Rob Clark
This website was last updated on
04/28/16
-
StockCharts.com
web_APC.pdf
RRP Tech Tools for Long Term Investors
Documentation for APC Charts
I manage a few websites:
NYC Dance
Connection
Cedar Crest Farm
Tango
Pittsburgh
(Just a link to a site at the University of Pittsburgh)
Tango
Pittsburgh
(Just a link to a site at the University of Pittsburgh)
I also sell Tru Chocolate at this website:
Tru Chocolate
- Earliest Americans did not walk accross the land bridge ...
Early Americans
First Americans
Homo Sapiens cooperated with Wolves in Eliminating the Neanderthals
- What happened to
the Neaderthals
- What did
Neaderthals look like ? Did they have night vision ?
- Neaderthals Had Night Vision
- Conflict between Neanderthals and Cro-Magnon man
- Germanic Tribes
- 12,000 year old town in Turkey
- WWII
- WWI
- WWI Tunnels
- Gettysburg
- Restore Welsh
House
- Restore Water Tower
- Restore Barn
- Restore Pump House
- Nova
Miscellaneous Discoveries
- Jewish Exodus
was actually a Canaanite Exodus.
- Shimla Train
Station in India
- Space Shuttle
- Restore Yellowstone
Park by reintroducing wolves.
- Re Forrestation
- How Did Neanderthal Adapt to the Cold ?
- Neanderthal
Meets Homo Sapiens
- Archimides
- Asteriod Hits
Earth
- Air Strike in
Syria
- Global Warming and Ice Age
- Gulf Stream and Ice Age
- Crash of 1929
- Glaciers Melting
- Ice Age Caused
by Interstellar Electric Exchanges
- How to and where to find gold
- The history of tracing human ancestors
- Peak Oil
- Permian Extinction
-
Snowball Earth
- Gold Separator
- Home Wind Mills
- Yukon Gold Rush
(21 mins)
- Trucks Hitting Bridge
-
Gold Panning is Easy
-
The great global warming swindle
-
WWII time lapse map. Day by Day.
- The
History of Europe in Timelapse
- Gold Machine
- Catch It II
Water Table
- Gold Shaker
Table
- Vibrating
Miller Table
- Desert Fox
Gold Wheel
- Desert Fox
Gold Wheel 2
- Large Sluice
Box Operation
- Chernobyl
- Fukushima
- Gold from
Lake Superior
- Pre-Roman
Britain
- Another
Pre-Roman Britain Video
-
The Red Balloon
- Grass Roots
Change will need to be at the local level
- America is a
Tinderbox
- Rudyard
Kipling reciting Gunga Din
- British
Bombing Raid on Falkland Islands
-
Early Life on Earth
-
American Civil War
-
In Search of Sheakespear
-
Pittsburgh's Eagle Cam
- The
Normans
-
D Day Spies
-
History of Finding the Roots of Man
- Time
Team visits DoggerLand, the land bridge between England and The
Netherlands
- Excavating Londinium (London)
- Roman Efforts
to Conquer Scotland
- BBC - Scotland
Rome's Final Frontier
- Art of the
Dark Ages
- Climate Change
- Climate Change
could lead to a new Permian Extinction
- The Overpopulation Myth
- Heart Disease and Cholesteral
Backwardation
Historical XIV Chart
VIX Historical Data
Calculating the effects of contango
Backwardation Chart
VXX decay
Ticker Symbols
VIX and other Futures
XIV
Simple Ichimoku Cloud Strategy
Another Ichimoku Cloud Strategy
Factory Jobs
30 Minute XIV Ichimoku Cloud
Sterling Engine Kit
Put/Call Ratios
New Highs New Lows
Simple Strategy for VXX Just use the slope of the moving regression line.
