Help with High-Power Limit Problem

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N: In summary, the limit approaches infinity as x approaches infinity due to the fact that 30 is the strongest power and the brackets can be divided by x.
  • #1
Yankel
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hello,

I need some help with this limit...

[tex]\lim_{x\to \infty }\frac{(2x-1)^{10}(x-2)^{30}}{(x+1)^{20}(2x+3)^{20}}[/tex]

thanks...
 
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  • #2
What ideas have you had so far?
 
  • #3
The only thing I could think of was to somehow push x^30 inside the powers, but I don't know how...

30 is the strongest power when it comes to infinity, so there must be something with 30.
 
  • #4
Yankel said:
hello,

I need some help with this limit...

[tex]\lim_{x\to \infty }\frac{(2x-1)^{10}(x-2)^{30}}{(x+1)^{20}(2x+3)^{20}}[/tex]

thanks...
for \( x\ne 0 \) divide each of the 40 brackets at top and bottom by \(x\):

\[ \frac{(2x-1)^{10}(x-2)^{30}}{(x+1)^{20}(2x+3)^{20}}= \frac{(2-x^{-1})^{10}(1-2x^{-1})^{30}}{(1+x^{-1})^{20}(2+3x^{-1})^{20}}\]

CB
 

FAQ: Help with High-Power Limit Problem

What is a high-power limit problem?

A high-power limit problem refers to a situation in which a system or process is operating at a power level that is close to or exceeding its maximum capacity. This can lead to issues such as overheating, component failure, and reduced efficiency.

What are some common causes of high-power limit problems?

High-power limit problems can be caused by a variety of factors, including inadequate cooling systems, power supply issues, overloading of circuits or components, and improper system design or installation. They can also be the result of unexpected increases in power demands.

How can high-power limit problems be prevented?

To prevent high-power limit problems, it is important to carefully design and install systems with sufficient power capacities and adequate cooling mechanisms. Regular maintenance and monitoring of power usage can also help to identify and address potential issues before they become major problems.

What are the consequences of a high-power limit problem?

The consequences of a high-power limit problem can vary depending on the specific situation, but they may include system downtime, damage to components or equipment, decreased performance or efficiency, and potential safety hazards. In extreme cases, a high-power limit problem can even lead to system failure or fires.

How can high-power limit problems be solved?

Solving a high-power limit problem typically involves identifying and addressing the underlying cause, such as upgrading cooling systems, redistributing power loads, or adjusting system design. In some cases, it may also be necessary to replace damaged or malfunctioning components. It is important to consult with a qualified expert to determine the best course of action for a specific high-power limit problem.

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