offering a transfer rate of 5 Gigabits per second (Gbps). More recently, USB 3.2 offers a transfer rate of 20 Gbps and in 2019, we can expect the ratification of USB 4.0, which will offer 40 Gbps.  These transfer rates allow quicker uploads of data.

 

Physical Changes

 

In order to offer an increase in the transfer rate, the USB Type-A/B connector for USB 3.0 and higher requires more pins than USB 2.0, increasing from 4 to 10. To accommodate the physical updates, USB 3.0 required the design of new USB Type-A/B connectors.  Additionally, the arrival of the USB Type-C connector has 24 pins and allows for inverted insertion.

 

 

Bandwidth

 

USB 2.0 offers one-way communication between devices. This means that it can only handle data transfers one direction at a time. With USB 3.0, they contain two unidirectional paths, allowing them to maintain transfers in both directions at the same time. While the USB-C connector adds two more data paths for a total of four.  These are key innovations for improving data transfer load times and improving efficiency.

 

Power

 

While simultaneously sending data, USB 2.0 provides a maximum of 500 mA when charging devices. USB 3.0 offers up to 900 mA – cutting charging time nearly in half while sending data.  The categorizing of USB power has evolved and new standards have been released for power delivery.  Depending on the connector and wire type, up to 5A at 20V or 100W can be delivered to a device needing a charge. 

 

Compatibility

 

The USB Implementers Forum (USB-IF) maintains that their revisions are always backward compatible.  This means that USB 2.0 devices are compatible with USB 3.0 – though only at USB 2.0 speeds.

If you are looking to learn even more about the USB versions available, be sure to check out our USB 101 blog.

 

The Universal Serial Bus was originally developed to be an industry standard connection between communications, computers, and other devices. Dubbed the USB, this technology quickly replaced previous standards that hadn’t been regulated across devices. It became the gold standard, the Lingua Franca of the technological boom.

5 MAIN USB VERSIONS AND WHAT THEY DELIVER

There are dozens of different types of USBs, from 1.0-4.0, A-C, and even minis – and it’s tough to keep track of which ones perform what.

USB 1.0 Capabilities

USB 1.0 was originally designed in an effort to streamline connection between all devices. After arriving on the scene in 1996, USB 1.0 became the go-to standard between brands, technologies, and devices.

USB 2.0 Capabilities

After USB 1.0 took off in popularity, USB 2.0 set out to increase speed for connecting, charging, and sharing. USB 2.0 went through several iterations over a multiple year span, becoming a critical innovation from 2000-2010 that ushered in a new age of expected speed and accuracy for syncing devices, charging rapidly, and sharing downloads and uploads seamlessly.

USB 3.0 Capabilities

USB 3.0 was developed basically to shame anyone who thought 2.0 was truly an upgrade (kind of). It introduced the USB “SuperSpeed” capability, as well as improving data transfer and charging speeds. USB 3.0 ports are denoted with a blue color code (or the super sweet SS initials).

 USB 4.0 Capabilities

USB 4.0 was developed to improve upon data transfer rates up to 40 Gbps and interoperability with Thunderbolt.  This capability will available on the USB-C connector and cable.

USB Type-C Capabilities

USB Type-C is backwards compatible with USB 3.0 and 2.0, eliminating the compatibility with Type-A ports. Almost any device that supports USB 3.1 use USB-C port. Both ends of the USB cable are the same which allows a device to be connected with reversible plug orientation, so you never have to worry about plugging in your device the wrong way. USB Type-C delivers more power which gives the opportunity to charge larger electronics, such as laptops.

WHY DO THE DIFFERENT USB VERSIONS MATTER?

Each USB version delivers different speeds and works with different ports.

It’s important to understand which USB versions work best on which power levels. In order to incorporate USB ports into designing spaces and furniture, it is critical to know what USB version will fit most efficiently. Whether you are looking for a fast charge to keep people moving along, a trickle charge hoping they’ll stick around longer, or the ability to sync and share between other devices like printers and computers, you’ll need to know each capacity.