Here UVXY is used instead of VXX and the Moving Regression setting is 16
VIX Historical Data
Long Range VIX cycle. (Look at slope)
Volatility Statistics
Vix Chart for VXX
Vix Chart for SH
Parachute Strategy
VIX ETF links
Options Expiration
Calendar
ZIV Strategy
3X etfs can be found at:
ProShares
Direxion Funds
Velocity Shares
| 3X ETFs |
| 1X | Description | 3X | -3X |
| TLT | 20+ Year Bond | TMF | TMV |
| SOXX | Semiconductors | SOXL | SOXS |
| EEM | Emerging Markets | EDC | EDZ |
| IYR | Real Estate | DRN | DRV |
| GLD | Gold | UGLD | DGLD |
| SLV | Silver | USLV | DSLV |
| FCG | Natural Gas | GASL | GASX |
| UNG | Natural Gas | UGAZ | DGAZ |
| USO | Oil | UWTI | DWTI |
ZIV Buy and Hold Strategy
DOW Buy and Hold Strategy (Monthly)
SPX Daily Chaikin Money Flow
Historic SPX Double Top (2007)
High Low Logic Index
U.S. Equity Put Buy Write Index
Stop Levels for ZIV
Stop Levels for XIV
Stop Levels for VXX
Stop Levels for VXZ
Stop Levels for UVXY
Stop Levels for HVPW
Stop Levels for TRSK
Stop Levels for SPY
Stop Levels for SPXH
Weekly Chaikin Money Flow and Advancers minus Decliners
SPY vs VXX
OEXA200R for 2011
Stockcharts Graph of HVPW
VIX Over the Next Two Weeks
UVXY MACD
VIX Derivatives Charts
NYAD
3X ETFs
XIV Buy and Hold Strategy
XIV Tighter Buy and Hold Strategy
ZIV Tighter Buy and Hold Strategy
VIX Trend Lines
15 Minute VIX
Dynamic Yield
Curve
VXV/VIX
Weekly 3 Month to 1 Month VIX ratio
30 min SPX graph
Automated Trading
Chaikin Money Flow
Install Think or Swim on Windows
Buy and Iron Condor on Think or Swim
Placing Contingent Orders on Think Or Swim
pro_SPY.140513.pdf
pro_SPY.140514.pdf
pro_SPY.140515.pdf
pro_SPY.140703.pdf
2014 Correction ?
Pattern Recognition
Python
pro_SPY.110107.pdf
pro_SPY.141210.pdf
pro_UPRO.pdf
pro_USO.pdf
pro_VXX.141216.pdf
14 years of TLT
pro_QQQ.pdf
Spagetti
SLV vx. GLD
MModel
Demo for Cell Blender
Review of Smile With Knowledge
The journey through graduate school in the United States is not easy for anyone. In the Engineering and Computer Science fields, most students find themselves working long hours just to complete their own coursework. When you add in the grading and teaching duties that usually accompany a financial aid package, graduate students can become genuinely overworked.
The graduate school experience is far more complicated if you are new to the U.S., and you are travelling there for the first time. Monalisa's book Smile With Knowledge is a diary that reveals the additional hurdles that Indian students need to jump through when coming to the U.S. for graduate school. Not only do they have additional testing requirements to get accepted to school, but day to day life in school is full of surprizes, given the stark differences in the U.S. and Indian cultures during the 1990s.
The book is about Monalisa and her husband Gyana, both of whom decided to try graduate school in the U.S. Gyana left their hometown of Bubaneshwar first, to start a program in Engineering at the Louisiana State University in Baton Rouge. Monalisa would join Gyana six months later. The account of her experiences finding cloths to wear in the U.S. is quite an eye opener. Middle class women in India in 1989 would typically have new cloths hand sewn. Furthermore, womens' clothing was largely limited to traditional Indian dress. Since Monalisa expected to be wearing pants in the U.S., she would need to get her hand tailoried cloths at a men's clothing store.
The main focus of the book, however, is the life of foreign graduate students in the U.S. Both Monalisa and Gyana were happy to find students from their home state of Orissa at LSU, and later at Texas A&M, Their finances were very tight, but they found that watching DVD movies on campus with their Indian friends and playing all night card games was the perfect weekend diversion for them. The bars and sports activities that were the core of entertainment for American students, simply were of no interest to Monalisa and Gyana.
