using color lcd displays pricelist

Artwork Requirements: To avoid an Artwork Charge we require vector line art in .EPS, .AI, or .PDF format. Make sure there are no bitmap embedded images. Colors should be in Pantone solid coated, no CMYK or RGB. High resolution raster art is also acceptable provided it is layered in a .PSD or .TIF format and it is set to print at 300 dpi at the size needed. Please remember to convert all text to outlines before submitting your files. Failure to convert your fonts to outlines is the single largest factor in artwork errors.

Colored Garments: Garments: All colored garments require an underlay which is charged as one additional screen and film. An additional film and screen is required for the underlay on colored garments. Flashing charges also apply.

Dye Migration on Polyester & Pigment Dyed Goods: Dye migration on polyester and pigment dyed fabrics cannot be 100% avoided and USCW will not be responsible for its occurrence. Dye migration is a problem caused when the dye in the fabric of the garment sublimates and turns into a gas. This gas then tries to escape the garment and can get caught up in the ink that is applied to the garment. This can cause the discoloration of the ink. Unfortunately, there is no consistency to when dye migration may occur but is most likely to occur with reds, maroons, kelly green, and darker shades of blue. Dye migration may occur after the ink is cured or in some cases as much as two weeks later. To minimize the likelihood of dye migration, an additional barrier base gray screen is required. USCW cannot control dye migration and is a risk the customer must be willing to accept when printing on any garments containing polyester fibers or garment dyed fabrics.

Four Color Process Printing: This process uses CMYK printing whereby only 4 ink colors are used. Cyan, magenta, yellow and black are layered over each other to print a full range of colors. Exact PMS matching is not possible and this type of printing is not a good choice when there are large solid areas of color in the design. Additionally, USCW only prints 4 color process on WHITE shirts. If you require process printing on colors, we can utilize a process called Spot Process. There is an additional charge of $15.00 for art separations when 4 color process printing is requested.

SPOT Process Printing: This is the most common type of color separation and is by far the most popular. Most of the color separations done today are simulated process. Spot Process separations, unlike true process (CMYK) use spot channels and regular plastisol inks to generate a full color image. Spot Process can be printed on white, light and dark shirts. Pricing for spot process is by quote only. This type of work is typically priced as if it is an 8 to 10 color job with associated run charges, screens and films. There is an additional charge of $30.00 for art separation when spot process printing is requested.

Sharp NEC Display Solutions incorporates both Sharp and NEC brands of display products. Including desktop, 4K and 8K UHD large format, video wall, dvLED, collaboration and interactive products, Sharp/NEC offers the widest portfolio of displays available. Understanding that every market and environment has unique requirements, Sharp/NEC prides itself on being your partner, delivering customized solutions to match your needs.

Planar® CarbonLight™ VX Series is comprised of carbon fiber-framed indoor LED video wall and floor displays with exceptional on-camera visual properties and deployment versatility, available in 1.9 and 2.6mm pixel pitch (wall) and 2.6mm (floor).

From cinema content to motion-based digital art, Planar® Luxe MicroLED Displays offer a way to enrich distinctive spaces. HDR support and superior dynamic range create vibrant, high-resolution canvases for creative expression and entertainment. Leading-edge MicroLED technology, design adaptability and the slimmest profiles ensure they seamlessly integrate with architectural elements and complement interior décor.

From cinema content to motion-based digital art, Planar® Luxe Displays offer a way to enrich distinctive spaces. These professional-grade displays provide vibrant, high-resolution canvases for creative expression and entertainment. Leading-edge technology, design adaptability and the slimmest profiles ensure they seamlessly integrate with architectural elements and complement interior decor.

From cinema content to motion-based digital art, Planar® Luxe MicroLED Displays offer a way to enrich distinctive spaces. HDR support and superior dynamic range create vibrant, high-resolution canvases for creative expression and entertainment. Leading-edge MicroLED technology, design adaptability and the slimmest profiles ensure they seamlessly integrate with architectural elements and complement interior décor.

Planar® CarbonLight™ VX Series is comprised of carbon fiber-framed indoor LED video wall and floor displays with exceptional on-camera visual properties and deployment versatility, available in 1.9 and 2.6mm pixel pitch (wall) and 2.6mm (floor).

Carbon fiber-framed indoor LED video wall and floor displays with exceptional on-camera visual properties and deployment versatility for various installations including virtual production and extended reality.

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.

Screen Printing uses one screen for each color in each design being printed. The Service Fee for the First screen is $15 and each additional screen is $10 ea.

If price were no object, flat-panel displays would probably take over the computer monitor business overnight. These slender new displays, which are essentially desktop versions of the liquid crystal displays attached to high-end portable computers, take up only a fraction of the desktop space hoarded by conventional computer monitors, which are known as cathode-ray tube displays.

