[Returnanalytics-commits] r2880 - in pkg/PerformanceAnalytics/sandbox/Shubhankit: . man

noreply at r-forge.r-project.org noreply at r-forge.r-project.org
Sun Aug 25 12:42:42 CEST 2013


Author: braverock
Date: 2013-08-25 12:42:42 +0200 (Sun, 25 Aug 2013)
New Revision: 2880

Removed:
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Normalized.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/EmaxDDGBM.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/table.NormDD.Rd
Modified:
   pkg/PerformanceAnalytics/sandbox/Shubhankit/DESCRIPTION
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/ACStdDev.annualized.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/AcarSim.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CDD.Opt.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Norm.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.normalized.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/Cdrawdown.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/GLMSmoothIndex.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/LoSharpe.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/Return.GLM.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/Return.Okunev.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/SterlingRatio.Norm.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/chart.Autocorrelation.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/quad.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/table.ComparitiveReturn.GLM.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/table.EmaxDDGBM.Rd
   pkg/PerformanceAnalytics/sandbox/Shubhankit/man/table.UnsmoothReturn.Rd
Log:
- update roxygen docs 
- remove old different-case files for several functions


Modified: pkg/PerformanceAnalytics/sandbox/Shubhankit/DESCRIPTION
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/DESCRIPTION	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/DESCRIPTION	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,38 +1,38 @@
-Package: noniid.sm
-Type: Package
-Title: Non-i.i.d. GSoC 2013 Shubhankit
-Version: 0.1
-Date: $Date: 2013-05-13 14:30:22 -0500 (Mon, 13 May 2013) $
-Author: Shubhankit Mohan <shubhankit1 at gmail.com>
-Contributors: Peter Carl, Brian G. Peterson
-Depends:
-    xts,
-    PerformanceAnalytics
-Suggests:
-    PortfolioAnalytics
-Maintainer: Brian G. Peterson <brian at braverock.com>
-Description: GSoC 2013 project to replicate literature on drawdowns and
-    non-i.i.d assumptions in finance.
-License: GPL-3
-ByteCompile: TRUE
-Collate:
-    'ACStdDev.annualized.R'
-    'CalmarRatio.Normalized.R'
-    'CDDopt.R'
-    'CDrawdown.R'
-    'chart.Autocorrelation.R'
-    'EmaxDDGBM.R'
-    'GLMSmoothIndex.R'
-    'maxDDGBM.R'
-    'na.skip.R'
-    'Return.GLM.R'
-    'table.ComparitiveReturn.GLM.R'
-    'table.normDD.R'
-    'table.UnsmoothReturn.R'
-    'UnsmoothReturn.R'
-    'AcarSim.R'
-    'CDD.Opt.R'
-    'CalmarRatio.Norm.R'
-    'SterlingRatio.Norm.R'
-    'LoSharpe.R'
-    'Return.Okunev.R'
+Package: noniid.sm
+Type: Package
+Title: Non-i.i.d. GSoC 2013 Shubhankit
+Version: 0.1
+Date: $Date: 2013-05-13 14:30:22 -0500 (Mon, 13 May 2013) $
+Author: Shubhankit Mohan <shubhankit1 at gmail.com>
+Contributors: Peter Carl, Brian G. Peterson
+Depends:
+    xts,
+    PerformanceAnalytics
+Suggests:
+    PortfolioAnalytics
+Maintainer: Brian G. Peterson <brian at braverock.com>
+Description: GSoC 2013 project to replicate literature on drawdowns and
+    non-i.i.d assumptions in finance.
+License: GPL-3
+ByteCompile: TRUE
+Collate:
+    'ACStdDev.annualized.R'
+    'CalmarRatio.Normalized.R'
+    'CDDopt.R'
+    'CDrawdown.R'
+    'chart.Autocorrelation.R'
+    'EmaxDDGBM.R'
+    'GLMSmoothIndex.R'
+    'maxDDGBM.R'
+    'na.skip.R'
+    'Return.GLM.R'
+    'table.ComparitiveReturn.GLM.R'
+    'table.normDD.R'
+    'table.UnsmoothReturn.R'
+    'UnsmoothReturn.R'
+    'AcarSim.R'
+    'CDD.Opt.R'
+    'CalmarRatio.Norm.R'
+    'SterlingRatio.Norm.R'
+    'LoSharpe.R'
+    'Return.Okunev.R'