Trips back to India were few and far between. Their first trip home came three years after their move to the U.S. Monalisa's brother was to be married, and they didn't want to miss such an important family event. The multiple day wedding involved dozens of close and distant family members. Traditionally the wife would be saying goodbye to her family and would move in with the husbands family for life at this point. In 1989, some of these traditions had been relaxed a bit, but the traditional festive clothing, the dancing, the feasting, the giving of gifts and many other traditions were still part of a typical wedding.
The final step for both of them after finishing their degrees, was to find employment in the U.S., at least for a while. Gyana finished his degree first, and managed to find work at IBM in New York. Having been in the country for a while, arranging for Gyana to move to New York, but it was complicated by a fire at their apartment complex, and it was further complicated by the fact that now they would be apart and would need to maintain two households.
Gyana continues to work for IBM as of this writing. Monalisa after working for IBM for a number of years, is happy to have a chance to do some writing. Their home today is in Delhi, but they enjoy travelling to the U.S. and visiting with school and work friends whenever possible.
Your receipt number for this payment is: 2953-4342-5286-5039.
We'll send a confirmation email to rob@nycdc.com. This transaction will appear on your statement as PayPal *CROWNETERNI.
TLT and SPX
org.eclipse.core.filesystem
Article about listeners
Generic Listener
-
begin model
begin parameters
egf_tot 1.2e6 # molecule counts
egfr_tot 1.8e5 # molecule counts
Grb2_tot 1.0e5 # molecule counts
Shc_tot 2.7e5 # molecule counts
Sos_tot 1.3e4 # molecule counts
Grb2_Sos_tot 4.9e4 # molecule counts
kp1 1.667e-06 # ligand-monomer binding (scaled), units: /molecule/s
km1 0.06 # ligand-monomer dissociation, units: /s
kp2 5.556e-06 # aggregation of bound monomers (scaled), units: /molecule/s
km2 0.1 # dissociation of bound monomers, units: /s
kp3 0.5 # dimer transphosphorylation, units: /s
km3 4.505 # dimer dephosphorylation, units: /s
kp14 3 # Shc transphosphorylation, units: /s
km14 0.03 # Shc dephosphorylation, units: /s
km16 0.005 # Shc cytosolic dephosphorylation, units: /s
kp9 8.333e-07 # binding of Grb2 to receptor (scaled), units: /molecule/s
km9 0.05 # dissociation of Grb2 from receptor, units: /s
kp10 5.556e-06 # binding of Sos to receptor (scaled), units: /molecule/s
km10 0.06 # dissociation of Sos from receptor, units: /s
kp11 1.25e-06 # binding of Grb2-Sos to receptor (scaled), units: /molecule/s
km11 0.03 # diss. of Grb2-Sos from receptor, units: /s