An easy fallback is to assume that USB 2.0 ports will work well when incorporating into furniture. While USB 3.0 is even better, USB 2.0 is still internationally the most compatible option. In theory, USB 3.0 was developed to work on 2.0 ports and for 3.0 ports to also accept 2.0 charging and data transfers.

As always, the supplier of your tech will know best – don’t be afraid to ask questions. After all, they’re there to help you succeed.

Outfitting an entire office space can seem daunting at first.

Confronting a budget in this scenario is particularly complicated. And in times like this, it can be easy to want to find a way to cut a few corners and save some cost.

But finding cheaper (emphasis on the cheaper) products to outfit the new space is not the answer. UL approved products offer more than just efficiency – they offer safety.

WHY ARE NON-UL APPROVED PRODUCTS RISKY?

There is a very good reason why Underwriters Laboratories came to exist. In a world of ever-expanding products, inventions, and evolution, this organization took upon itself to ensure that there is a set of safety standards to protect the users.

With an influx of manufacturers (and a need to keep costs low), it has become increasingly more important to abide by the vigilance of UL. Products that sell for lower prices must be made with lower quality – and it is these products that are less safe. The use of inferior products creates hazards for workplaces housing expensive equipment and easily ignitable material. The cost savings of purchasing non-UL material doesn’t match the risk imposed on the company, equipment and employees.

UL discovered what materials, layouts, and other design elements encouraged electrical safety in particular. Their standards protect users from potential fires, electrical shock, and personal injury hazards. Whether the products are office furniture, additional power or charging accessories, UL set a code of standards for various levels of safety based on their testing.

UL VERSUS ETL

You may see companies carrying a UL listing, an ETL listing, or both. Here’s what you need to know to distinguish the two certifications.

UL: Underwriters Laboratories, or simply known as UL, writes safety standards and tests products to ensure they meet the requirements of the written safety standards. In order for a product to be UL certified, a product sample must be tested and complete all safety regulations put into place by the UL.

ETL: Electrical Testing Laboratories (ETL) includes the safety testing for a variety of electronic components and their associating products. ETL differs from UL because ETL doesn’t test products according to their own set of standards. Products undergoing ETL testing are held to published standards of safety such as ASME, ASTM as well as UL.

For more information and to discover specific details surrounding UL listings, browse the full catalog here. Learn more about UL Listed vs UL Recognized products as well in this helpful blog.

 

 

WHAT IS WIRELESS POWER CHARGING?

The word “wireless” is often associated with wifi – but in this case, it’s simply not the same. Wireless power is simply the transfer of energy without the use of connecting cords or cables. In other words, wireless power enables charging smart devices without the need to plug them in.

In reference to this blog about charging, wireless charging accomplishes the same goal through a different method. Broken down into simpler terms, wireless charging is created by the transferring of an electrical current.

A few common examples of wireless charging include pads on desk surfaces for charging phones, phone cases that charge, and electric toothbrush stands. In order to use wireless power properly, one’s device must be compatible. As you can see from the aforementioned examples, wireless charging can take different forms and is utilized differently in various spaces.

According to Power By Proxi, “by eliminating the use of physical connectors and cables, wireless charging provides a number of efficiency, cost and safety advantages over the traditional charging cable.” This form of charging is safer by eliminating trip hazards and potential fire hazards of using frayed cables. It is also cost-effective in the long run by accommodating more people with fewer products and only requiring one purchase (see examples).

 

 

Inductive Coupling

 

Inductive coupling might be the most commonly considered and used form of wireless power. This technology has been around a bit longer than other popular forms of wireless charging. In fact, it’s probably how you charge your electric toothbrush. A coil in the charging stand actually creates a magnetic field which ultimately charges the brush.