Modified: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/ACStdDev.annualized.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/ACStdDev.annualized.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/ACStdDev.annualized.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,52 +1,52 @@
-\name{ACStdDev.annualized}
-\alias{ACStdDev.annualized}
-\alias{sd.annualized}
-\alias{sd.multiperiod}
-\alias{StdDev.annualized}
-\title{Autocorrleation adjusted Standard Deviation}
-\usage{
-  ACsd.annualized(edhec,3)
-}
-\arguments{
-  \item{x}{an xts, vector, matrix, data frame, timeSeries
-  or zoo object of asset returns}
-
-  \item{lag}{: number of autocorrelated lag factors
-  inputted by user}
-
-  \item{scale}{number of periods in a year (daily scale =
-  252, monthly scale = 12, quarterly scale = 4)}
-
-  \item{\dots}{any other passthru parameters}
-}
-\description{
-  Incorporating the component of lagged autocorrelation
-  factor into adjusted time scale standard deviation
-  translation
-}
-\details{
-  Given a sample of historical returns R(1),R(2), . .
-  .,R(T),the method assumes the fund manager smooths
-  returns in the following manner, when 't' is the unit
-  time interval: The square root time translation can be
-  defined as : \deqn{ \sigma(T) = T \sqrt\sigma(t)}
-}
-\author{
-  Peter Carl,Brian Peterson, Shubhankit Mohan
-}
-\references{
-  Burghardt, G., and L. Liu, \emph{ It's the
-  Autocorrelation, Stupid (November 2012) Newedge working
-  paper.} \code{\link[stats]{}} \cr
-  \url{http://www.amfmblog.com/assets/Newedge-Autocorrelation.pdf}
-}
-\seealso{
-  \code{\link[stats]{sd}} \cr
-  \code{\link[stats]{stdDev.annualized}} \cr
-  \url{http://en.wikipedia.org/wiki/Volatility_(finance)}
-}
-\keyword{distribution}
-\keyword{models}
-\keyword{multivariate}
-\keyword{ts}
-
+\name{ACStdDev.annualized}
+\alias{ACStdDev.annualized}
+\alias{sd.annualized}
+\alias{sd.multiperiod}
+\alias{StdDev.annualized}
+\title{Autocorrleation adjusted Standard Deviation}
+\usage{
+  ACsd.annualized(edhec,3)
+}
+\arguments{
+  \item{x}{an xts, vector, matrix, data frame, timeSeries
+  or zoo object of asset returns}
+
+  \item{lag}{: number of autocorrelated lag factors
+  inputted by user}
+
+  \item{scale}{number of periods in a year (daily scale =
+  252, monthly scale = 12, quarterly scale = 4)}
+
+  \item{\dots}{any other passthru parameters}
+}
+\description{
+  Incorporating the component of lagged autocorrelation
+  factor into adjusted time scale standard deviation
+  translation
+}
+\details{
+  Given a sample of historical returns R(1),R(2), . .
+  .,R(T),the method assumes the fund manager smooths
+  returns in the following manner, when 't' is the unit
+  time interval: The square root time translation can be
+  defined as : \deqn{ \sigma(T) = T \sqrt\sigma(t)}
+}
+\author{
+  Peter Carl,Brian Peterson, Shubhankit Mohan
+}
+\references{
+  Burghardt, G., and L. Liu, \emph{ It's the
+  Autocorrelation, Stupid (November 2012) Newedge working
+  paper.} \code{\link[stats]{}} \cr
+  \url{http://www.amfmblog.com/assets/Newedge-Autocorrelation.pdf}
+}
+\seealso{
+  \code{\link[stats]{sd}} \cr
+  \code{\link[stats]{stdDev.annualized}} \cr
+  \url{http://en.wikipedia.org/wiki/Volatility_(finance)}
+}
+\keyword{distribution}
+\keyword{models}
+\keyword{multivariate}
+\keyword{ts}
+

