Video Connections

(9) COMPOSITE VIDEO INPUTS 1 THROUGH 6

These are the default video inputs. Connect the composite video output cables coming from your video sources to these inputs. Note: Take care to use inputs with the same name for the composite video, S-Video and analog audio cables from a single source. E.g. cables from a VCR (VideoCassette Recorder) should go to the VCR-VIDEO, VCR COMPOSITE VIDEO and VCR ANALOG inputs. The composite video signal is selected from these signals, and the signal is fed out from the COMPOSITE VIDEO record (REC) and monitor (MON) outputs. On Screen Display information is added to the MON output.

(10) COMPOSITE VIDEO RECORD AND MONITOR OUTPUTS

Connect the Composite Video input of your VCR to the COMPOSITE VIDEO REC output. Connect the Composite Video input of your display device (TV) to the COMPOSITE VIDEO MON output. The On Screen Display (OSD) information is present at this output. You can also use the COMPOSITE VIDEO MON output even if there is no composite video source connected. The S-Video signal you have selected is down-mixed to this output and you can use it for monitoring. Even on OSD video outputs, the OSD info can be turned off by going to the MENU function and selecting DISPLAY, then selecting OFF.

(11) COMPOSITE VIDEO ZONE AND MONITOR OUTPUTS (MONITOR WITHOUT OSD)

This is an additional Composite Video and Monitor output. You can use it for example to give a different signal to a TV located in another room called zone 2. On this Monitor output the On Screen Display (OSD) is not displayed.

(12) S-VIDEO INPUTS 1 THROUGH 6

Connect the S-Video output cables from your video sources to these inputs. Note: Take care to use inputs with the same name for the Composite Video, S-Video and analog audio cables from a single source. S-Video signals are of higher quality than Composite Video signals. So if you have a source device with S-Video outputs, we recommend you to use them, together with the S-Video inputs on your display. S-Video inputs are also automatically down-mixed to feed the Composite Video MON OSD output for displays that are without S-Video inputs.

(13) S-VIDEO MONITOR OUTPUT (WITHOUT OSD)

On this S-Video Monitor output, the On Screen Display (OSD) is not displayed.

(14) S-VIDEO MONITOR OUTPUT (WITH OSD)

On this S-Video Monitor output, the On Screen Display (OSD) is displayed, but you can switch it off by using the menu.

(15) S-VIDEO RECORD OUTPUT

Connect the S-Video input of your VCR to the S-VIDEO REC output. Connect the S-Video input of your display device (TV) to one of the two S-VIDEO MONITOR outputs (see items 13 and 14).

(23) COMPONENT VIDEO INPUTS AND OUTPUTS

Connect the three component video cables from your DVD player, HDTV tuner or HD Satellite Receiver to any of the three sets of Component Video Inputs. Make certain you follow the color coding of the jacks and cables or the labels Pb, Pr, and Y. Sometimes these are called Cb, Cr and Y instead. Connect the Component Video outputs of the ATP 8500 to the Component Video inputs on your TV.

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ATI Technologies ATP 8500 manual Video Connections

ATP 8500 specifications

The ATI Technologies ATP 8500 is a significant graphics card that made its mark in the early 2000s, particularly among gamers and graphic designers looking for advanced performance at an affordable price point. Released as part of ATI's Radeon series, the ATP 8500 was lauded for its innovative technologies that set it apart from its competitors.

One of the primary features of the ATP 8500 is its support for DirectX 8, allowing it to render stunning graphics with realistic textures and effects. This capability was especially important during the early days of 3D gaming, where the demand for improved visuals was rising. The card utilized a 0.15-micron manufacturing process, which enabled better power efficiency and performance compared to its predecessors.

The ATP 8500 comes with 64MB or 128MB of DDR memory, offering respectable memory bandwidth speeds that were well-suited for most games at the time. This memory design facilitated quicker data access and improved overall rendering speeds, which enhanced the gaming experience without causing significant frame rate drops.

Another notable feature of the ATP 8500 is its implementation of the HyperZ technology. This was a revolutionary technology that improved memory bandwidth efficiency through techniques like occlusion culling and fast Z-buffering. As a result, the graphics card was capable of efficiently rendering complex scenes without overloading its memory resources, which was crucial for maintaining performance in graphically intense situations.

The card also introduced Adaptive Anti-Aliasing, which helped to smooth out jagged edges in graphics, creating a more visually appealing experience. This feature made it easier for gamers to immerse themselves in their virtual worlds, as the overall graphical fidelity was significantly enhanced.

In addition to its gaming capabilities, the ATI Technologies ATP 8500 also catered to multimedia applications. It supported video playback and included features for high-quality rendering of movies and animation, further broadening its appeal beyond just the gaming community.

In conclusion, the ATI Technologies ATP 8500 was a remarkable graphics card that combined cutting-edge technology with impressive performance characteristics. Its support for advanced graphics rendering, efficient memory handling, and multimedia capabilities made it a popular choice for users looking for a balance of performance and value during its time. The legacy of the ATP 8500 paved the way for future innovations in graphics technology, and it remains a memorable part of ATI's history in the competitive graphics card market.