 

 

Resonant Wireless Charging

 

Resonant charging is slightly less common. Resonant coupling was discovered by studies conducted at MIT when searching for a better solution than inductive coupling. Unsettled that inductive coupling had to be in very near proximity in order to charge, the studies set out to find a form of wireless charging that didn’t require proximity.

The studies at MIT summarized that inductive coupling encourages efficiency whereas resonant coupling is all about convenience. Both have different applications, and you can discover more about them in this article. Both are entirely safe to be used in buildings (including schools and hospitals) as a means of providing power and charging without the cords and cables usually envisioned when planning the design of buildings requiring power.

HOW DOES WIRELESS CHARGING CHANGE POWER IN THE WORKPLACE?

Imagine an office setting that is no longer tethered to a 6ft cable. Now imagine a workplace scenario where smartphones can be left sitting out on pads and in troughs to charge. The future is here – and keeping up with this technology as it advances will be critical in not only improving the way people interact with your designs but also with how people interact with their devices and (by proxy) their passions.

With such a demand for charging in order to stay connected, workspace design has been confined to specific layouts. And while technology and design have both evolved into beautiful, efficient, and creative solutions, limiting the need for cords even a small amount opens up the possibilities that much more. Wireless power has set designers free – so start speccing with this incredible technology today.

Learn more about how wireless power has changed and will continue to change the design of spaces in this blog.

You’re probably the coworker that scares all IT and safety managers to death.

Why?

Oh let’s see, because you always have a coffee mug filled to the brim on your desk? Or your stylish water tumbler tucked out of your sight lines behind your computer monitor so you can take cute Instagram pictures of your work space?

Imagine the havoc spilling any liquid near a system of electrical outlets would wreak. Not just on your computer, but potentially anyone else who is plugged into the same outlet or stretch of outlets.

But coffee is essential to creativity and directly linked to job happiness, so don’t put that cup away just yet.

HOW DO SPILL-PROOF SIMPLEXES IMPROVE WORK PRODUCTIVITY AND SAFETY?

Enter: spill-proof technology. A UL tested and approved simplex, this design allows for a safer environment with liquids near electrical outlets.

In order for an outlet to be considered Spill-Proof, it must pass the UL Spill Test. This test was developed to ensure that there would be no electrical shock in the event of a liquid spilling on a power unit utilizing the Spill-Proof technology. (The spill test is performed with nothing plugged in the unit) This means that if the circuit breaker in the electrical closet trips, you can unplug everything and start mopping up the coffee. Once the breaker has been reset, the systems will continue to run unaffected and you are able to finish cleaning up your spilled coffee while your coworkers all Snapchat your shame.

HOW DOES THE SPILL-PROOF TECHNOLOGY WORK?

To pass the UL Spill Test, liquid can’t create a path between hot, neutral, and ground terminals.

But what does that even mean?

 

Simplex A

This is a simplex (Simplex A) designed for flush-mounted power units (i.e. a power unit integrated into your desk surface where your computer and monitor are plugged in). All three openings required for establishing an electrical current (hot, neutral, and ground terminals) cannot allow liquid to bridge across them. You can note that these three openings have edges for the upward-facing-mounted power units specifically developed to stave away liquids from creating an electrical path between the terminals.

For this to work on power units on an angle or in troughs underneath the desktops themselves, there is a separate Spill-Proof simplex (Simplex B) that has passed the UL Spill Test as well.

Simplex B

Again, liquid cannot the liquid to pool across the terminal in order to pass the UL Spill Test.

SPILL-PROOF TECHNOLOGY IS IMPROVING WORKSPACES AND DESIGNS

When designing spaces or developing marketing material around new spaces, be sure to include Spill-Proof Technology. Not only does it improve the longevity of the workspace and the safety of its immediate value, but it also means you can enjoy that Venti Pumpkin Spice Latte with Almond Milk at your desk.

People are changing the way we work every single day. And technology slowly shifts to match the new trends that people create. If you want your spaces to be designed around people or marketing to people, then it’s imperative to incorporate the necessary technology and upgrades to do so.