Modified: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/AcarSim.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/AcarSim.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/AcarSim.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,50 +1,50 @@
-\name{AcarSim}
-\alias{AcarSim}
-\title{Acar-Shane Maximum Loss Plot}
-\usage{
-  AcarSim(R)
-}
-\arguments{
-  \item{R}{an xts, vector, matrix, data frame, timeSeries
-  or zoo object of asset returns}
-}
-\description{
-  To get some insight on the relationships between maximum
-  drawdown per unit of volatility and mean return divided
-  by volatility, we have proceeded to Monte-Carlo
-  simulations. We have simulated cash flows over a period
-  of 36 monthly returns and measured maximum drawdown for
-  varied levels of annualised return divided by volatility
-  varying from minus \emph{two to two} by step of
-  \emph{0.1} . The process has been repeated \bold{six
-  thousand times}.
-}
-\details{
-  Unfortunately, there is no \bold{analytical formulae} to
-  establish the maximum drawdown properties under the
-  random walk assumption. We should note first that due to
-  its definition, the maximum drawdown divided by
-  volatility is an only function of the ratio mean divided
-  by volatility. \deqn{MD/[\sigma]= Min (\sum[X(j)])/\sigma
-  = F(\mu/\sigma)} Where j varies from 1 to n ,which is the
-  number of drawdown's in simulation
-}
-\examples{
-library(PerformanceAnalytics)
-AcarSim(edhec)
-}
-\author{
-  Peter Carl, Brian Peterson, Shubhankit Mohan
-}
-\references{
-  Maximum Loss and Maximum Drawdown in Financial
-  Markets,\emph{International Conference Sponsored by BNP
-  and Imperial College on: Forecasting Financial Markets,
-  London, United Kingdom, May 1997}
-  \url{http://www.intelligenthedgefundinvesting.com/pubs/easj.pdf}
-}
-\keyword{Drawdown}
-\keyword{Loss}
-\keyword{Maximum}
-\keyword{Simulated}
-
+\name{AcarSim}
+\alias{AcarSim}
+\title{Acar-Shane Maximum Loss Plot}
+\usage{
+  AcarSim(R)
+}
+\arguments{
+  \item{R}{an xts, vector, matrix, data frame, timeSeries
+  or zoo object of asset returns}
+}
+\description{
+  To get some insight on the relationships between maximum
+  drawdown per unit of volatility and mean return divided
+  by volatility, we have proceeded to Monte-Carlo
+  simulations. We have simulated cash flows over a period
+  of 36 monthly returns and measured maximum drawdown for
+  varied levels of annualised return divided by volatility
+  varying from minus \emph{two to two} by step of
+  \emph{0.1} . The process has been repeated \bold{six
+  thousand times}.
+}
+\details{
+  Unfortunately, there is no \bold{analytical formulae} to
+  establish the maximum drawdown properties under the
+  random walk assumption. We should note first that due to
+  its definition, the maximum drawdown divided by
+  volatility is an only function of the ratio mean divided
+  by volatility. \deqn{MD/[\sigma]= Min (\sum[X(j)])/\sigma
+  = F(\mu/\sigma)} Where j varies from 1 to n ,which is the
+  number of drawdown's in simulation
+}
+\examples{
+library(PerformanceAnalytics)
+AcarSim(edhec)
+}
+\author{
+  Peter Carl, Brian Peterson, Shubhankit Mohan
+}
+\references{
+  Maximum Loss and Maximum Drawdown in Financial
+  Markets,\emph{International Conference Sponsored by BNP
+  and Imperial College on: Forecasting Financial Markets,
+  London, United Kingdom, May 1997}
+  \url{http://www.intelligenthedgefundinvesting.com/pubs/easj.pdf}
+}
+\keyword{Drawdown}
+\keyword{Loss}
+\keyword{Maximum}
+\keyword{Simulated}
+

