OpenLLM-France/wikimedia huggingface dataset:
# The Torah
## Table of Contents

   * Introduction

### Books and Torah Readings

   * Genesis
      * Bereishit
      * Noach
      * Lech-Lecha
      * Vayeira
      * Chayei Sarah
      * Toledot
      * Vayetze
      * Vayishlach
      * Vayeshev
      * Miketz
      * Vayigash
      * Vayechi
   * Exodus
      * Shemot
      * Va'eira
      * Bo
      * Beshalach
      * Yitro
      * Mishpatim
      * Terumah
      * Tetzaveh
      * Ki Tisa
      * Vayakhel
      * Pekudei
   * Leviticus
      * Vayikra
      * Tzav
      * Shemini
      * Tazria
      * Metzora
      * Acharei
      * Kedoshim
      * Emor
      * Behar
      * Bechukotai
   * Numbers
      * Bamidbar
      * Naso
      * Behaalotecha
      * Shlach
      * Korach
      * Chukat
      * Balak
      * Pinchas
      * Matot
      * Masei
   * Deuteronomy
      * Devarim
      * Va'etchanan
      * Eikev
      * Re'eh
      * Shoftim
      * Ki Teitzei
      * Ki Tavo
      * Nitzavim
      * Vayelech
      * Haazinu
      * V'Zot HaBerachah

## Appendix

   * Bibliography
   * Glossary
   * Authors and Contributors
# The Torah/Authors

Bill Dauster, who wrote the summaries and questions for the Torah readings, is a lawyer, economist, and speechwriter who has served on United States Senate and White House staffs since 1986, and currently works as deputy chief of staff for policy for Senate Majority Leader Harry Reid. Dauster studies Torah at Congregation Beth El in Bethesda, Maryland. He writes the "Weekly Torah portion" section at Portal:Judaism on Wikipedia and since October 2005, has written and expanded Wikipedia articles on each of the 54 weekly Torah portions.
# Structural Biochemistry/Intrinsically Disordered Proteins: 10-year recap/Introduction
## Introduction

More than 10 years ago, the general consensus for the theory of how various proteins have different functions was that structure determines function. However, this is not always the case by the discovery of parts of proteins that are intrinsically disordered. The proposition that the original and native state of the vast variety of proteins is intrinsically disordered (unstructured) is a concept that many scientists take into account to their general view of protein structure and function. Years and years of new discoveries and insightful knowledge led to the importance of intrinsically disordered regions on proteins for certain functions.

## Reference

* Tompa, Peter (2012). "Intrinsically disordered proteins: A 10-year recap". Trends in Biochemical Sciences. 37 (12): 509–16. doi:10.1016/j.tibs.2012.08.004. PMID 22989858.
# Structural Biochemistry/James C. Wang

James C. Wang is a biochemist who had taught at Harvard University and University of California, Berkeley. He is the person who discovered DNA topoisomerase, which was a new enzyme at that time that was able to convert a DNA ring from one form to another. After its discovery, researchers and scientists were able to study how DNA strands and double helixes were passed from one another.

## Early Life

Wang was born in the Jiangsu Province of China during a time of war and tension between China and Japan. Although his time in school was constantly being interrupted, he received a decent education from his mother and through self-learning. Majoring (graduating) in chemical engineering at the National Taiwan University, he continued to pursue his love for chemistry working as a lecturer after graduation. He continued his education and received his PhD in Physical Chemistry at the University of Missouri. Soon after, he received a position to work with DNA alongside with Norman Davidson at the California Institute of Technology in 1964.

## Discovery

While Wang was working with DNA, he started to question why isolated DNA rings were negatively supercoiled. Back then, scientists answered this questions with two different models - one, because the helical structure of DNA inside and outside a cell were different; or two, because of the unique structure within an intracellular DNA where the two complementary strands were kept apart. In other words, the first model suggested that an increase in the number of negative supercoils correlated with its size, while the second suggested that the number of negative supercoils would be independent to its size. Wang decided to look into these two models under identical conditions and discovered that a 25-fold range would have a 1.5 factor of negative coils per length.
In an accidental discovery, Wang left centrifuge tubes containing lysate with infected E. coli cells unattended only to come back with relaxed DNA rings 2.5 hours later. From that small incident, Wang later discovered that supercoiled removal activity and DNA ligase did not correlate with each other. Instead, the "w" protein was the one that removed negative supercoils.
The 1970s was a time of breakthrough regarding DNA research. James Champoux and Renato Dulbecco discovered an activity in mouse cell that relaxed both negative and positive supercoiled DNA with the presence of Magnesium in 1972, and in 1976, Martin Gellert discovered an E. coli enzyme that catalyzed ATP-dependent DNA (DNA gyrase). In 1979, Wang named these enzymes "topoisomerase" because of their ability to interconvert topological isomers. From there, he was also able to prove that positively supercoiled DNA can be relaxed if a short single-stranded loop is inserted into the DNA.

