HOW TO OVERCLOCK 2.0 GHZ LENOVO K3 NOTE VIBEUI 3.0 1604 ROM

THIS IS FULL GUIDE TO OVERCLOCK LENOVO K3 NOTE
VIBEUI 3.0 1604 ROMS UPTO 2.0 GHZ

BEFORE DOING ANYTHING YOU MUST KNOW ABOUT OVERCLOCKING

Overclocking is the configuration of a computer hardware component to operate at a faster rate than was certified by the original manufacturer, generally specified as a given clock frequency in Megahertz (MHz) or Gigahertz (GHz). Commonly the operating voltage of the overclocked device is also increased, which can help with maintaining the component's operational stability at the accelerated speeds. However, a given semiconductor device will generate more heat when operated at higher frequencies and voltages, so most overclocking attempts will increase power consumption and heat as well. The overclocked device may be unreliable or fail completely if the additional heat load is not removed, or if the supporting power delivery components cannot handle the increased power demands.

Underclocking :-

Conversely, the primary goal of underclocking is to reduce power consumption and the resultant heat generation of a device, with the trade-offs being lower clock speeds and reductions in performance. Reducing the cooling requirements needed to keep a part at a given operational temperature has knock-on benefits such as lowering the number and speed of fans to allow quieter operation, and in mobile devices increase battery life per charge. Some manufacturers underclock components of battery-powered equipment to improve battery life, or implement systems that detect when a devices is operating under battery power and reduce clock frequency accordingly.

Underclocking is almost always involved in the latter stages of Undervolting which seeks to find the highest clock speed that a processor will stably operate at a given voltage. That is, while overclocking seeks to maximize clock speed with temperature and power as constraints, underclocking seeks to find the highest clock speed that a device can reliably operate at a fixed, arbitrary power limit. A given device may operate correctly at its stock speed even when undervolted, in which case underclocking would only be employed after further reductions in voltage finally destabilizes the part. At that point the user would need to determine if last working voltage and speed have satisfactorily lowered power consumption for their needs - if not then performance must be sacrificed, a lower clock is chosen (the underclock) and testing at progressively lower voltages would continue from that point. A lower bound is where the device itself fails to function and/or the supporting circuity cannot reliably communicate with the part.

Underclocking and undervolting are usually attempted if a system needs to operate silently (such as a multimedia player), but higher performance is desired than is offered by a given processor manufacturer's low-voltage offerings. The builder will attempt to take a higher performance desktop part with a higher stock thermal output, and see if the processor will run with lower voltages and speeds within an acceptable performance/noise target for the build. Thus it may give some options to undervolt/underclock a standard voltage processor in a "low voltage" application either to avoid paying a price premium for an officially certified low voltage version (some low-power versions are significantly more expensive, and even then are often still slower than their desktop equivalent), or if better performance is required than offered by the low power processors available.