Modified: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CDD.Opt.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CDD.Opt.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CDD.Opt.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,63 +1,63 @@
-\name{CDD.Opt}
-\alias{CDD.Opt}
-\title{Chekhlov Conditional Drawdown at Risk Optimization}
-\usage{
-  CDD.Opt(rmat, alpha = 0.05, rmin = 0, wmin = 0, wmax = 1,
-    weight.sum = 1)
-}
-\arguments{
-  \item{Ra}{return vector of the portfolio}
-
-  \item{p}{confidence interval}
-}
-\description{
-  A new one-parameter family of risk measures called
-  Conditional Drawdown (CDD) has been proposed. These
-  measures of risk are functionals of the portfolio
-  drawdown (underwater) curve considered in active
-  portfolio management. For some value of the tolerance
-  parameter, in the case of a single sample path, drawdown
-  functional is defined as the mean of the worst (1 -
-  \eqn{\alpha})% drawdowns.
-}
-\details{
-  This section formulates a portfolio optimization problem
-  with drawdown risk measure and suggests efficient
-  optimization techniques for its solving. Optimal asset
-  allocation considers: \enumerate{ \item Generation of
-  sample paths for the assets' rates of return. \item
-  Uncompounded cumulative portfolio rate of return rather
-  than compounded one. } Given a sample path of
-  instrument's rates of return (r(1),r(2)...,r(N)), the CDD
-  functional, \eqn{\delta[\alpha(w)]}, is computed by the
-  following optimization procedure \deqn{\delta[\alpha(w)]
-  = min y + [1]/[(1-\alpha)N] \sum [z(k)]} s.t. \deqn{z(k)
-  greater than u(k)-y } \deqn{u(k) greater than u(k-1)-
-  r(k)} which leads to a single optimal value of y equal to
-  \eqn{\epsilon(\alpha)} if \eqn{\pi(\epsilon(\alpha)) >
-  \alpha}, and to a closed interval of optimal y with the
-  left endpoint of \eqn{\epsilon(\alpha)} if
-  \eqn{\pi(\epsilon(\alpha)) = \alpha}
-}
-\examples{
-library(PerformanceAnalytics)
-data(edhec)
-CDDopt(edhec)
-}
-\author{
-  Peter Carl, Brian Peterson, Shubhankit Mohan
-}
-\references{
-  Chekhlov, Alexei, Uryasev, Stanislav P. and Zabarankin,
-  Michael, \emph{Drawdown Measure in Portfolio
-  Optimization} (June 25, 2003). Available at SSRN:
-  \url{http://ssrn.com/abstract=544742} or
-  \url{http://dx.doi.org/10.2139/ssrn.544742}
-}
-\seealso{
-  CDrawdown.R
-}
-\keyword{Conditional}
-\keyword{Drawdown}
-\keyword{models}
-
+\name{CDD.Opt}
+\alias{CDD.Opt}
+\title{Chekhlov Conditional Drawdown at Risk Optimization}
+\usage{
+  CDD.Opt(rmat, alpha = 0.05, rmin = 0, wmin = 0, wmax = 1,
+    weight.sum = 1)
+}
+\arguments{
+  \item{Ra}{return vector of the portfolio}
+
+  \item{p}{confidence interval}
+}
+\description{
+  A new one-parameter family of risk measures called
+  Conditional Drawdown (CDD) has been proposed. These
+  measures of risk are functionals of the portfolio
+  drawdown (underwater) curve considered in active
+  portfolio management. For some value of the tolerance
+  parameter, in the case of a single sample path, drawdown
+  functional is defined as the mean of the worst (1 -
+  \eqn{\alpha})% drawdowns.
+}
+\details{
+  This section formulates a portfolio optimization problem
+  with drawdown risk measure and suggests efficient
+  optimization techniques for its solving. Optimal asset
+  allocation considers: \enumerate{ \item Generation of
+  sample paths for the assets' rates of return. \item
+  Uncompounded cumulative portfolio rate of return rather
+  than compounded one. } Given a sample path of
+  instrument's rates of return (r(1),r(2)...,r(N)), the CDD
+  functional, \eqn{\delta[\alpha(w)]}, is computed by the
+  following optimization procedure \deqn{\delta[\alpha(w)]
+  = min y + [1]/[(1-\alpha)N] \sum [z(k)]} s.t. \deqn{z(k)
+  greater than u(k)-y } \deqn{u(k) greater than u(k-1)-
+  r(k)} which leads to a single optimal value of y equal to
+  \eqn{\epsilon(\alpha)} if \eqn{\pi(\epsilon(\alpha)) >
+  \alpha}, and to a closed interval of optimal y with the
+  left endpoint of \eqn{\epsilon(\alpha)} if
+  \eqn{\pi(\epsilon(\alpha)) = \alpha}
+}
+\examples{
+library(PerformanceAnalytics)
+data(edhec)
+CDDopt(edhec)
+}
+\author{
+  Peter Carl, Brian Peterson, Shubhankit Mohan
+}
+\references{
+  Chekhlov, Alexei, Uryasev, Stanislav P. and Zabarankin,
+  Michael, \emph{Drawdown Measure in Portfolio
+  Optimization} (June 25, 2003). Available at SSRN:
+  \url{http://ssrn.com/abstract=544742} or
+  \url{http://dx.doi.org/10.2139/ssrn.544742}
+}
+\seealso{
+  CDrawdown.R
+}
+\keyword{Conditional}
+\keyword{Drawdown}
+\keyword{models}
+

