custom lcd panel nec free sample

This kit combines an ultra-sensitive NEC/X-rite iOne Display 2 colorimeter and sophisticated SpectraView software for Mac OS and Windows platforms. The colorimeter is custom calibrated and matched for NEC’s wide color gamut displays as well as standard gamut displays. This easy-to-use calibration and profiling solution provides hardware-based calibration and is perfect for color-critical applications such as photo editing, computer graphics, digital animation, medical imaging, pre-press, and video and film production. A compatible display monitor must be purchased separately.

High bit depth internal Look Up Tables (LUTs) - each LCD display monitor supported by SpectraView II features three internal 14, 12 or 10 bit LUTs (depending on model). These tables allow very precise adjustments to be made to the display"s Tone Response Curve without reducing the number of displayable colors.

Fully automated calibration - By making adjustments directly in the display hardware, optimal settings are configured without any user interaction. SpectraView II communicates with the display monitors using Display Data Channel - Command Interface (DDC/CI) which is a two-way communications link between the video graphics adapter and display monitor using the normal video signal cable. No extra cables are necessary.

Multiple Calibration Sets- Different display monitor calibrations can be instantly loaded allowing quick and easy switching between different calibration settings without the need to re-calibrate the display. Each time a calibration set is loaded, the necessary monitor settings and ICC/ColorSync profiles are automatically updated.

Network support (Windows only)- SpectraView II integrates with the NEC NaViSet Administrator network software (available separately from your NEC representative.) to provide remote network access and monitoring of display monitors. NaViSet Administrator is able to read, display, and log the current calibration settings and status of displays on a LAN. This feature is particularly useful for large installations where central monitoring and asset management is needed.

The SVII-KIT has been discontinued as of February 2009 and has been replaced with the SVII-PRO-KIT. All LCD3090W-BK-SV (LCD3090WQXi SpectraView bundle), LCD2490W2-BK-SV (LCD2490WUXi2 SpectraView bundle), LCD2690W2-BK-SV (LCD2690WUXi2 SpectraView bundle), P221W-BK-SV (P221W SpectraView bundle) include the new SVII-PRO-KIT with the new MDSVSENSOR2. Other bundle models created before February 2009 may include the SVII-KIT, but all bundle models created after this date include the new SVII-PRO-KIT.

The -SV series are the bundles of a display monitor with the SVII-PRO-KIT (color sensor and SpectraViewII software). The naming consists of the monitor model name (LCD2690W2 is an LCD2690WUXi2), followed by "-BK" to indicate the color is black (for models available in colors other than black). Lastly the "-SV" indicates it is the SpectraViewII series bundle.

Yes. Free updates are available for download for customers who have purchased SpectraView. The license key from your original purchase will be required to install and use the software.

For detailed questions regarding SpectraView please use the online feedback form. Support is also available for SpectraView and all other issues by contacting NEC.

Many retailers do not regularly stock the -SV bundle versions and will instead only place an order with their distributor once they have received a customer order. Contact your retailer and confirm that they can order the -SV version.

3) Select display #2 in SpectraView and open the Custom White Point dialog. Use the Visual Match tool to adjust the white color so it visually matches white shown on display #1.

See the User"s Guide and README file included with the software and on the NEC website for further information about any specific incompatibilities or issues.

Why are the Spyder color sensors not recommended for use with wide color gamut displays such as the LCD2690WUXi, LCD2690WUXi2, LCD3090WQXi, P221W, PA241W, PA271W and PA301W models?

Spectraview software is specifically designed to work hand in hand with NEC Displays. The software works seamlessly with a compatible display and supported calibrator for color-critical applications, such as photography, video editing, animation and medical imaging. Using our software will ensure you"re getting the most out of your display.

No. The hoods for many models are available as a separate option in the accessories section, or can be purchased from online retailers who sell NEC Professional displays. The part number for the hoods are listed on the corresponding display product page.

Our online sales system is updated with stock levels in our warehouse in real time, and may be temporarily low on the item you selected. Either check back the next day or place an order by calling our NEC Pre-Sales directly on 866-632-6673.

I already purchased a copy of SpectraView and would like to upgrade my color sensor to the new custom calibrated NEC branded X-Rite iOne Display V2. Is it possible to purchase just the sensor?