## References

http://www.annualreviews.org/doi/pdf/10.1146/annurev.biochem.78.030107.090101
# Structural Biochemistry/Intrinsically Disordered Proteins: 10-year recap/Conclusion
## Conclusion

The studies and the knowledge of intrinsically disordered proteins are increasing with great pace. The concepts gained from these disordered proteins were expected by scientists and researchers; however, the pace at which scientists are able to learn from these proteins has been intriguing and totally not expected. Some of the developments include “(i) the adaptation of structural techniques to the detailed description of their structural ensemble in vitro and in vivo, (ii) the advanced state of structural-functional studies of many IDPs at unprecedented accuracy, and (iii) the recognition of their involvement in disease, from which novel drugs can be developed”. Intrinsically disordered proteins have left their importance in the field of molecular structural biology that will be shared to the general people in the coming years.

## Reference

* ↑ Tompa, Peter (2012). "Intrinsically disordered proteins: A 10-year recap". Trends in Biochemical Sciences. 37 (12): 509–16. doi:10.1016/j.tibs.2012.08.004. PMID 22989858.
# Structural Biochemistry/John C. Kendrew
## Introduction

John Cowdery Kendrew (March 24, 1917 - Aug. 23, 1997) was an English biochemist who was awarded the Nobel Prize in Chemistry in 1962 for his work for pioneering the use of x-ray crystallography in determining protein structure and more specifically the structure of myoglobin.

## Biography

Kendrew was born in Oxford, England to a Wilfred George Kendrew and Evelyn May Graham Sandberg. He obtained a BS in Chemistry at Trinity College in 1939 and later obtained his PhD also at Trinity College in 1949. After his BS, Kendrew researched on reaction kinetics in the Department of Physical Chemistry at Cambridge. As time progressed, his interests slowly became more biological and eventually he decided to work on the structure of proteins. In 1946, he met his future colleague with whom he'd later share his Nobel Prize with, Max F. Perutz, in the Cavendish Laboratory, the Department of Physics at the University of Cambridge.

## Nobel Prize in Chemistry (1962)

The 1962 Nobel Prize in Chemistry was awarded to not only Kendrew, but also to his colleague Max F. Perutz for their achievement in successfully using X-rays to determine the structures of complex proteins. While x-ray crystallography at the time could be used to determine the structure of simple compounds with tens of atoms, it was unable to do the same for complex structures because it was near impossible to know which phase, the point in the cycle of waves, the X-rays were at when they formed a dot. Perutz solved this problem with the use of heavy atoms, more specifically mercury, and putting them into specific positions in a protein molecule. The atoms altered the intensity of the diffraction pattern in a manner allowing them to determine the location of the atoms which provided a reference point used to calculate the missing phase information. Perutz then used this method to determine the structure of hemoglobin, while Kendrew used this method to determine the structure of myoglobin.

## References

"The Nobel Prize in Chemistry 1962 - Speed Read". Nobelprize.org. 4 Dec 2012 <http://www.nobelprize.org/nobel_prizes/chemistry/laureates/1962/speedread.html>
# Structural Biochemistry/Intrinsically Disordered Proteins: 10-year recap/Structural Disorder in Disease
## Structural Disorder in Disease