Modified: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Norm.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Norm.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Norm.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,56 +1,56 @@
-\name{CalmarRatio.Norm}
-\alias{CalmarRatio.Norm}
-\title{Normalized Calmar ratio}
-\usage{
-  CalmarRatio.Norm(R, tau = 1, scale = NA)
-}
-\arguments{
-  \item{R}{an xts, vector, matrix, data frame, timeSeries
-  or zoo object of asset returns}
-
-  \item{scale}{number of periods in a year (daily scale =
-  252, monthly scale = 12, quarterly scale = 4)}
-
-  \item{excess}{for Sterling Ratio, excess amount to add to
-  the max drawdown, traditionally and default .1 (10\%)}
-}
-\description{
-  Normalized Calmar and Sterling Ratios are yet another
-  method of creating a risk-adjusted measure for ranking
-  investments similar to the Sharpe Ratio.
-}
-\details{
-  Both the Normalized Calmar and the Sterling ratio are the
-  ratio of annualized return over the absolute value of the
-  maximum drawdown of an investment. \deqn{Sterling Ratio =
-  [Return over (0,T)]/[max Drawdown(0,T)]} It is also
-  \emph{traditional} to use a three year return series for
-  these calculations, although the functions included here
-  make no effort to determine the length of your series.
-  If you want to use a subset of your series, you'll need
-  to truncate or subset the input data to the desired
-  length. It is also traditional to use a three year return
-  series for these calculations, although the functions
-  included here make no effort to determine the length of
-  your series.  If you want to use a subset of your series,
-  you'll need to truncate or subset the input data to the
-  desired length.
-}
-\examples{
-data(managers)
-    CalmarRatio.Norm(managers[,1,drop=FALSE])
-    CalmarRatio.Norm(managers[,1:6])
-}
-\author{
-  Brian G. Peterson , Peter Carl , Shubhankit Mohan
-}
-\references{
-  Bacon, Carl, Magdon-Ismail, M. and Amir Atiya,\emph{
-  Maximum drawdown. Risk Magazine,} 01 Oct 2004.
-  \url{http://www.cs.rpi.edu/~magdon/talks/mdd_NYU04.pdf}
-}
-\keyword{distribution}
-\keyword{models}
-\keyword{multivariate}
-\keyword{ts}
-
+\name{CalmarRatio.Norm}
+\alias{CalmarRatio.Norm}
+\title{Normalized Calmar ratio}
+\usage{
+  CalmarRatio.Norm(R, tau = 1, scale = NA)
+}
+\arguments{
+  \item{R}{an xts, vector, matrix, data frame, timeSeries
+  or zoo object of asset returns}
+
+  \item{scale}{number of periods in a year (daily scale =
+  252, monthly scale = 12, quarterly scale = 4)}
+
+  \item{excess}{for Sterling Ratio, excess amount to add to
+  the max drawdown, traditionally and default .1 (10\%)}
+}
+\description{
+  Normalized Calmar and Sterling Ratios are yet another
+  method of creating a risk-adjusted measure for ranking
+  investments similar to the Sharpe Ratio.
+}
+\details{
+  Both the Normalized Calmar and the Sterling ratio are the
+  ratio of annualized return over the absolute value of the
+  maximum drawdown of an investment. \deqn{Sterling Ratio =
+  [Return over (0,T)]/[max Drawdown(0,T)]} It is also
+  \emph{traditional} to use a three year return series for
+  these calculations, although the functions included here
+  make no effort to determine the length of your series.
+  If you want to use a subset of your series, you'll need
+  to truncate or subset the input data to the desired
+  length. It is also traditional to use a three year return
+  series for these calculations, although the functions
+  included here make no effort to determine the length of
+  your series.  If you want to use a subset of your series,
+  you'll need to truncate or subset the input data to the
+  desired length.
+}
+\examples{
+data(managers)
+    CalmarRatio.Norm(managers[,1,drop=FALSE])
+    CalmarRatio.Norm(managers[,1:6])
+}
+\author{
+  Brian G. Peterson , Peter Carl , Shubhankit Mohan
+}
+\references{
+  Bacon, Carl, Magdon-Ismail, M. and Amir Atiya,\emph{
+  Maximum drawdown. Risk Magazine,} 01 Oct 2004.
+  \url{http://www.cs.rpi.edu/~magdon/talks/mdd_NYU04.pdf}
+}
+\keyword{distribution}
+\keyword{models}
+\keyword{multivariate}
+\keyword{ts}
+

Deleted: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Normalized.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Normalized.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Normalized.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,7 +0,0 @@
-\name{SterlingRatio.Normalized}
-\alias{SterlingRatio.Normalized}
-\usage{
-  SterlingRatio.Normalized(R, tau = 1, scale = NA,
-    excess = 0.1)
-}
-

Deleted: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,7 +0,0 @@
-\name{SterlingRatio.Normalized}
-\alias{SterlingRatio.Normalized}
-\usage{
-  SterlingRatio.Normalized(R, tau = 1, scale = NA,
-    excess = 0.1)
-}
-