The newest models of LCD monitors offer big, bright images that are adequate for all but the most demanding PC user. They consume less power, weigh just a few pounds and have noticeably less flicker, and thus produce less eye strain, than their CRT cousins. And they are more stylish.

Despite steep price reductions in the last few months, flat-panel displays still cost more than twice as much as conventional CRT computer monitors with comparable screen size and resolution.

In the last year, prices for flat-panel displays have fallen by as much as two-thirds. For example, in June 1997 the list price for a 14-inch Think Panel LCD Model 9514 from I.B.M. was $3,000. Today it is $999. Earlier this month, Apple slashed the price of its 15-inch Studio Display LCD to $1,299, from $1,999.

The plummeting prices are a result of better manufacturing efficiencies, weak financial conditions in Asia where all the LCD makers are located and increased competition among display sellers here. On top of that, computer companies are preparing to introduce a new generation of digital LCD displays this fall that hold the promise of even better performance and lower prices. There are some complications

But even as LCD prices have tumbled, so too have prices for conventional CRT monitors. Many computer makers are selling 17-inch CRT monitors for less than $500 today, and 14-inch and 15-inch computer monitors are so cheap -- typically less than $200 -- that some companies are giving them away as incentives to spur computer sales.

""We don"t see CRT"s going away any time soon,"" said Paul Semenza, director of market analysis at Stanford Resources, a market research and consulting firm in San Jose, Calif. ""They"re cheap, and extremely reliable."" For example, Mr. Semenza said, some 14 million conventional monitors were sold (separately or bundled with computers) in the first half of this year, compared with 55,000 LCD"s.

Given the price difference, even the most technologically ardent consumers -- the fabled ""early adopters"" -- may find it hard to look a spouse squarely in the eye and argue that the flat-panel monitors are worth double or triple the price of an equally good or superior CRT display. Analysts say flat-panel monitors will not capture significant shares of the consumer market until the price ratio between LCD and CRT is 1.5 to 1 or lower, and that is not expected to happen any time soon.

Barry Young, vice president of DisplaySearch, a market research company in Austin, Tex., said prices for flat-panel monitors are most likely to continue falling this year before stabilizing in 1999, when demand catches up to supply.

Even so, some flat-panel customers can justify the price differences. Hospitals and medical offices favor LCD displays because, unlike CRT monitors, their signals do not interfere with nearby sensitive equipment. Banks and financial institutions array them on the previously groaning desks of traders who need multiple monitors to track different markets. Office workers crammed into small cubicles love them for their relatively petite footprint, which yields more working space, or room for more clutter, on the desk surface.

Come to think of it, these thin displays would seem to be ideal for apartment dwellers who are torn between a desire for a bigger monitor and the lack of space for it. The Internet has fueled a demand for bigger screen sizes, but CRT"s typically are as many inches deep and wide as the screen size, measured diagonally. Apple"s 15-inch Studio Display, in comparison, has the same viewable area on screen as Apple"s 17-inch CRT, and it can fit on a shelf 10 inches deep and 15 inches wide.

But flat-panel displays are intrinsically digital, mapping their images on a rigidly defined grid of tiny ""on"" and ""off"" cells. This is not a problem for the LCD panels attached to laptop computers, which send digital signals directly to the digital display. For LCD monitors to work with most desktop computers, however, they must convert the incoming analog signal back to digital.

Besides adding complexity and cost to the LCD monitor, this digital-to-analog-to-digital dance is further complicated by variations in the timing of the computer"s video card. Not all cards synchronize signals the same way. If the signals are not precisely on track, unwanted video artifacts can occur. Straight lines may veer, pixels may pop out of line.

For this reason, it makes sense for shoppers, whenever possible, to test the LCD monitor on the computer that will be driving it. Variations in different video cards can cause the same monitor to behave beautifully or to be quirky, depending on what it is plugged into. Doing away with the analog-to-digital converter in the LCD monitors would eliminate some of the complexity and cost, driving prices down another $100 or so but only if the computer itself has a digital video card. For the majority of PC owners today, buying a digital card would more than erase the savings on the monitor.

Compaq is already offering a digital LCD panel as an option on its Presario line of home computers, and at least two other major PC makers will add digital flat-panel options this fall.

There is a major catch, though. I.B.M."s digital flat-panel displays will adhere to a new video interface standard called Plug and Display (P&D), which has been endorsed by major makers of computers, video cards and monitors. The first P&D computer and video card systems will begin appearing in the fall and will work with both analog and digital flat panels. To get digital flat-panel monitors into the marketplace sooner, however, Compaq and some other companies adopted an interim standard called Digital Flat-Panel Port (DFP). In essence a subset of Plug & Display, the DFP system uses a different and, of course, incompatible set of connectors.