A decade ago, scientists made the conclusion that structural disorder had a role in diseases, because of its important properties and characteristics in cellular function. Structural disorder was “then confirmed and/or studied in great detail in many other important disease-associated proteins, such as p53, T protein, and cystic fibrosis transmembrane conductance regulator (CFTR), and was also substantiated by several genome-scale bioinformatics studies”. Studies have shown that a high level of structural disorder was found in proteins that are involved in cancer, neurodegenerative diseases, cardiovascular diseases, and diabetes, leading to the creation of disorder in diseases. “A comprehensive bioinformatics analysis of 406 human proteins, such as breakpoint cluster region-Abelson leukemia (Bcr-Abl) and CBP-mixed lineage leukemia (CBP-MLL), which are both generated by chromosomal translocation and gene fusion in cancer, substantiated the hypothesis that structural disorder enables the cellular existence of oncogenic protein chimeras”. The negativity of structural disorder can appear in dosage sensitivity of genes that cause irregularties if overexpressed. This issue “might be linked with the binding promiscuity of intrinsically disordered proteins, which can be restrained only by their tight regulation at the transcriptional, RNA and protein levels”. Regulation is needed f or control.
Structural disorder is used in the formation of insoluble and intractable substances, known as amyloids. “As a result of the structural exposure of their polypeptide chain, amyloidogenic proteins, which can either cause disease or a heritable advantageous change in phenotype, have a high level of disorder”. Proteins that are rich in the amino acids glycogen and asparagin have the ability to form amyloids: “Asn promotes assembly of potentially functional self-templating amyliods, whereas richness in Gln seems to favor the formation of toxic nonamyloid conformers”.
Structural disorder is important in the action of pathogens. For example, virus entry, replication, and budding are determined by deregulating the signaling of the host cell, which is applied through interactions of viral proteins with key host regulatory proteins. “In most cases viruses use motif-mimicry for this purpose, that is, short motifs in disordered regions mimicking host protein SLIMs”. As an example, “adenovirus early region 1A (E1A) oncoprotein (pRb) into a tertiary pRb:E1A:CBP complex that overrides the cell-cycle checkpoints of the host”.
The studies of intrinsically disordered proteins are viable for the understanding of the cause and development of disease states. In hopes to develop cures and remedies, these disordered proteins are examined thoroughly.

## Reference

* 1 2 3 4 5 6 7 Tompa, Peter (2012). "Intrinsically disordered proteins: A 10-year recap". Trends in Biochemical Sciences. 37 (12): 509–16. doi:10.1016/j.tibs.2012.08.004. PMID 22989858.
# Structural Biochemistry/Irreversible Process
## Irreversible Process

For mechanically reversible, closed-system processes,
* every equation is derived.
* the equations have property changes- dU,dH,△U,△H.
This is applied to reversible and irreversible processes in both closed and open systems. An irreversible process is a two-step process.
* W is for mechanically reversible process.
* Through efficiency, the results are multiplied or divided to get the actual work.
If work is produced, then the absolute value for the reversible process will be too big and has to be multiplied by the efficiency.
If work is required, then the reversible process value will be too small and has to be divided by the efficiency.

## Reference

Smith, J. M., and Ness H. C. Van. Introduction to Chemical Engineering Thermodynamics. New York: McGraw-Hill, 1987. Print.
# The Devonshire Manuscript/Detailed Hand List Hand 7.1

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Hand Tables
### Majiscules

* I
* M
* R

### Miniscules

* a
* b
* d
* e
* f
* g
* h
* i
* l
* m
* n
* o
* r
* t
* u
* v
* y

### Digraphs, Brevigraphs, Symbols, and Extended Examples

* ch
* de
* en
* ght
# The Devonshire Manuscript/Detailed Hand List Hand 8

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Hand Tables
### Majiscules

* A
* B
* C
* D
* E
* G
* I
* L
* M
* N
* O
* P
* R
* S
* T
* V
* W
* Y

### Miniscules

* a
* b
* c
* d
* e
* f
* g
* h
* i
* k
* l
* m
* n
* o
* p
* r
* s
* t
* u
* v
* w
* y
* z

### Digraphs, Brevigraphs, Symbols, and Extended Examples

* after
* an
* can
* cc
* ch
* complaine
* condicion
* couerd
* cr
* de
* deres
* dyvers
* er
* es
* for
* from
* ft
* ger
* graunte
* her
* ll
* marche
* master
* moistur
* moving
* onn
* oo
* par
* per
* pre
* pri
* pro
* qui
* repent
* runne
* ser
* sh
* she
* sk
* smarte
* so
* ss
* sse
* st
* sw
* temper
* th
* that
* the
* thei
* them
* thou
* thr
* to
* tor
* tra
* tt
* uer
* when
* whom
* wich
* with
* wringe
* yor
* yors
# The Devonshire Manuscript/Detailed Hand List Hand HS

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Henry Stuart

This is the hand of Henry Stuart (Stewart). Henry Stuart (1545—1567), Lord Darnley, had strong claims to both the English and Scottish thrones as a descendent of both Henry VII and also of James II of Scotland. The son of Margaret Douglas, niece to Henry VIII, and Matthew Stewart, the Earl of Lennox, Henry was brought up and educated as a potential heir. See his full biography and contributions to the manuscript here.

