Utah
Scientific today introduced the UTAH-400/XL, the first router in the industry
to offer a 1056x1056 matrix in a single equipment rack while using
industry-standard BNC connectors. Adding to the company's widely successful
UTAH-400 routing switcher product family and the recently introduced
UTAH-400/528, the UTAH-400/XL was developed to provide a single platform for
all digital router applications requiring extremely large matrix
configurations.
"Size
still matters when it comes to video routing," said Tom Harmon, CEO of
Utah Scientific. "The demand for matrix capacity continues to increase,
but so also does the demand for a small footprint. The UTAH-400/XL and its
little brother, the UTAH-400/528, address these conflicting requirements in a
big way — they are the largest matrixes in the smallest space, and they
are accompanied by all the well-known features and reliability of the UTAH-400
family. No compromises."
Thanks
to an innovative matrix architecture, the UTAH-400/XL is readily scalable from
288x288 to 1056x1056 and beyond using a single family of matrix building
blocks. In addition to this flexibility of configuration, the UTAH-400/XL
offers tremendous reductions in the physical space and power consumption
requirements of large routing systems.
As
the largest member of the UTAH-400 family of digital routing switchers, the
UTAH-400/XL offers system designers the ability to place a 1056x1056 matrix in
just 40 rack units of space, without the need for special cable/connector
arrangements.
The
UTAH-400/XL uses industry-standard 75-ohm BNC connectors for I/O, providing the
highest connector density ever seen on a router of this size. The UTAH-400/XL
offers all of the UTAH-400 family's well-known advantages, including redundant
power supplies, low power consumption for cooler and more reliable operation,
and signal format flexibility — including the ability to handle the new
3-Gbps progressive-scan HD signal formats.
Another
unique feature of the UTAH-400/XL architecture is that each crosspoint card
actually has 576 inputs and 288 outputs, providing additional internal signal
paths that can be used for a number of purposes, such as providing partial
crosspoint redundancy without the need for redundant crosspoint cards.