It is possible that a simple and inexpensive hardware adapter can be developed to allow DFP systems like Compaq"s to connect to Plug & Display video systems in the near future. No such adapter yet exists, however, so for now the conflicting standards are confusing not only consumers but also the companies that make the equipment.

Once a computer is equipped with a digital video card and a compatible digital LCD monitor, however, the chance of a happy marriage is quite high as long as the relationship between the computer and the LCD is monogamous. Monitor swapping is problematic because, for now at least, most other computers will have analog cards.

Thus, another suggestion: If the LCD monitor is to be community property, consider one of the current analog versions. If it is to be used exclusively with only one computer, it may make sense to wait until the new digital models show up later this year especially if one is buying a new computer to go with it.

Technical discussions aside, the flat monitors may have some intangible benefits, too. James D. Pyler, marketing strategist for visual products for I.B.M. in Raleigh, N.C., recalls putting an early LCD model on his desk several years ago and being quickly surrounded by crowds of admiring co-workers. ""They"re different than the standard monitor, and as a result, they make you look like you"re more important,"" he said. One of the co-workers who came over to admire the LCD later became his wife. He prefers to think she was attracted to him, and not to the monitor.

FOR people who have more money than space, flat-panel displays sound almost too good to be true. Naturally, there is a catch or two, or six or seven, said Raymond Soneira, creator of the popular Displaymate utility program that helps both manufacturers and users get optimum performance from their monitors.

""They are quirkier,"" Mr. Soneira said of the flat-panel monitors, which have a liquid crystal display (LCD). The flat-panel screens require more adjustments to achieve the best picture, and even then they may exhibit odd and perplexing behaviors that would be unacceptable in displays of cathode-ray tubes, or CRT"s.

Imagine being in a football stadium and trying to get hundreds of fans to align themselves perfectly and to flip an assortment of colored cards precisely on cue all day long. Multiplied by thousands, that is the daunting challenge of the transistors that drive the picture elements (pixels) on an LCD monitor.

LCD panels typically have one or more bad pixels, including some that are stuck annoyingly in either the ""on"" or ""off"" position. Laptop computer screens often have similar freckles.

Contrary to popular wisdom, LCD monitors do in fact flicker, Mr. Soneira said. But the flicker is much less noticeable than with CRT"s, so people who stare into a computer screen for most of the day generally report less eye fatigue with LCD"s. This, besides space saving, is one of the prime benefits of flat-panel monitors. Also, on a properly tuned LCD monitor, smaller text is more readable.

Early LCD monitors, besides being wildly expensive, were technically finicky. Viewing angles were narrow, meaning the user had to align his eyeballs almost precisely at the center of the screen to see images at their best. Straying to the side, or up and down, even by a few inches, made images change color, become distorted or lose contrast.

The newest LCD monitors, specifically the type known as TFT (Thin Film Transistor), like those used for laptops -- are much better, although every one we tested showed some degree of color shift as a result either of a change in viewing angle or of variations in lighting across the screen. In terms of retaining contrast at wider viewing angles, though, newer LCD displays are comparable to CRT"s.

Lighting is a crucial distinction between LCD and CRT monitors. The cathode-ray tube generates its own brightness across the screen as electrons excite layers of phosphors and cause them to glow.

But LCD screens are illuminated only by a background light that typically runs around the perimeter of the screen. These fluorescent backlights are known to dim and darken over time.

Because LCD desktop monitors are still new, one can only speculate on the life span of the screen. Manufacturers are coy when asked about it, and concede that no one really knows whether it will be practical to replace fading backlights.

LCD monitors have only one optimum, or native, resolution. CRT displays, in contrast, typically can switch among several standard resolutions. Problems often arise when the LCD monitor tries to display a nonnative resolution, resulting in poor image quality.

Some LCD models -- not all -- offer high native resolutions (up to 1,280 by 1,024 pixels) and colors (16.7 million shades) that rival their sumo-size counterparts. Of the half-dozen flat-panel monitors tested for this article, however, none could display large areas of black reliably. While colors are quite good, they often lack the richness, or saturation, of CRT displays.

Some LCD screens also have slower response times than most CRT"s, Mr. Soneira said, which can lead to disappearing cursors when the mouse is moved quickly, or substandard, jerky performance when full-motion video images are displayed. However, we found no problems when playing DVD movies on the screens.

Screen Printing uses one screen for each color in each design being printed. The Service Fee for the First screen is $15 and each additional screen is $10 ea.

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This study did not show any significant difference in image quality between a standard 2-MP color LCD display and a medical-grade 2-MP monochrome LCD display, neither using the contrast-detail phantom nor in the visual grading study. Our findings are in accordance with several studies that have shown similar performances for color and monochrome displays in a variety of clinical tasks such as brain CT,,2 was acceptable provided that the ambient illuminance was low.