## Hand Tables
### Majiscules

* A
* B
* C
* F
* H
* I
* L
* M
* N
* S
* T
* W
* Y

### Miniscules

* a
* b
* c
* d
* e
* f
* g
* h
* i
* k
* l
* m
* n
* o
* p
* r
* s
* t
* u
* v
* w
* y
# The Devonshire Manuscript/Detailed Hand List Hand 6

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Hand Tables
### Majiscules

* A
* B
* I
* L
* M
* N
* O
* R
* S
* W
* Y

### Miniscules

* a
* b
* c
* d
* e
* f
* g
* h
* i
* k
* l
* m
* n
* o
* p
* r
* s
* t
* u
* v
* w
* x
* y

### Digraphs, Brevigraphs, Symbols, and Extended Examples

* cer
* der
* es
* ff
* ft
* ger
* gra
* kes
* le
* ll
* ne
* par
* por
* pro
* se
* ser
* ss
* st
* th
* tt
* uer
* with
# The Devonshire Manuscript/Detailed Hand List Hand 7

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Hand Tables
### Majiscules

* E
* G
* I
* M
* O
* R
* T
* W

### Miniscules

* a
* b
* c
* d
* e
* f
* g
* h
* i
* k
* l
* m
* n
* o
* p
* r
* s
* t
* u
* v
* w
* y

### Digraphs, Brevigraphs, Symbols, and Extended Examples

* ces
* ff
* ll
* newer
* part
* sh
* ss
* st
* th
* that
* tter
* wer
* with
# The Devonshire Manuscript/Detailed Hand List Hand 5

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Hand Tables
### Majiscules

* A
* B
* E
* I
* L
* M
* S
* T
* W

### Miniscules

* a
* b
* c
* d
* e
* f
* g
* h
* i
* k
* l
* m
* n
* o
* p
* q
* r
* s
* t
* u
* v
* w
* y

### Digraphs, Brevigraphs, Symbols, and Extended Examples

* cc
* ch
* clo
* co
* cr
* des
* do
* es
* ff
* ght
* ke
* ll
* nn
* our
* par
* per
* pp
* se
* ser
* sp
* ss
* st
* sw
* ter
* th
* that
* the
* them
* then
* there
* this
* thou
* thus
* tironian_9
* tter
* uer
* unt
* ver
* with
# The Devonshire Manuscript/Detailed Hand List Hand MF

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Mary (Howard) Fitzroy

This is the hand of Mary (Howard) Fitzroy. Mary Howard (c.1519–1555) was the daughter of Thomas Howard, third duke of Norfolk, sister to Henry Howard, earl of Surrey, and the niece of Lord Thomas Howard. In late 1529, Henry VIII suggested to Norfolk that one of his daughters should marry his illegitimate son by Elizabeth Blount, Henry Fitzroy, duke of Richmond and Somerset. Mary Howard and Henry Fitzroy were married in 1533. See her full biography and contributions to the manuscript here.

## Hand Tables
### Majiscules
### Miniscules

* a
* b
* c
* d
* e
* f
* g
* h
* i
* k
* m
* n
* o
* p
* r
* s
* t
* u
* w
* x
* y

### Digraphs, Brevigraphs, Symbols, and Extended Examples

| and | |
| be | |
| ca | |
| ch | |
| co | |
| do | |
| dr | |
| ek | |
| ell | |
| en | |
| ff | |
| ffay | |
| ffoo | |
| goo | |
| gr | |
| he | |
| in | |
| is | |
| loweres | |
| nge | |
| no | |
| oo | |
| pl | |
| rememberances | rememberances |
| ss | |
| ssa | |
| sse | |
| sso | |
| st | |
| ste | |
| th | |
| to | |
| with | |
| wo | |
| wordes | |
| your | |
# The Devonshire Manuscript/Detailed Hand List Hand MS

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Mary Shelton

This is Mary Shelton's hand. Shelton (1510x15–1570/71) was the sixth daughter of Sir John Shelton and his wife Anne Boleyn, the Queen's aunt. Her parents were appointed stewards of the household for Princesses Mary and Elizabeth, and Mary in a maid of honour in Queen Anne's court. She was engaged to Thomas Clere, a gentleman retainer of the duke of Norfolk, and was a close friend of Henry Howard, earl of Surrey. Clere passed away in 1545, and Mary married Sir Anthony Heveningham in 1546, was widowed in 1557, and finally married to Philip Appleyard in 1558. See her full biography and contributions to the manuscript here.

