@@ -366,6 +366,12 @@ void MSSAtoolkitClasses(py::module &m) {
366366
367367 Notes
368368 -----
369+ The w-correlation matrix needs the reconstructed trajectory matrices for each
370+ of the eigenvalue, PC pairs. Calling this method will recompute the reconstruction
371+ for all eigenvalues up to 'nPC' and return an nPC x nPC matrix. If the 'nPC'
372+ parameter is not specified, it will be set to `numpc` used to construct the
373+ instance. Any previous reconstruction will be overwritten.
374+
369375 Returns the combined cosine+sine correlation for complex types for viewing
370376 (e.g., with 'imshow').
371377
@@ -390,8 +396,15 @@ void MSSAtoolkitClasses(py::module &m) {
390396
391397 Notes
392398 -----
393- The index key here is 'extended' by the prefixed component index
399+ The index key here is 'extended' by the prefixed component index.
394400
401+ Computation of the w-correlation matrix needs the reconstructed
402+ trajectory matrices for each of the (eigenvalue, PC) pairs. Calling
403+ this method will recompute the reconstruction for all eigenvalues up to
404+ order 'npc' and return an (nPC x nPC) matrix. If the 'nPC' parameter is
405+ not specified, it will be set to the `numpc` used in the original
406+ construction. Any prior reconstruction will be overwritten.
407+
395408 The rows and columns contain distinct cosine and sine indicies if the channel
396409 is complex valued.
397410
@@ -419,8 +432,15 @@ void MSSAtoolkitClasses(py::module &m) {
419432
420433 Notes
421434 -----
422- The w-correlation values range from 0 to 1, where a higher value corresponds to a
423- stronger correlation.
435+ The w-correlation values range from 0 to 1, where a higher value
436+ corresponds to a stronger correlation.
437+
438+ Computation of the w-correlation matrix needs the reconstructed
439+ trajectory matrices for each of the (eigenvalue, PC) pairs. Calling
440+ this method will recompute the reconstruction for all eigenvalues up to
441+ order 'npc' and return an (nPC x nPC) matrix. If the 'nPC' parameter is
442+ not specified, it will be set to the `numpc` used in the original
443+ construction. Any prior reconstruction will be overwritten.
424444
425445 See also
426446 --------
@@ -441,8 +461,15 @@ void MSSAtoolkitClasses(py::module &m) {
441461
442462 Notes
443463 -----
444- The w-correlation values range from 0 to 1, where a higher value corresponds to a
445- stronger correlation.
464+ The w-correlation values range from 0 to 1, where a higher value
465+ corresponds to a stronger correlation.
466+
467+ Computation of the w-correlation matrix needs the reconstructed
468+ trajectory matrices for each of the (eigenvalue, PC) pairs. Calling
469+ this method will recompute the reconstruction for all eigenvalues up to
470+ order 'npc' and return an (nPC x nPC) matrix. If the 'nPC' parameter is
471+ not specified, it will be set to the `numpc` used in the original
472+ construction. Any prior reconstruction will be overwritten.
446473
447474 See also
448475 --------
@@ -455,17 +482,18 @@ void MSSAtoolkitClasses(py::module &m) {
455482 py::arg (" clusters" ) = 4 ,
456483 py::arg (" stride" ) = 2 ,
457484 R"(
458- Do a k-means analysis on the reconstructed trajectory matrices for a single channel (specified key value) to
459- provide grouping insight. A vector of channel indices that identify clusters is return in a vector ordered by PC
460- index.
485+ Do a k-means analysis on the reconstructed trajectory matrices for a
486+ single channel (specified key value) to provide grouping insight. A
487+ vector of channel indices that identify clusters is return in a vector
488+ ordered by PC index.
461489
462490 Parameters
463491 ----------
464492 clusters : int, default=4
465493 number of clusters for the k-means analysis
466494 stride : int, default=2
467- if positive, the initial cluster centers are stride selected from the PC list. If zero, the centers are
468- selected randomly from the PC list
495+ if positive, the initial cluster centers are stride selected from the PC list.
496+ If zero, the centers are selected randomly from the PC list
469497
470498 Returns
471499 -------
@@ -476,24 +504,29 @@ void MSSAtoolkitClasses(py::module &m) {
476504
477505 Notes
478506 -----
479- The k-means partitions n vector observations into k clusters in which each observation belongs to the cluster with
480- the nearest centers while minimizing the variance within each cluster. In this case, the vectors are the full
481- trajectory matrices and the distance is the distance between the trajectory matricies reconstructed from each
482- eigentriple from mSSA. The distance used here is the Frobenius distance or matrix norm distance: the square root
483- of the sum of squares of all elements in the difference between two matrices.
484-
485- This version does the analysis for all channels together, the most useful for estimating groups. For individual
486- contributions by channel, use kmeansChannel.
507+ The k-means partitions n vector observations into k clusters in which
508+ each observation belongs to the cluster with the nearest centers while
509+ minimizing the variance within each cluster. In this case, the vectors
510+ are the full trajectory matrices and the distance is the distance
511+ between the trajectory matricies reconstructed from each eigentriple
512+ from mSSA. The distance used here is the Frobenius distance or matrix
513+ norm distance: the square root of the sum of squares of all elements in
514+ the difference between two matrices.
515+
516+ This version does the analysis for all channels together, the most
517+ useful for estimating groups. For individual contributions by channel,
518+ use kmeansChannel.
487519 )" );
488520
489521 f.def (" kmeansChannel" , &expMSSA::kmeansChannel,
490522 py::arg (" key" ),
491523 py::arg (" clusters" ) = 4 ,
492524 py::arg (" stride" ) = 2 ,
493525 R"(
494- Do a k-means analysis on the reconstructed trajectory matrices for a single channel (specified key value) to
495- provide grouping insight. In most cases, you will want to use the kmeans() version which analyzes all channels
496- together.
526+ Do a k-means analysis on the reconstructed trajectory matrices for a
527+ single channel (specified key value) to provide grouping insight. In
528+ most cases, you will want to use the kmeans() version which analyzes all
529+ channels together.
497530
498531 Parameters
499532 ----------
@@ -529,18 +562,18 @@ void MSSAtoolkitClasses(py::module &m) {
529562 - F: Each PC's contribution to each channel. The columns are L2 normed.
530563 - G: Each channel's contribution to each PC. The rows are L2 normed.
531564
532- By default, channels for non-zero 'm' are split into cosine and sine components
533- from the real+imaginary values.
565+ By default, channels for non-zero 'm' are split into cosine and sine
566+ components from the real+imaginary values.
534567
535- The L2 norm, or Euclidean norm, computes the length of a vector in a multi-dimensional space.
536- For a vector v = [v1, v2, ..., vn], the L2 norm is calculated as sqrt(v1^2 + v2^2 + ... + vn^2).
568+ The L2 norm, or Euclidean norm, computes the length of a vector in a
569+ multi-dimensional space. For a vector v = [v1, v2, ..., vn], the L2
570+ norm is calculated as sqrt(v1^2 + v2^2 + ... + vn^2).
537571
538- The L2 normed views provide a measure of the relative contribution of each PC to each channel
539- and the relative contribution of each channel to each PC. These contributions can be plotted
540- using 'imshow'.
572+ The L2 normed views provide a measure of the relative contribution of
573+ each PC to each channel and the relative contribution of each channel to
574+ each PC. These contributions can be plotted using 'imshow'.
541575 )" );
542576
543-
544577 f.def (" saveState" , &expMSSA::saveState,
545578 R"(
546579 Save the current MSSA state to an HDF5 file
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