kp13 2.5e-05 # binding of Shc to receptor (scaled), units: /molecule/s
km13 0.6 # diss. of Shc from receptor, units: /s
kp15 2.5e-07 # binding of ShcP to receptor (scaled), units: /molecule/s
km15 0.3 # diss. of ShcP from receptor, units: /s
kp17 1.667e-06 # binding of Grb2 to RP-ShcP (scaled), units: /molecule/s
km17 0.1 # diss. of Grb2 from RP-ShcP, units: /s
kp18 2.5e-07 # binding of ShcP-Grb2 to receptor (scaled), units: /molecule/s
km18 0.3 # diss. of ShcP-Grb2 from receptor, units: /s
kp19 5.556e-06 # binding of Sos to RP-ShcP-Grb2 (scaled), units: /molecule/s
km19 0.0214 # diss. of Sos from RP-ShcP-Grb2, units: /s
kp20 6.667e-08 # binding of ShcP-Grb2-Sos to receptor (scaled), units: /molecule/s
km20 0.12 # diss. of ShcP-Grb2-Sos from receptor, units: /s
kp24 5e-06 # binding of Grb2-Sos to RP-ShcP (scaled), units: /molecule/s
km24 0.0429 # diss. of Grb2-Sos from RP-ShcP, units: /s
kp21 1.667e-06 # binding of ShcP to Grb2 in cytosol (scaled), units: /molecule/s
km21 0.01 # diss. of Grb2 and SchP in cytosol, units: /s
kp23 1.167e-05 # binding of ShcP to Grb2-Sos in cytosol (scaled), units: /molecule/s
km23 0.1 # diss. of Grb2-Sos and SchP in cytosol, units: /s
kp12 5.556e-08 # binding of Grb2 to Sos in cytosol (scaled), units: /molecule/s
km12 0.0015 # diss. of Grb2 and Sos in cytosol, units: /s
kp22 1.667e-05 # binding of ShcP-Grb2 to Sos in cytosol (scaled), units: /molecule/s
km22 0.064 # diss. of ShcP-Grb2 and Sos in cytosol, units: /s
# check detailed balanced
loop1 = (kp9/km9)*(kp10/km10)/((kp11/km11)*(kp12/km12))
loop2 = (kp15/km15)*(kp17/km17)/((kp21/km21)*(kp18/km18))
loop3 = (kp18/km18)*(kp19/km19)/((kp22/km22)*(kp20/km20))
loop4 = (kp12/km12)*(kp23/km23)/((kp22/km22)*(kp21/km21))
loop5 = (kp15/km15)*(kp24/km24)/((kp20/km20)*(kp23/km23))
end parameters
begin molecule types
egf(r)
egfr(l,r,Y1068~Y~pY,Y1148~Y~pY)
Shc(PTB,Y317~Y~pY)
Grb2(SH2,SH3)
Sos(dom)
end molecule types
begin seed species
egf(r) egf_tot
Grb2(SH2,SH3) Grb2_tot
Shc(PTB,Y317~Y) Shc_tot
Sos(dom) Sos_tot
egfr(l,r,Y1068~Y,Y1148~Y) egfr_tot
Grb2(SH2,SH3!1).Sos(dom!1) Grb2_Sos_tot
end seed species
begin reaction rules
# Ligand-receptor binding (ligand-monomer)
egfr(l,r) + egf(r) <-> egfr(l!1,r).egf(r!1) kp1, km1
# Note changed multiplicity
# Receptor-aggregation
egfr(l!+,r) + egfr(l!+,r) <-> egfr(l!+,r!3).egfr(l!+,r!3) kp2, km2
# Transphosphorylation of egfr by RTK
egfr(r!+,Y1068~Y) -> egfr(r!+,Y1068~pY) kp3
egfr(r!+,Y1148~Y) -> egfr(r!+,Y1148~pY) kp3
#Dephosphorylayion
egfr(Y1068~pY) -> egfr(Y1068~Y) km3
egfr(Y1148~pY) -> egfr(Y1148~Y) km3
# Shc transphosph
egfr(r!+,Y1148~pY!1).Shc(PTB!1,Y317~Y) -> egfr(r!+,Y1148~pY!1).Shc(PTB!1,Y317~pY) kp14
Shc(PTB!+,Y317~pY) -> Shc(PTB!+,Y317~Y) km14