Modified: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.normalized.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.normalized.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/CalmarRatio.normalized.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,77 +1,77 @@
-\name{QP.Norm}
-\alias{Normalized.CalmarRatio}
-\alias{Normalized.SterlingRatio}
-\alias{QP.Norm}
-\alias{SterlingRatio.Normalized}
-\title{QP function fo calculation of Sharpe Ratio}
-\usage{
-  QP.Norm(R, tau, scale = NA)
-
-  SterlingRatio.Normalized(R, tau = 1, scale = NA,
-    excess = 0.1)
-}
-\arguments{
-  \item{R}{an xts, vector, matrix, data frame, timeSeries
-  or zoo object of asset returns}
-
-  \item{scale}{number of periods in a year (daily scale =
-  252, monthly scale = 12, quarterly scale = 4)}
-
-  \item{excess}{for Sterling Ratio, excess amount to add to
-  the max drawdown, traditionally and default .1 (10\%)}
-}
-\description{
-  calculate a Normalized Calmar or Sterling reward/risk
-  ratio
-}
-\details{
-  Normalized Calmar and Sterling Ratios are yet another
-  method of creating a risk-adjusted measure for ranking
-  investments similar to the \code{\link{SharpeRatio}}.
-
-  Both the Normalized Calmar and the Sterling ratio are the
-  ratio of annualized return over the absolute value of the
-  maximum drawdown of an investment. The Sterling ratio
-  adds an excess risk measure to the maximum drawdown,
-  traditionally and defaulting to 10\%.
-
-  It is also traditional to use a three year return series
-  for these calculations, although the functions included
-  here make no effort to determine the length of your
-  series.  If you want to use a subset of your series,
-  you'll need to truncate or subset the input data to the
-  desired length.
-
-  Many other measures have been proposed to do similar
-  reward to risk ranking. It is the opinion of this author
-  that newer measures such as Sortino's
-  \code{\link{UpsidePotentialRatio}} or Favre's modified
-  \code{\link{SharpeRatio}} are both \dQuote{better}
-  measures, and should be preferred to the Calmar or
-  Sterling Ratio.
-}
-\examples{
-data(managers)
-    Normalized.CalmarRatio(managers[,1,drop=FALSE])
-    Normalized.CalmarRatio(managers[,1:6])
-    Normalized.SterlingRatio(managers[,1,drop=FALSE])
-    Normalized.SterlingRatio(managers[,1:6])
-}
-\author{
-  Brian G. Peterson
-}
-\references{
-  Bacon, Carl. \emph{Magdon-Ismail, M. and Amir Atiya,
-  Maximum drawdown. Risk Magazine, 01 Oct 2004.
-}
-\seealso{
-  \code{\link{Return.annualized}}, \cr
-  \code{\link{maxDrawdown}}, \cr
-  \code{\link{SharpeRatio.modified}}, \cr
-  \code{\link{UpsidePotentialRatio}}
-}
-\keyword{distribution}
-\keyword{models}
-\keyword{multivariate}
-\keyword{ts}
-
+\name{QP.Norm}
+\alias{Normalized.CalmarRatio}
+\alias{Normalized.SterlingRatio}
+\alias{QP.Norm}
+\alias{SterlingRatio.Normalized}
+\title{QP function fo calculation of Sharpe Ratio}
+\usage{
+  QP.Norm(R, tau, scale = NA)
+
+  SterlingRatio.Normalized(R, tau = 1, scale = NA,
+    excess = 0.1)
+}
+\arguments{
+  \item{R}{an xts, vector, matrix, data frame, timeSeries
+  or zoo object of asset returns}
+
+  \item{scale}{number of periods in a year (daily scale =
+  252, monthly scale = 12, quarterly scale = 4)}
+
+  \item{excess}{for Sterling Ratio, excess amount to add to
+  the max drawdown, traditionally and default .1 (10\%)}
+}
+\description{
+  calculate a Normalized Calmar or Sterling reward/risk
+  ratio
+}
+\details{
+  Normalized Calmar and Sterling Ratios are yet another
+  method of creating a risk-adjusted measure for ranking
+  investments similar to the \code{\link{SharpeRatio}}.
+
+  Both the Normalized Calmar and the Sterling ratio are the
+  ratio of annualized return over the absolute value of the
+  maximum drawdown of an investment. The Sterling ratio
+  adds an excess risk measure to the maximum drawdown,
+  traditionally and defaulting to 10\%.
+
+  It is also traditional to use a three year return series
+  for these calculations, although the functions included
+  here make no effort to determine the length of your
+  series.  If you want to use a subset of your series,
+  you'll need to truncate or subset the input data to the
+  desired length.
+
+  Many other measures have been proposed to do similar
+  reward to risk ranking. It is the opinion of this author
+  that newer measures such as Sortino's
+  \code{\link{UpsidePotentialRatio}} or Favre's modified
+  \code{\link{SharpeRatio}} are both \dQuote{better}
+  measures, and should be preferred to the Calmar or
+  Sterling Ratio.
+}
+\examples{
+data(managers)
+    Normalized.CalmarRatio(managers[,1,drop=FALSE])
+    Normalized.CalmarRatio(managers[,1:6])
+    Normalized.SterlingRatio(managers[,1,drop=FALSE])
+    Normalized.SterlingRatio(managers[,1:6])
+}
+\author{
+  Brian G. Peterson
+}
+\references{
+  Bacon, Carl. \emph{Magdon-Ismail, M. and Amir Atiya,
+  Maximum drawdown. Risk Magazine, 01 Oct 2004.
+}
+\seealso{
+  \code{\link{Return.annualized}}, \cr
+  \code{\link{maxDrawdown}}, \cr
+  \code{\link{SharpeRatio.modified}}, \cr
+  \code{\link{UpsidePotentialRatio}}
+}
+\keyword{distribution}
+\keyword{models}
+\keyword{multivariate}
+\keyword{ts}
+

