IDT introduced its first wireless charging products— an integrated
IDTP9030 transmitter and multi-mode IDTP9020 receiver— earlier this year
based on the Qi standard supporting magnetic induction. IDT’s
development of an integrated transmitter and receiver chip set for
Intel’s wireless approach is based on resonance technology. The solution
will enable, for instance, smartphones to wirelessly charge by placing
it next to a PC equipped with the appropriate software. Intel’s wireless
technology supports Windows 7 and 8, according to Naghavi.
induction charging technology employs one coil inside a map and one
inside the receiver. Once the transmitter is placed on top, it would
transfer the energy from the transmitter to the receiver. The difference
between magnetic resonance and magnetic induction technology is there
isn’t a need for a map. As long as the device is close to coil, it will
transfer the power, Naghavi explained.
IDT’s first wireless
charging product “helped us prove our competency in technology to Intel
and others that we have a differentiated solution, and we are able to
integrate these components. Our closest competitor has a multichip
solution,” Naghavi said.
Added Ohr: “IDT should be congratulated
for being recognized by Intel on this.” However, analysts couldn’t
quantify the value of the design win since the wireless charging market
is still in its infancy. Also, product revenues are likely to take five
years to aggregate, according to analysts.
Intel didn’t disclose
when it expects to roll out the reference designs. Meanwhile, IDT
expects samples of a resonance receiver IC to be ready by the end of the
year, and the transmitter IC is expected to sample in the first half of
Fortunately for circuit designers, a new tool is available that can simplify the process of identifying the ESD suppression device best suited to an application, which makes it far easier to incorporate circuit protection earlier in the board planning process. The Littelfuse iDesign™ Online Simulation and Product Selection Tool
. I received a very good reader question from my last blog post regarding the various parameters that are reported by the tool. Let’s take a look at an example and explore the parameters that are returned. In this example we will look at the AD9643-250.
Managing system thermal performance is critical in today’s electronic systems if you are to maximize performance and the user experience. As systems grow more powerful, and in many cases smaller in size, managing the thermal profile has become an ever-increasing challenge. Monitoring the current provides a leading indicator to potential thermal issues.
In blog number 3, we are going to divert a little from our normal trend of evaluating power supply design and simulation tools. Instead, we are going to look into power management tools that are online.