When used with the SpectraView software, NEC display monitors store all of the necessary color adjustments internally, including the 10- or 12-bit Look Up Tables. The ColorSync utility switches the display color settings by changing the Look Up Tables in the video graphics adapter. The ColorSync profiles generated by SpectraView contain linear Look Up Tables for the video graphics adapter. Because of this, SpectraView must be used to update the display monitor.

No. SpectraView is targeted specifically at providing the best possible color performance and calibration with the supported NEC displays using hardware calibration. Other displays can be profiled but not calibrated in SpectraView.

If you feel it is necessary to tweak the display after calibration, create a new Target file based from the measurements of the display after it has been manually adjusted. Then the monitor will be automatically calibrated to that particular set of characteristics the next time it"s calibrated. Use the Custom White Point tool to measure and set the white point and Intensity values.

Drivers for all sensors are available on the SpectraViewII CD-ROM or in the \Program Files\Sharp NEC Display Solutions\SpectraViewII\Drivers folder after installing SpectraView (on 64 bit versions of Windows the folder location is \Program Files (x86)\Sharp NEC Display Solutions\SpectraViewII\Drivers).

Yes. The "in the box" video drivers included with Windows 7 do not contain the necessary support for communicating with the display monitor that SpectraView relies on. If you receive a "No communications" error, obtain and install the full drivers directly from the video graphics adapter vendor.

Note: If you are using a MultiSync Pa series display, you can connect a USB cable from the host PC to the display (in addition to the video cable), and SpectraView will use the USB connection to communicate with the display, thus bypassing any compatibility issues.

In general a spectrophotometer provides more accurate color measurements than a "generic" colorimeter does when measuring most displays. However a colorimeter can be specifically calibrated against a lab grade instrument to match a particular type of display, and thus provide extremely accurate color measurements. This approach was taken with the new custom-calibrated X-Rite iOne Display V2 included in the Display Calibration Bundle.

The LCD panels used in the SpectraView displays have excellent color linearity characteristics and can be characterized using the much simpler shaper/matrix profiles. accurate 3D LUT profiles require a minimum of around one hundred measurements (and up to several hundred) to generate the necessary data and offer very little advantage despite the large increase in measurement time. additionally there are some compatibility issues with various software applications when using 3D LUT type display profiles.

In Canada SpectraView is available directly from CDW, Tigerdirect, and Insight. SpectraView kits can also be purchased by calling our NEC Pre-Sales directly on 866-632-6673.

At this time SpectraViewII is only available for purchase within the US and Canada. In Europe please contact your regional NEC sales office for information on what calibration options are available. In Japan SpectraViewII is sold under the SpectraNavi name.

Yes. The SpectraViewII calibration system is developed by NEC and optionally includes an NEC branded X-Rite iOne Display V2 color sensor. SpectraViewII can be used with any supported display model and is sold both as a complete kit bundled with a display, and as an add-on product.

In Europe SpectraView Profiler includes a display monitor with hood, custom calibration software developed by basICColor, and each display is individually certified. It is not possible to purchase and use the SpectraView Profiler software with a non-SpectraView Profiler display.

The new SVII-PRO-KIT includes the MDSVSENSOR2, an NEC branded X-Rite iOne Display V2 color sensor that is custom calibrated for increased measurement accuracy with our wide color gamut displays such as the LCD2690WUXi, LCD2690WUXi2, LCD3090WQXi, and P221W. It is backward-compatible with standard color gamut displays. The SVII-KIT included an NEC branded X-Rite iOne Display V2 but did not have any custom calibration.

I have two supported NEC display monitors that I would like to use in a dual monitor configuration on one machine. Do I need to buy two SpectraView licenses?

Yes, but it is currently limited to customers with large installations of NEC display monitors. To learn more, please submit a request using the online feedback form.

Yes, but you will not be able to display the full native resolution. These displays require a Dual Link DVI connection in order to support the full resolutions of 2560x1440 and 2560x1600 respectively. A Mini DisplayPort to DisplayPort cable or dongle can also be used to connect to the DisplayPort input.

We manufacture and stock backlight assemblies for many NEC LCD panels. We produce premium quality replacements to extend the life of your flat panel screen devices.  If you do not see your panel model listed here, please contact us to learn about our cost effective design and manufacturing process.  Simply mail us a sample of the backlight you are looking to replace, and we can recreate and supply you with what you need to meet you needs.

