2010issue C0950-54
Seasons, the Wall cycle, and Fibonacci time on a 1949 long wave
A 2010 cycle case study dates one long wave at 1949, labels it as four seasons and sixteen regular trade cycles, and treats the 20-week Wall cycle as a 144th-scale miniature long wave. Dated inflation-adjusted twenty-year S&P 500 return rates supply the baseline for those nested labels.
- The 2010 case study maps an inflation-adjusted S&P 500 twenty-year return series from a 1949 start through January 2010 and labels one long wave as four seasons plus sixteen regular trade cycles.
- Sixteen regular trade cycles replace an eighteen-cycle Kitchin count so later subdivisions stay commensurate with the parent wave under theory-144 analytics.
- Two successive divisions by three produce the Wall cycle, the 144th of the long wave and typically a 20-week miniature long wave.
- Fibonacci time and price is applied to those nested trader-scale intervals, while dated twenty-year compound annual return rates mark the observable peaks and troughs.
A dated long wave, not a schematic
A 2010 cycle case study maps an inflation-adjusted S&P 500 twenty-year rate-of-return series from a 1949 start through January 2010 data. It labels one long wave as four seasons plus sixteen regular trade cycles.
The study locates that current long wave at 1949 so the seasonal and sixteen-cycle overlay can be aligned with later price and return observations rather than left as an idealized schematic.
The 1949 start as an independent dating anchor
Elliott-wave structure enters the case as the independent identification of the 1949 long-wave start. The nested four-and-three division then uses that date as its dating anchor.
Long-wave seasons and a sixteen-cycle count
The same case study treats sixteen regular trade cycles inside one long wave as the operational alternative to an eighteen-cycle Kitchin count so later subdivisions stay commensurate with the parent wave.
That choice is the working map of theory-144 analytics: one long wave is treated as sixteen regular trade cycles and 144 miniature long-wave units, so smaller trader-scale intervals stay commensurate with the parent wave.
Long-wave seasons are the four-way split of the same parent interval into spring, summer, autumn, and winter phases, used to locate later trade-cycle and return-rate observations. Threeness and fourness is the rule that cycle families stay internally consistent when parent intervals are divided by three and by four rather than by an unrelated count.
From a Kitchin third to the Wall cycle
Dividing a regular trade cycle by three, then by three again, yields a 144th of the long wave. The study identifies that interval as the typical 20-week trader cycle and as a miniature long wave.
The intermediate one-third step is the Kitchin third, used between a seasonal trade cycle and the Wall cycle. The Wall cycle is that 144th unit, typically recognized as a 20-week cycle and treated as a miniature long wave for trader-scale timing.
An inflation-adjusted twenty-year return baseline
The return chart used as the baseline is an inflation-adjusted twenty-year return series. It marks successive 20-year compound annual rates at dated peaks and troughs, including 13.48% on 31 March 1962, 13.86% on 31 March 2000, and 4.16% on 28 February 2009.
Seasonal and trade-cycle labels are placed against those observed return phases rather than left as an undated diagram.
Fibonacci time and price on nested intervals
Fibonacci time-and-price tools are presented as applicable to the smaller nested cycles, including the 20-week Wall cycle, because those intervals are treated as more usable for trader-scale timing than the parent long wave.
Fibonacci time and price applies Fibonacci ratios to both elapsed time and price structure so that time windows can be checked against the same nested cycle map.
All readings on this track · 14 readings
- 1982A three-category Fibonacci filter for wave setups
- 1985Three-check Fibonacci swings in Treasury bonds
- 1990Elliott labels and Fibonacci day counts on a reversal-volatility plot
- 1991Constructing Fibonacci time-cycle clusters from wave ratios
- 1992Constructing clustered static and dynamic cycle forecasts
- 1992Constructing a five-cycle time-ratio workbook
- 1998Constructing support-resistance oscillators and Fibonacci time zones
- 2003Constructing nested fifth waves with Fibonacci ratios
- 2010Seasons, the Wall cycle, and Fibonacci time on a 1949 long wave
- 2011Building Fibonacci and Lucas time-cycle markers
- 2013Contracting Fibonacci time posts as a dominant-cycle classroom case
- 2013Classify the origin low before counting the next advance
- 2014Calling a cycle end with range bars, median lines, and Fibonacci
- 2015Building reaction zones with swings and median lines