Template:Normal failure rate function - Revision history

Richard House: Redirected page to The Normal Distribution

2012-08-13T02:55:53Z

Redirected page to The Normal Distribution

← Older revision		Revision as of 02:55, 13 August 2012
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	~~===The Normal Failure Rate Function===~~		#REDIRECT [[The_Normal_Distribution]]

	~~The instantaneous normal failure rate is given by:~~

	::<math>\lambda (t)=\frac{f(t)}{R(t)}=\frac{\tfrac{1}{{{\sigma }}\sqrt{2\pi }}{{e}^{-\tfrac{1}{2}{{\left( \tfrac{t-\mu }{{{\sigma }}} \right)}^{2}}}}}{\int_{t}^{\infty }\tfrac{1}{{{\sigma }}\sqrt{2\pi }}{{e}^{-\tfrac{1}{2}{{\left( \tfrac{x-\mu }{{{\sigma }}} \right)}^{2}}}}dx}</math>

Harry Guo: /* The Normal Failure Rate Function */

2012-02-10T18:05:06Z

The Normal Failure Rate Function

← Older revision		Revision as of 18:05, 10 February 2012
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	The instantaneous normal failure rate is given by:		The instantaneous normal failure rate is given by:

	::<math>\lambda (T)=\frac{f(T)}{R(T)}=\frac{\tfrac{1}{{{\sigma ~~}_{T~~}}\sqrt{2\pi }}{{e}^{-\tfrac{1}{2}{{\left( \tfrac{T-\mu }{{{\sigma ~~}_{T~~}}} \right)}^{2}}}}}{\int_{T}^{\infty }\tfrac{1}{{{\sigma ~~}_{T~~}}\sqrt{2\pi }}{{e}^{-\tfrac{1}{2}{{\left( \tfrac{t-\mu }{{{\sigma ~~}_{T~~}}} \right)}^{2}}}}dt}</math>		::<math>\lambda (t)=\frac{f(t)}{R(t)}=\frac{\tfrac{1}{{{\sigma }}\sqrt{2\pi }}{{e}^{-\tfrac{1}{2}{{\left( \tfrac{t-\mu }{{{\sigma }}} \right)}^{2}}}}}{\int_{t}^{\infty }\tfrac{1}{{{\sigma }}\sqrt{2\pi }}{{e}^{-\tfrac{1}{2}{{\left( \tfrac{x-\mu }{{{\sigma }}} \right)}^{2}}}}dx}</math>

Nicolette Young: Created page with '===The Normal Failure Rate Function=== The instantaneous normal failure rate is given by: :: $\lambda (T)=\frac{f(T)}{R(T)}=\frac{\tfrac{1}{{{\sigma }_{T}}\sqrt{2\pi }}{{e…'$

2012-01-04T17:29:58Z

Created page with '===The Normal Failure Rate Function=== The instantaneous normal failure rate is given by: ::<math>\lambda (T)=\frac{f(T)}{R(T)}=\frac{\tfrac{1}{{{\sigma }_{T}}\sqrt{2\pi }}{{e…'

New page

===The Normal Failure Rate Function===

The instantaneous normal failure rate is given by:

::<math>\lambda (T)=\frac{f(T)}{R(T)}=\frac{\tfrac{1}{{{\sigma }_{T}}\sqrt{2\pi }}{{e}^{-\tfrac{1}{2}{{\left( \tfrac{T-\mu }{{{\sigma }_{T}}} \right)}^{2}}}}}{\int_{T}^{\infty }\tfrac{1}{{{\sigma }_{T}}\sqrt{2\pi }}{{e}^{-\tfrac{1}{2}{{\left( \tfrac{t-\mu }{{{\sigma }_{T}}} \right)}^{2}}}}dt}</math>

Template:Normal failure rate function - Revision history

Richard House: Redirected page to The Normal Distribution

Harry Guo: /* The Normal Failure Rate Function */

Nicolette Young: Created page with '===The Normal Failure Rate Function=== The instantaneous normal failure rate is given by: ::\lambda (T)=\frac{f(T)}{R(T)}=\frac{\tfrac{1}{{{\sigma }_{T}}\sqrt{2\pi }}{{e…'

Nicolette Young: Created page with '===The Normal Failure Rate Function=== The instantaneous normal failure rate is given by: :: $\lambda (T)=\frac{f(T)}{R(T)}=\frac{\tfrac{1}{{{\sigma }_{T}}\sqrt{2\pi }}{{e…'$