Sharp/NEC"s direct view indoor LED displays provide crystal clear images for the ultimate bezel-free visual experience. Vivid high bright images are viewable in superb clarity from any viewing distance and angle to ensure your message is received with the greatest impact.

All Sharp/NEC LED products are meticulously designed and built for reliable long lasting performance; the Advanced series features additional failsafe qualities with redundant power supply and receiver card ensuring mission-critical performance standards.

Whatever the weather, Sharp/NEC’s outdoor direct view LED walls ensure high bright, high impact signage that demands attention even from far away. Designed for harsh environments and withstanding the elements a lifetime of up to and beyond 100,000 hours ensures longevity for high performance outdoor signage installations.

Select the profile you want to evaluate under “Settings” (for evaluating 3D LUTs and DeviceLink profiles, this setting has significance for a Rec. 1886 or custom gamma tone response curve, because they depend on the black level).

There are two sets of default verification charts in different sizes, one for general use and one for Rec. 709 video. The “small” and “extended” versions can be used for a quick to moderate check to see if a display should be re-profiled, or if the used profile/3D LUT is any good to begin with. The “large” and “xl” versions can be used for a more thorough check. Also, you can create your own customized verification charts with the testchart editor.

Announced September 5 2013, the NEC 30-inch PA302W wide-gamut display is an update with LED backlighting of the excellent NEC PA301W, which has been a mainstay of my photographic work for several years.

I am pleased to report that the NEC PA302W is a pleasant visual improvement over the PA301W—the clarity and smoothness of the image are improved; it seems more crisp yet more smooth at the same time. The color gamut is even wider also, particularly in the red/magenta/blue range.

Update October 2013: There is a new 27-inch model PA272W (PA272W-BK-SV with calibrator), which according to NEC has the same quality as the PA302W. Ditto for the PA241W BK-SV 24-inch model.

NOTE: for all sizes, the BK-SV models with included matched calibrator and SpectraView II software is strongly recommended with the new backlit LCD models (not just any calibrator will work optimally with the new backlighting).

Utilizing a high performance AH-IPS LCD panel and combined with the MDSVSENSOR3 calibrator, the MultiSync PA302W-BK-SV delivers high quality, perfect color.

The faint internal line (side of triangle) inscribed below is the red/blue edge of the AdobeRGB color gamut. Observe that the NEC PA302W as I calibrated it goes far beyond AdobeRGB color space in the red/magenta/blue directions.

There are some reasons to force a display to use a more limited gamut, such as sRGB. When that occurs, one concern is the accuracy of the displayed gamut. But it is not a concern. Here is what NEC has to say about using sRGB color space:

This is because the 14-bit internal LUTs and our custom color processing technology (marketing speak: SpectraView Engine) allows the display to maintain the maximum possible number of color levels. This all occurs without introducing artifacts such as banding, so even sRGB looks good.

The NEC PA302W and its siblings support 10-bit color (30 bit color), as do the video cards found in the Apple Mac Pro, but as of September 2013, Apple still does not supply 10-bit drivers. Shame on Apple for focusing on eye candy improvements with no meat and potatoes solid engineering— the photographic community has been waiting with four 3-4 years now.

Be sure to order the NEC “BK-SV” model, which includes the calibrator that talks directly to the display for 14-bit accuracy, not just any calibrator will suffice. NEC had this to say about the calibrator supplied with the PA301W:

It is the individual color sensors which are custom calibrated by X-Rite to match our Wide Color Gamut displays, rather than the software trying to make some compensation for a generic device in software.

* Note: the SpectraSensor Pro is being renamed to the MDSVSensor3. According to NEC, the new MDSVSENSOR3 is the only sensor that can be used for standalone calibration (e.g. without using SpectraView) on the PA302W. But this is a minor point; it is much better to use the software anyway.

NEC Display Solutions of America, a leading provider of commercial LCD display and projector solutions, announced today the 30-inch MultiSync® PA302W color accurate display and color critical PA302W display solution with SpectraViewII™ calibration software and sensor. The models come in both white and black cabinets, which have been redesigned and are now 34 percent slimmer than previous models.

The MultiSync PA302W monitor is designed with a fully ergonomic stand for added comfort during use. It also features a 2560 x 1600 resolution and 10-bit wide color gamut AH-IPS LCD panel that provides the accurate, vibrant colors professionals require.