## Hand Tables
### Majiscules
### Miniscules

* a
* b
* c
* d
* e
* f
* g
* h
* i
* k
* l
* m
* n
* o
* p
* r
* s
* t
* u
* v
* w
* y

### Digraphs, Brevigraphs, Symbols, and Extended Examples

* ch
* co
* do
* ff
* ffa
* ffe
* ffo
* ffy
* ho
* ld
* lle
* lo
* pr
* ra
* st
* te
* th
* to
* ty
* with
* ys
# The Devonshire Manuscript/Detailed Hand List Hand 9

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Hand Tables
### Majiscules
### Miniscules

* a
* b
* c
* d
* e
* f
* g
* h
* i
* m
* n
* o
* p
* r
* s
* t
* u
* w
* y

### Digraphs, Brevigraphs, Symbols, and Extended Examples

* comm
* ft
* tt
# The Devonshire Manuscript/Detailed Hand List Hand MD

Detailed Hand Lists :
| Hand 1 | Hand 7 | Hand 13 |
| Hand 1.1 | Hand 7.1 | Hand MS |
| Hand 2 | Hand 8 | Hand MD |
| Hand 3 | Hand 9 | Hand MF |
| Hand 4 | Hand 10 | Hand TH1 |
| Hand 5 | Hand 11 | Hand TH2 |
| Hand 6 | Hand 12 | Hand HS |

## Margaret Douglas

This is the hand of Margaret Douglas. Lady Margaret Douglas (1515–1578) was the daughter of Archibald Douglas, earl of Angus, and his second wife, Margaret Tudor, widow of James IV of Scotland. As Henry VIII's niece, Lady Margaret was in the line of succession to the English throne, a position that resulted in her being used as a political pawn on a number of occasions. See her full biography and contributions to the manuscript here.

## Hand Tables
### Majiscules

* W
* Y

### Miniscules

* a
* b
* c
* d
* e
* f
* g
* h
* j
* k
* l
* m
* n
* o
* p
* r
* s
* t
* u
* v
* w
* y

### Digraphs, Brevigraphs, Symbols, and Extended Examples

* be
* bl
* ch
* co
* da
* del
* do
* ds
* et
* ff
* ffa
* ffo
* ffy
* fr
* ga
* ght
* in
* ll
* my
* nc
* ne
* nk
* no
* nt
* or
* re
* rl
* se
* so
* ss
* st
* sy
* te
* th
* to
* tou
* tr
* with
* ˇ
# SwisTrack/Components/CalibrationLinear
## Description

Calibration of the camera system with a second order linear system. The non-linear transformation from image pixels to world coordinates is approximated by a second-order, non-symmetric polynomial of the form
$x=a_{11}u+a_{12}v+a_{13}+a_{14}u^{2}+a_{15}v^{2}+a_{16}uv$ $y=a_{21}u+a_{22}v+a_{23}+a_{24}u^{2}+a_{25}v^{2}+a_{26}uv$
with u, v the image pixels, and x, y the coordinates in world space (meters). The twelve parameters of this-very simple model-are estimated in a least-square fashion from a sufficiently large number of coordinate pairs. Thus, the software has to be provided with a number of image points which positions in the real world are known -- for instance by using a pattern of known dimensions. Hereby, increasing the number of pairs used in the estimation process over the minimum of six moderates the effect of noisy measurements during calibration.
Also, one observes that the precision of the approximation and hence the precision of the prediction is higher in the neighborhood of the training points. By that, we are able to bias the region within the camera frame where we want to minimize the prediction area.

## Input

Particles.

## Output

Particles.

## Parameters
### Calib. Points

Path the XML file containing the calibration points. The file must have the following format:
More points can be added like the two in this example. A minimum of 6 non-collinear points is needed to compute the calibration.
# SwisTrack/Components/ColorMask
## Description

This component will mask certain areas of your image, and therefore allow you to remove particles that are not in your area of interest (e.g. the arena).

## Input

File:SwisTrack ColorMaskInput.png
A color image.

## Output

File:SwisTrack ColorMaskOutput.png
A color image.

## Parameters
### Mask image

A binary (black-and-white) image with the mask.

### Mode

One of the following combination modes:
* Black -> black: Black pixels in the mask image will be black in the output image. All other pixels remain unchanged.
* White -> white: White pixels in the mask image will be white in the output image. All other pixels remain unchanged.
* Black -> white: Black pixels in the mask image will be white in the output image. All other pixels remain unchanged.
* White -> black: White pixels in the mask image will be black in the output image. All other pixels remain unchanged.