Modified: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/Cdrawdown.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/Cdrawdown.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/Cdrawdown.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,92 +1,92 @@
-\name{CDDOpt}
-\alias{CDDOpt}
-\alias{CDrawdown}
-\title{Chekhlov Conditional Drawdown at Risk}
-\usage{
-  CDDOpt(rmat, alpha = 0.05, rmin = 0, wmin = 0, wmax = 1,
-    weight.sum = 1)
-
-  CDrawdown(R, p = 0.9, ...)
-}
-\arguments{
-  \item{Ra}{return vector of the portfolio}
-
-  \item{p}{confidence interval}
-
-  \item{Ra}{return vector of the portfolio}
-
-  \item{p}{confidence interval}
-}
-\description{
-  A new one-parameter family of risk measures called
-  Conditional Drawdown (CDD) has been proposed. These
-  measures of risk are functionals of the portfolio
-  drawdown (underwater) curve considered in active
-  portfolio management. For some value of the tolerance
-  parameter, in the case of a single sample path, drawdown
-  functional is defineed as the mean of the worst (1 -
-  \eqn{\alpha})% drawdowns.
-
-  A new one-parameter family of risk measures called
-  Conditional Drawdown (CDD) has been proposed. These
-  measures of risk are functionals of the portfolio
-  drawdown (underwater) curve considered in active
-  portfolio management. For some value of the tolerance
-  parameter, in the case of a single sample path, drawdown
-  functional is defineed as the mean of the worst (1 -
-  \eqn{\alpha})% drawdowns.
-}
-\details{
-  This section formulates a portfolio optimization problem
-  with drawdown risk measure and suggests e???cient
-  optimization techniques for its solving. Optimal asset
-  allocation considers: 1) Generation of sample paths for
-  the assets' rates of return. 2) Uncompounded cumulative
-  portfolio rate of return rather than compounded one.
-
-  The \bold{CDD} is related to Value-at-Risk (VaR) and
-  Conditional Value-at-Risk (CVaR) measures studied by
-  Rockafellar and Uryasev . By definition, with respect to
-  a specified probability level \eqn{\alpha}, the
-  \bold{\eqn{\alpha}-VaR} of a portfolio is the lowest
-  amount \eqn{\epsilon} , \eqn{\alpha} such that, with
-  probability \eqn{\alpha}, the loss will not exceed
-  \eqn{\epsilon} , \eqn{\alpha} in a specified time T,
-  whereas the \bold{\eqn{\alpha}-CVaR} is the conditional
-  expectation of losses above that amount \eqn{\epsilon} .
-  Various issues about VaR methodology were discussed by
-  Jorion . The CDD is similar to CVaR and can be viewed as
-  a modification of the CVaR to the case when the
-  loss-function is defined as a drawdown. CDD and CVaR are
-  conceptually related percentile-based risk performance
-  functionals.
-}
-\examples{
-library(PerformanceAnalytics)
-data(edhec)
-CDDopt(edhec)
-library(PerformanceAnalytics)
-data(edhec)
-CDrawdown(edhec)
-}
-\author{
-  Peter Carl, Brian Peterson, Shubhankit Mohan
-
-  Peter Carl, Brian Peterson, Shubhankit Mohan
-}
-\references{
-  DRAWDOWN MEASURE IN PORTFOLIO
-  OPTIMIZATION,\emph{International Journal of Theoretical
-  and Applied Finance} ,Fall 1994, 49-58.Vol. 8, No. 1
-  (2005) 13-58
-
-  Chekhlov, Alexei, Uryasev, Stanislav P. and Zabarankin,
-  Michael, \emph{Drawdown Measure in Portfolio
-  Optimization} (June 25, 2003). Available at SSRN:
-  \url{http://ssrn.com/abstract=544742} or
-  \url{http://dx.doi.org/10.2139/ssrn.544742}
-}
-\keyword{Conditional}
-\keyword{Drawdown}
-\keyword{models}
-
+\name{CDDOpt}
+\alias{CDDOpt}
+\alias{CDrawdown}
+\title{Chekhlov Conditional Drawdown at Risk}
+\usage{
+  CDDOpt(rmat, alpha = 0.05, rmin = 0, wmin = 0, wmax = 1,
+    weight.sum = 1)
+
+  CDrawdown(R, p = 0.9, ...)
+}
+\arguments{
+  \item{Ra}{return vector of the portfolio}
+
+  \item{p}{confidence interval}
+
+  \item{Ra}{return vector of the portfolio}
+
+  \item{p}{confidence interval}
+}
+\description{
+  A new one-parameter family of risk measures called
+  Conditional Drawdown (CDD) has been proposed. These
+  measures of risk are functionals of the portfolio
+  drawdown (underwater) curve considered in active
+  portfolio management. For some value of the tolerance
+  parameter, in the case of a single sample path, drawdown
+  functional is defineed as the mean of the worst (1 -
+  \eqn{\alpha})% drawdowns.
+
+  A new one-parameter family of risk measures called
+  Conditional Drawdown (CDD) has been proposed. These
+  measures of risk are functionals of the portfolio
+  drawdown (underwater) curve considered in active
+  portfolio management. For some value of the tolerance
+  parameter, in the case of a single sample path, drawdown
+  functional is defineed as the mean of the worst (1 -
+  \eqn{\alpha})% drawdowns.
+}
+\details{
+  This section formulates a portfolio optimization problem
+  with drawdown risk measure and suggests e???cient
+  optimization techniques for its solving. Optimal asset
+  allocation considers: 1) Generation of sample paths for
+  the assets' rates of return. 2) Uncompounded cumulative
+  portfolio rate of return rather than compounded one.
+
+  The \bold{CDD} is related to Value-at-Risk (VaR) and
+  Conditional Value-at-Risk (CVaR) measures studied by
+  Rockafellar and Uryasev . By definition, with respect to
+  a specified probability level \eqn{\alpha}, the
+  \bold{\eqn{\alpha}-VaR} of a portfolio is the lowest
+  amount \eqn{\epsilon} , \eqn{\alpha} such that, with
+  probability \eqn{\alpha}, the loss will not exceed
+  \eqn{\epsilon} , \eqn{\alpha} in a specified time T,
+  whereas the \bold{\eqn{\alpha}-CVaR} is the conditional
+  expectation of losses above that amount \eqn{\epsilon} .
+  Various issues about VaR methodology were discussed by
+  Jorion . The CDD is similar to CVaR and can be viewed as
+  a modification of the CVaR to the case when the
+  loss-function is defined as a drawdown. CDD and CVaR are
+  conceptually related percentile-based risk performance
+  functionals.
+}
+\examples{
+library(PerformanceAnalytics)
+data(edhec)
+CDDopt(edhec)
+library(PerformanceAnalytics)
+data(edhec)
+CDrawdown(edhec)
+}
+\author{
+  Peter Carl, Brian Peterson, Shubhankit Mohan
+
+  Peter Carl, Brian Peterson, Shubhankit Mohan
+}
+\references{
+  DRAWDOWN MEASURE IN PORTFOLIO
+  OPTIMIZATION,\emph{International Journal of Theoretical
+  and Applied Finance} ,Fall 1994, 49-58.Vol. 8, No. 1
+  (2005) 13-58
+
+  Chekhlov, Alexei, Uryasev, Stanislav P. and Zabarankin,
+  Michael, \emph{Drawdown Measure in Portfolio
+  Optimization} (June 25, 2003). Available at SSRN:
+  \url{http://ssrn.com/abstract=544742} or
+  \url{http://dx.doi.org/10.2139/ssrn.544742}
+}
+\keyword{Conditional}
+\keyword{Drawdown}
+\keyword{models}
+