In addition, the MultiSync PA302W display showcases the time-saving features common to the MultiSync PA Series displays, including the ability to load ICC profiles to emulate custom color spaces and easily match image prints.

“The PA302W gives graphic designers, pre-press operators, photographers, video editors and other professionals a greater color gamut and even better color control,” said Art Marshall, Product Manager of Professional and Medical Desktop Monitors at NEC Display Solutions. “In addition, users can now update the factory calibration using an external sensor when they have SpectraViewII.”

Optional accessories, which include a Mini DisplayPort to DisplayPort cable (PA-MDP-CABL) for connecting devices using Mini DisplayPort or Thunderbolt technology, display hood (HDPA30-2), SpectraViewII software (SVIISOFT), NEC custom colorimeter (MDSVSENSOR3), complete SpectraViewII Color Calibration Solution (SVII-PRO-KIT) and 2W USB sound bar (SOUNDBARPRO)

Above that range, the i1Display Pro is an excellent contender for higher end uses, but doesn’t offer necessarily better calibration quality, unless your particular monitor supports true hardware calibration. More on it below.

My main display is an old Dell 30" wide gamut LCD and its main shortcoming is grayscale banding caused by a limited 8 bit LUT. For that display, the SpyderX profile showed a little more banding on the extreme dark tones. On the other monitors tested, a MacBook Pro and a Philips 4K IPS LCD with 109% sRGB gamut, the difference between devices was even closer and I wouldn"t be able to pick which is which on a blind test.

These profiles are also used to match colors between other color managed devices. For example, if you have custom color profiles for your display and photo printer, Adobe Lightroom can understand their differences and match their output as closely as possible, or simulate the printer output on your screen.

Make sure to also check the video card control panel to make sure there’s nothing that could interfere with color output. For example, reduced RGB range or color calibration settings. Our goal is to keep the image pipeline absolutely neutral and make sure nothing interferes with the calibration / characterization process.

Make sure the newly generated color profile is installed on the operating system control panel. Most programs will read it from the OS and don"t need individual configuration.

The final nail in the coffin is that they shift colors depending on the viewing angle. Displays with VA panels are much better than TN, but also suffer from color changes depending on the viewing angle.

One of Hantronix many strengths include the intricate design and production of custom glass LCD panels. Hantronix has the experience and technology to develop your custom LCD needs. This includes incorporating low operating voltage, wide operating temperature range and robust polarizers . Other capabilities include multiple sided LCD panel to fit your product shape and silk screening on LCD glass surface. Hantronix tooling is competitive with short sample lead times. Please contact Hantronix or your local Hantronix Representative for your custom LCD requirements.

The liquid crystal research of the 1960s was characterized by the discovery of and experiments on the properties of the liquid crystals. George H. Heilmeier of the RCA based his research on that of Williams, diving into the electro-optical nature of the crystals. After many attempts to use the liquid crystals to display different colors, he created the first working LCD using something called a dynamic scattering mode (DSM) that, when voltage is applied, turns the clear liquid crystal layer into a more translucent state. Heilmeier was thus deemed the inventor of the LCD.

In the late 1960s, the United Kingdom Royal Radar Establishment (RRE) discovered the cyanobiphenyl liquid crystal, a type that was fitting for LCD usage in terms of stability and temperature. In 1968, Bernard Lechner of RCA created the idea of a TFT-based LCD, and in that same year, he and several others brought that idea into reality using Heilmeier’s DSM LCD.

After the LCD’s entrance into the field of display technology, the 1970s were full of expansive research into improving the LCD and making it appropriate for a greater variety of applications. In 1970, the twisted nematic field effect was patented in Switzerland with credited inventors being Wolfgang Helfrich and Martin Schadt. This twisted nematic (TN) effect soon conjoined with products that entered the international markets like Japan’s electronic industry. In the US, the same patent was filed by James Fergason in 1971. His company, ILIXCO, known today as LXD Incorporated, manufactured TN-effect LCDs which grew to overshadow the DSM models. TN LCDs offered better features like lower operating voltages and power consumption.