# Y1068 activity
egfr(Y1068~pY) + Grb2(SH2,SH3) <-> egfr(Y1068~pY!1).Grb2(SH2!1,SH3) kp9, km9
egfr(Y1068~pY) + Grb2(SH2,SH3!+) <-> egfr(Y1068~pY!1).Grb2(SH2!1,SH3!+) kp11, km11
egfr(Y1068~pY!1).Grb2(SH2!1,SH3) + Sos(dom) <-> egfr(Y1068~pY!1).Grb2(SH2!1,SH3!2).Sos(dom!2) kp10, km10
# Y1148 activity
egfr(Y1148~pY) + Shc(PTB,Y317~Y) <-> egfr(Y1148~pY!1).Shc(PTB!1,Y317~Y) kp13, km13
egfr(Y1148~pY) + Shc(PTB,Y317~pY) <-> egfr(Y1148~pY!1).Shc(PTB!1,Y317~pY) kp15, km15
egfr(Y1148~pY) + Shc(PTB,Y317~pY!1).Grb2(SH2!1,SH3) <-> \
egfr(Y1148~pY!2).Shc(PTB!2,Y317~pY!1).Grb2(SH2!1,SH3) kp18, km18
egfr(Y1148~pY) + Shc(PTB,Y317~pY!1).Grb2(SH2!1,SH3!3).Sos(dom!3) <-> \
egfr(Y1148~pY!2).Shc(PTB!2,Y317~pY!1).Grb2(SH2!1,SH3!3).Sos(dom!3) kp20, km20
egfr(Y1148~pY!1).Shc(PTB!1,Y317~pY) + Grb2(SH2,SH3) <-> \
egfr(Y1148~pY!1).Shc(PTB!1,Y317~pY!2).Grb2(SH2!2,SH3) kp17, km17
egfr(Y1148~pY!1).Shc(PTB!1,Y317~pY) + Grb2(SH2,SH3!3).Sos(dom!3) <-> \
egfr(Y1148~pY!1).Shc(PTB!1,Y317~pY!2).Grb2(SH2!2,SH3!3).Sos(dom!3) kp24, km24
Shc(PTB!+,Y317~pY!2).Grb2(SH2!2,SH3) + Sos(dom) <-> \
Shc(PTB!+,Y317~pY!2).Grb2(SH2!2,SH3!3).Sos(dom!3) kp19, km19
# Cytosolic
Shc(PTB,Y317~pY) + Grb2(SH2,SH3) <-> Shc(PTB,Y317~pY!1).Grb2(SH2!1,SH3) kp21, km21
Shc(PTB,Y317~pY) + Grb2(SH2,SH3!+) <-> Shc(PTB,Y317~pY!1).Grb2(SH2!1,SH3!+) kp23, km23
Shc(PTB,Y317~pY) -> Shc(PTB,Y317~Y) km16
Grb2(SH2,SH3) + Sos(dom) <-> Grb2(SH2,SH3!1).Sos(dom!1) kp12, km12
Shc(PTB,Y317~pY!2).Grb2(SH2!2,SH3) + Sos(dom) <-> \
Shc(PTB,Y317~pY!2).Grb2(SH2!2,SH3!3).Sos(dom!3) kp22, km22
end reaction rules
begin observables
Molecules Dimers egfr(r!1).egfr(r!1)
Molecules Sos_act Shc(PTB!+,Y317~pY!2).Grb2(SH2!2,SH3!3).Sos(dom!3), egfr(Y1068~pY!1).Grb2(SH2!1,SH3!2).Sos(dom!2)
Molecules RP egfr(Y1068~pY!?), egfr(Y1148~pY!?)
Molecules Shc_Grb Shc(Y317~pY!1).Grb2(SH2!1)
Molecules Shc_Grb_Sos Shc(Y317~pY!1).Grb2(SH2!1,SH3!2).Sos(dom!2)
Molecules R_Grb2 egfr(Y1068~pY!1).Grb2(SH2!1)
Molecules R_Shc egfr(Y1148~pY!1).Shc(PTB!1,Y317~Y)
Molecules R_ShcP egfr(Y1148~pY!1).Shc(PTB!1,Y317~pY!?)
Molecules ShcP Shc(Y317~pY!?)
Molecules R_G_S egfr(Y1068~pY!1).Grb2(SH2!1,SH3!2).Sos(dom!2)
# Strong differences are seen for R_G_S in comparison with path model
Molecules R_S_G_S egfr(Y1148~pY!1).Shc(PTB!1,Y317~pY!2).Grb2(SH2!2,SH3!3).Sos(dom!3)
Molecules Efgr_total egfr
Molecules Shc_total Shc
Molecules Sos_total Sos
Molecules Grb2_total Grb2
end observables
end model
## actions ##
# construct reaction network
generate_network({overwrite=>1})
# Equilibration..
#setConcentration("egf(r)",0)
#simulate({method=>"ode",t_end=>100000,n_steps=>10,sparse=>1,steady_state=>1})
# Kinetics..
#setConcentration("egf(r)","egf_tot")
simulate({method=>"ode",t_end=>40,n_steps=>50,atol=>1e-8,rtol=>1e-8,sparse=>1})