Deleted: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/EmaxDDGBM.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/EmaxDDGBM.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/EmaxDDGBM.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,23 +0,0 @@
-\name{EMaxDDGBM}
-\alias{EMaxDDGBM}
-\title{Expected Drawdown using Brownian Motion Assumptions}
-\usage{
-  EMaxDDGBM(R, digits = 4)
-}
-\arguments{
-  \item{R}{an xts, vector, matrix, data frame, timeSeries
-  or zoo object of asset returns}
-}
-\description{
-  Works on the model specified by Maddon-Ismail
-}
-\author{
-  R
-}
-\keyword{Assumptions}
-\keyword{Brownian}
-\keyword{Drawdown}
-\keyword{Expected}
-\keyword{Motion}
-\keyword{Using}
-

Modified: pkg/PerformanceAnalytics/sandbox/Shubhankit/man/GLMSmoothIndex.Rd
===================================================================
--- pkg/PerformanceAnalytics/sandbox/Shubhankit/man/GLMSmoothIndex.Rd	2013-08-24 23:07:08 UTC (rev 2879)
+++ pkg/PerformanceAnalytics/sandbox/Shubhankit/man/GLMSmoothIndex.Rd	2013-08-25 10:42:42 UTC (rev 2880)
@@ -1,48 +1,48 @@
-\name{GLMSmoothIndex}
-\alias{GLMSmoothIndex}
-\alias{Return.Geltner}
-\title{GLM Index}
-\usage{
-  GLMSmoothIndex(R = NULL, ...)
-}
-\arguments{
-  \item{R}{an xts, vector, matrix, data frame, timeSeries
-  or zoo object of asset returns}
-}
-\description{
-  Getmansky Lo Markov Smoothing Index is a useful summary
-  statistic for measuring the concentration of weights is a
-  sum of square of Moving Average lag coefficient. This
-  measure is well known in the industrial organization
-  literature as the \bold{ Herfindahl index}, a measure of
-  the concentration of firms in a given industry. The index
-  is maximized when one coefficient is 1 and the rest are
-  0. In the context of smoothed returns, a lower value
-  implies more smoothing, and the upper bound of 1 implies
-  no smoothing, hence \eqn{\xi} is reffered as a
[TRUNCATED]

To get the complete diff run:
    svnlook diff /svnroot/returnanalytics -r 2880


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