From this, the first digital clock, or more specifically an electronic quartz wristwatch, using a TN-LCD and consisting of four digits was patented in the US and released to consumers in 1972. Japan’s Sharp Corporation, in 1975, began mass production of digital watch and pocket calculator TN LCDs, and eventually, other Japanese corporations began to rise in the market for wristwatch displays. Seiko, as an example, developed the first six-digit TN-based LCD quartz watch, an upgrade from the original four-digit watch.

Nevertheless, the DSM LCD was not rendered completely useless. A 1972 development by the North American Rockwell Microelectronics Corp integrated the DSM LCD into calculators marketed by Lloyds Electronics. These required a form of internal light to show the display, and so backlightswere also incorporated into these calculators. Shortly after, in 1973, Sharp Corporation brought DSM LCD pocket-sized calculators into the picture. A polymer called polyimide was used as the orientation layer of liquid crystal molecules.

In the 1980s, there was rapid progress made in creating usable products with this new LCD research. Color LCD television screens were first developed in Japan during this decade. Because of the limit in response times due to large display size (correlated with a large number of pixels), the first TVs were handheld/pocket TVs. Seiko Epson, or Epson, created the first LCD TV, releasing it to the public in 1982, which was soon followed by their first fully colored display pocket LCD TV in 1984. Also in 1984 was the first commercial TFT LCD display: Citizen Watch’s 2.7 inch color LCD TV. Shortly after, in 1988, Sharp Corporation created a 14 inch full-color TFT LCD that used an active matrix and had full-motion properties. Large-size LCDs now made LCD integration into large flat-panel displays like LCD screens and LCD monitors possible. LCD projection technology, first created by Epson, became readily available to consumers in compact and fully colored modes in 1989.

The LCD growth in the 1990s focused more on the optical properties of these new displays in attempts to advance their quality and abilities. Hitachi engineers were integral to the analysis of the LCD industry, previously centered in Japan, began expanding and moving towards South Korea, Taiwan, and later China as well.

As we entered the new century, the prominence of LCDs boomed. They surpassed the previously popular cathode-ray tube (CRT) displays in both image quality and sales across the world in 2007. Other developments continued to be made, such as the manufacturing of even larger displays, adoption of transparent and flexible materials for LCD hardware, and creation of more methods to

As of today, as LCD displays have developed quite a bit, but have remained consistent in structure. Illuminated by a backlight, the display consists of, from outermost to innermost two polarizers, two substrates (typically glass), electrodes, and the liquid crystal layer. Closer to the surface is sometimes a color filter as well, using an RGB scheme. As light passes through the polarizer closest to the backlight, it enters the liquid crystal layer. Now, depending on whether an electric field directed by the electrodes is present, the liquid crystal will behave differently. Whether using a TN, IPS, or MVS LCD, the electrode electric field will alter the orientation of the liquid crystal molecules to then affect the polarization of the passing light. If the light is polarized properly, it will pass completely through the color filter and surface polarizer, displaying a certain color. If partially polarized correctly, it will display a medium level of light, or a less bright color. If not polarized properly, the light will not pass the surface, and no color will be displayed.

1927: Vsevolod Frederiks in Russian devised the electrically switched light valve, called the Fréedericksz transition, the essential effect of all LCD technology.

1967: Bernard Lechner, Frank Marlowe, Edward Nester and Juri Tults built the first LCD to operate at television rates using discrete MOS transistors wired to the device.

1968: A research group at RCA laboratories in the US, headed by George Heilmeier, developed the first LCDs based on DSM (dynamic scattering mode) and the first bistable LCD using a mixture of cholesteric and nematic liquid crystals. The result sparked a worldwide effort to further develop LCDs. George H. Heilmeier was inducted in the National Inventors Hall of Fame and credited with the invention of LCDs. Heilmeier’s work is an IEEE Milestone.

1979, Peter Le Comber and Walter Spear at University of Dundee discovered that hydrogenated amorphous silicon (Alpha-Si:H) thin film transistors were suitable to drive LCDs. This is the major breakthrough that led to LCD television and computer displays.

1972: Tadashi Sasaki and Tomio Wada at Sharp Corporation built a prototype desktop calculator with a dynamic scattering LCD and started a program to build the first truly portable handheld calculator.