The main purpose of calibrating a monitor according to DICOM part 14 is to obtain similar image presentation on all displays. A calibration distributes the total contrast of the display equally across the entire grayscale and objects will thus be presented with the same contrast regardless of whether they are present in bright or dark parts of the image. When the task is to find known objects in an image, such as targets in a contrast-detail phantom, the window/level controls can be used to optimize image contrast. The display’s contrast characteristics becomes less important and the noise properties become more important—noise from the image detector and noise from the image display. However, this does not mean that calibrating a display is meaningless. Clinical images have little resemblance to images of a contrast-detail phantom in that pathology might be present also in the bright or dark parts of the image. A consistent display of images is even more important when, for example, a current image is compared to a previous image on another display. Any differences between the images should be caused by the imaged object and not by the displays.

The main advantage of medical-grade monochrome displays is their high luminance, which makes it easier to see the entire grayscale from black to white in an image. In a recent report,

The major drawback of color displays is their lower maximum luminance—143 cd/m2 in our study compared to 295 cd/m2 for the monochrome display. A low luminance has been stated to increase the time for diagnosis.

The tests with the contrast-detail phantom showed very small differences in image quality between the two types of displays. There was in fact a larger difference in image quality between the flat-panel detector and the storage phosphor plates (Fig. 2). It might thus be more appropriate to choose a better (more expensive) imaging system such as a flat-panel detector and use (cheaper) color displays than the opposite. Irrespective of the detector being used, there was a large interobserver variability, similar to what has been reported previously.2.

The higher ambient illuminance setting resulted in slightly poorer lesion detection on the 2-MP color display, but resulted in no difference with the 2-MP monochrome display. It is known that ambient illuminance should be low as ambient light elevates the black level of the display,

The visual grading study using clinical images showed significantly higher image quality for the 2-MP monochrome display for reproduction of pedicles and intervertebral joints; and lower for reproduction of spinous and transverse processes. Overall, there was no significant difference between the displays in the visual grading part of the study.

Free adjustment of window width and level was allowed in our study, as that is the way radiologists work in everyday practice. Windowing is easily performed by moving the computer mouse. If this type of image processing is not done, the full potential of digital imaging is not used. We consider image adjustment and manipulation to be a natural part in reading a digital image, and indeed a necessity to view all information in the image, and consequently a comparison between monochrome and color displays without the use of free adjustment of window and level was not included in this study. This is probably one reason why the 2-MP color display performed so well. All information in the image could be placed in the middle (gray) area of the contrast span where the two display types were almost equal. A drawback is that the user’s performance efficiency might be reduced.

To let all PACS stations in a radiology department have the capability to display all types of images, it is necessary to equip them with display units that are able to display also images with color information such as Doppler ultrasound, 3D volume rendered CT images, PET images, and SPECT images. It is costly to furnish an entire radiology department with the more expensive monochrome displays, and color displays might also, for economic reasons, be a better alternative. The new users of digital radiological image information, the clinicians, usually opt for color displays, which may be a conscious cost-saving decision or simply the effect of old habits.

The spatial resolution of the displays was not evaluated specifically in this study because the two displays used in the majority of tests had the same resolution. When used without magnification, the 3-MP monochrome display showed a trend toward higher image quality compared to the 2-MP color display. This is not surprising because the images were scaled to fit the display in that particular test. None of the displays managed to show all of the five megapixels that the test image consisted of, but the 3-MP display did show a larger proportion of the image information than the 2-MP displays.

The power consumption of computer or tv displays vary significantly based on the display technology used, manufacturer and build quality, the size of the screen, what the display is showing (static versus moving images), brightness of the screen and if power saving settings are activated.

Click calculate to find the energy consumption of a 22 inch LED-backlit LCD display using 30 Watts for 5 hours a day @ $0.10 per kWh. Check the table below and modify the calculator fields if needed to fit your display.

LED & LCD screens use the same TFT LCD (thin film transistor liquid crystal display) technology for displaying images on the screen, when a product mentions LED it is referring to the backlighting. Older LCD monitors used CCFL (cold cathode fluorescent) backlighting which is generally 20-30% less power efficient compared to LED-backlit LCD displays.

In general we recommend LED displays because they offer the best power savings and are becoming more cheaper. Choose a display size which you are comfortable with and make sure to properly calibrate your display to reduce power use. Enable energy saving features, lower brightness and make sure the monitor goes into sleep mode after 5 or 10 minutes of inactivity. Some research studies also suggest that setting your system themes to a darker color may help reduce energy cost, as less energy is used to light the screen. Also keep in mind that most display will draw 0.1 to 3 watts of power even if they are turned off or in sleep mode, unplugging the screen if you are away for extended periods of time may also help.