The company's OMAP 5 processor offers dedicated engines for video, 3D graphics, display and security.
Semiconductor specialist Texas Instruments (TI) announced the next
generation of its OMAP family, the OMAP 5 mobile applications platform,
boasting two ARM Cortex-A15 MPCores - the most advanced ARM
architecture to date - capable of speeds of up to 2 GHz per core in the
OMAP 5 implementation.
The 28 nanometer OMAP 5 applications processors offer up to three times
the processing performance and five-fold 3D graphics improvement, yet
provide a nearly 60 percent average power reduction compared to a
sample user experience on the OMAP 4 platform, according to a company
release. In addition to the two Cortex-A15 cores, the OMAP 5 processor
includes individual, dedicated engines for video, imaging and vision,
digital signal processing (DSP), 3D graphics, 2D graphics, display and
security.
The processor also includes two ARM Cortex-M4 processors for offloading
real-time processing from the Cortex-A15 cores, which is designed to
improve low-level control and responsiveness of mobile devices. The
processor can support up to four cameras in parallel, as well as record
and play back S3D video in 1080p quality, and perform real-time
conversion of 2D content to S3D at 1080p resolution.
"The next decade will bring a revolution in mobile computing, as
devices continue to converge, attempting to become one single device
that meets all of our computing, entertainment, and complex day-to-day
needs and interests. However, the bridge to true mobile computing
enablement was missing until today," said TI's vice president of the
OMAP platform business unit Remi El-Ouazzane. "The OMAP 5 platform will
be at the heart of driving the mobile computing revolution by
delivering the highest computing, graphics and multimedia performance
possible within the low power budget required by mobile form factors,"
The processor is also architected to deliver short- and long-range
gesturing applications, as well as full-body and multi-body interactive
gestures, utilizing either 2D or S3D cameras. The processor, coupled
with a TI DLP Pico projector and a camera, can also enable interactive
projection where the user can actually "touch and drag" projected
images on both a table top or wall. Additionally, the processor can
interface with and leverage a wide variety of sensor technologies to
enable touchless sensing, such as proximity sensing, capacitive sensing
and ultrasonic sensing.
"We continue to see high performance mobile devices, such as advanced
Smartphones and tablets, requiring increased processor performance
while remaining within the restricted mobile power consumption
boundaries," said Mike Inglis, executive vice president and general
manager of the ARM processor division. "The OMAP 5 processor
highlights the advantage of the ARM business model. The relationship
enables product differentiation through the integration of low power
multi-core ARM processor cores with the partners' own system-on-chip
technologies, including power management, audio and video
processing. ARM is proud to have contributed to the OMAP 5
platform, which enables OEM customers to leverage the extensive
ARM software ecosystem to quickly deliver innovative new mobile
solutions."
TI said the OMAP 5 platform is expected to sample in the second half of
2011, with devices on the market in the second half of 2012. The
OMAP5430 processor is offered in a 14x14mm Package-on-Package (PoP)
with LPDDR2 memory support, while the OMAP5432 processor is offered in
a 17x17mm BGA package with DDR3/DDR3L memory support. The company noted
the products are intended for high-volume mobile OEMs and ODMs and are
not available through distributors. The company said it also plans to
develop compatible ARM Cortex-A15 processor-based solutions for broader
market applications across TI's product portfolio.
Nathan Eddy is Associate Editor, Midmarket, at eWEEK.com. Before joining eWEEK.com, Nate was a writer with ChannelWeb and he served as an editor at FierceMarkets. He is a graduate of the Medill School of Journalism at Northwestern University.