Industrial control panels consist of power circuits or control circuits (or both) which provide signals that direct the performance of machinery or equipment. Industrial control panels don’t include the main power, nor do they include the controlled equipment; rather, the panel is mounted on a back panel (or subpanel) or in an enclosure, depending on the application. Industrial control panel design begins with weighing design requirements and specifications and preparing schematics, but the design process can be quite complex in order to ensure that all applicable regulatory standards and safety requirements are met.

We’ve created this guide to provide an overview of the key design considerations applicable to industrial control panel design, including schematics, relevant regulatory standards, and design considerations relating to every facet of effective control panel design for industrial equipment and machinery.

Control panel design for industrial equipment and machinery is an important undertaking, resulting in an interface designed to control a machine or process. It’s not a simple matter of selecting an appropriate enclosure and a back panel that houses the electrical hardware. So, the proper hardware must be mounted on a back panel and properly wired and integrated into the machine – any improper configuration can result in malfunctioning machinery, but it’s also likely to pose an unnecessary risk to operators.

The process should always begin with an evaluation of the specifications, requirements, and regulatory standards. After these considerations are evaluated, drawings are created to outline the specific configuration of wiring, circuits, controls, and every other aspect of the final control panel. Good design addresses both the electrical and physical requirements. These drawings should include:

Because there are so many elements in a proper schematic, a table of contents is also recommended. The schematic is the foundation for the subsequent development of an industrial control panel.

Despite many Code cycles, many industrial control panels are still not compliant with the regulatory standards which are accepted industry-wide. Compliance, however, is critical for ensuring minimal safety risks associated with installing and operating industrial equipment and machinery.

Below is an overview of the most prominent regulations applicable to the design, manufacture, and installation of industrial control panels. Like all regulatory standards, industrial control panel standards are subject to change over time, and in fact, one of the most relevant standards, UL 508, has recently been phased out and replaced by an updated, harmonized international standard. Because of the changing nature of regulatory standards, it’s important to stay up-to-date on current requirements.

The National Electrical Code (NEC), or NFPA 70, is a widely-accepted standard for the safe installation of electrical equipment and wiring. The NEC is adopted by state or by region to standardize the enforcement of safe electrical practices. Article 409 covers industrial control panels and applies to panels intended for general use at 600 volts or less, in ordinary locations.

Article 409 specifies that industrial control panels must be evaluated and marked for their Short Circuit Current Rating (SCCR), which is established by evaluating each feeder individually as well as all branch circuits. The smallest kA value is used as the kA value for the panel as a whole. The kA value must be greater than the kA value of the incoming source in order for the panel to be installed.

NFPA (National Fire Protection Association) 79 is a section of the NEC that pertains to wiring standards for industrial machinery. The scope of this standard encompasses electrical and electronic elements of all machinery that operates at or below 600V, including injection molding machines, assembly machinery, machine tools, and material handling machinery, among others, as well as inspection and testing machinery. NFPA 79 provides safeguards for industrial machinery aimed at protecting operators, equipment, facilities, and work-in-progress from fire and electrical hazards.

Portions of NFPA 79 relate to control circuits and control functions, operator interface and control devices, location, mounting, and enclosures for control equipment, and other topics relevant to the design of industrial control panels.

Before January 26, 2012, listed control panels were evaluated to standard UL 60947-4. If a customer specifically requested that a panel be evaluated to UL-508, this was permissible.

From January 26, 2012 through January 26, 2017, new industrial control panels were evaluated to UL 60947-4. However, evaluating revisions to existing control panels to UL-508 was permissible if requested.

The new UL 60947-4 standard “applies to the types of equipment listed in 1.1.1 and 1.1.2 whose main contacts are intended to be connected to circuits the rated voltage of which does not exceed 1 000 V a.c. or 1 500 V d.c.”

Other bodies have issued applicable standards as well, such as IEC 60204-1, which relates to the safety of machinery and electrical equipment of machines. Given the many standards applicable to specific types of industrial control panels and those intended for use in specific applications, it’s imperative to identify the appropriate standards at the beginning of the design process.

A variety of design considerations must be weighed throughout the design process in order to design a control panel that meets functional requirements, application specifications, and regulatory standards. The following design decisions represent the primary design considerations in developing an industrial control panel, although additional considerations specific to individual applications may apply.

Placement is another consideration related to enclosures. Depending on where the panel will be located, you may need to account for swing requirements of cabinet doors (if a cabinet enclosure is being used). If a control panel will be located in an area with a high ambient temperature, a ventilation fan or air conditioning may be required to keep the control panel within an ideal operating temperature range. If temperature control applies, it’s necessary to allow for easy access to air intakes and exhaust vents (which makes it easier to access and replace filters). Both NEC required clearance around power wiring and UL required clearance around heat producing devices must be considered to allow adequate room for ventilation.

Space considerations are paramount, as one of the most common NEC violations involves control panels that are too small or too confined to allow for the proper space for wiring and wire bending. It’s also wise to consider space requirements not only for the current configuration but possible future needs, as restricted space is a common challenge for retrofits.

Supply conductors should allow for the highest possible load that may occur. This is typically calculated by determining the sum of all connected motors and apparatus (keeping in mind duty cycles and which motors and apparatus will operate simultaneously), and adding this sum to the full load current for all resistive loads plus 125% of the full load current of the highest rated motor.

You’ll also need to consider overcurrent protection in the design phase. There are two options: overcurrent protection can be placed ahead of the panel or incorporating a single, primary protective device in the panel itself. Depending on the application, it may not be desirable to integrate the protective device in the panel to minimize the need to open an enclosure.

Operator devices include components such as push buttons, indicator lights, digital panel meters, levers, and the like, but these devices can also be more complex, touch-screen displays. Such HMIs (human-machine interfaces) allow for more complex functionality, but also require computing components and software development, which can add to the cost.

All industrial control panels should include an emergency stop (which differs from a cycle stop), typically a self-latching control in a mushroom or palm type. Emergency stops, or E-stops, are also required by OSHA (Occupational Safety and Health Administration), and they cannot be buttons on an HMI; they must be a push-button design which is hard-wired into the safety circuit. Additionally, any start buttons or switches should be located directly above or to the immediate left of the associated stop button.

It’s imperative to properly label all wires, terminals, and other components in an industrial control panel. It’s a time-saving strategy that also reduces the likelihood of errors in testing, routine maintenance, and repairs. Labels should be durable enough to withstand the conditions of the target environment to avoid fading and damage that renders them unreadable.

Front panels and faceplates may seem like an afterthought, but these elements are equally as important to the overall operation of machinery as the interior functional components. Front panels should be durable enough to withstand extreme temperatures, weather conditions, cleaning products, and chemicals to protect the underlying components.

Front panels and faceplates may include metal or plastic substrates, depending on the application specifications, and can be mounted with studs, adhesives, or fasteners. Digital or screen-printed graphics provide visual guidance for operators and incorporate labeling of operator devices to ensure usability. Therefore, face plates must have the durability necessary to remain readable for the life of the asset.

There are many, many individual components and elements that go into an industrial control panel. This guide is meant to provide an overview of the primary design considerations. Given the depth and complexity of control panel design, as well as the application specifications and regulatory considerations, partnering with an expert experienced in designing and developing industrial control panels is a time-saving and cost-effective option for manufacturers.

Sending Images from a PC to receivers It"s possible to transmit desktop image of the computer to the receiver device(MultiPresenter Stick or projectors) using a network instead of connecting a computer cable.

Supported products are listed in "Supported Products". [Note] This function can be used only when the MultiPresenter app is connected to one receiving device and is in full screen display. (This cannot be used when the MultiPresenter app is connected to multiple receiving devices or is in split screen display.)

Intelligent Connection feature All you have to do is inputting 4 digit number. Wireless LAN setting and network connection can be performed automatically.

Intelligent Connection feature (Android version only) All you have to do is inputting 4 digit number. Wireless lan setting and network connection can be performs automatically.

* If the INTELLIGENT CONNECTION does not work properly on Android 12, set the Wi-Fi setting manually first, then select the destinated receiving device in the [Select] tab on the [Target Device] screen. Alternatively, you can use in INFRASTRUCTURE.

Register the IP address of the destinated receiving device in the [Edit Connection List]. Once a receiving device is registered in the connection list, it will be displayed every time.

a line of extreme and ultra-narrow bezel LCD displays that provides a video wall solution for demanding requirements of 24x7 mission-critical applications and high ambient light environments

Since 1983, Planar display solutions have benefitted countless organizations in every application. Planar displays are usually front and center, dutifully delivering the visual experiences and critical information customers need, with proven technology that is built to withstand the rigors of constant use.