Raptor™ - a high-performance Trading system for high frequency trading built specifically for Arrowhead and for co-location at the TSE. Currently achieving throughput speeds with a median of 59 µs (Microseconds)
SNC-Lavalin provides engineering services for institutional and life sciences projects, with experience in areas such as research centers, universities, hospitals, and laboratories. It has a national presence in Canada and international offices. SNC-Lavalin takes projects from initial feasibility and planning through construction and operations. It has expertise in various types of specialized laboratory facilities, including those for animal research, transgenic research, cleanrooms, and microbiology.
Raptor™ - a high-performance Trading system for high frequency trading built specifically for Arrowhead and for co-location at the TSE. Currently achieving throughput speeds with a median of 59 µs (Microseconds)
SNC-Lavalin provides engineering services for institutional and life sciences projects, with experience in areas such as research centers, universities, hospitals, and laboratories. It has a national presence in Canada and international offices. SNC-Lavalin takes projects from initial feasibility and planning through construction and operations. It has expertise in various types of specialized laboratory facilities, including those for animal research, transgenic research, cleanrooms, and microbiology.
8. E AD Y E
*
* *
E4 E4 (C p Gp Ip NX p )'
E4 Y 4 G
YG
E1 (C p Gp Ip NX p )1
E1*
*
E1 Y1* G
E5 (C p Gp Ip NX p )''
*
*
E5
E5 Y5*
Gp
YG
1 c m
450
Y5* *
E5 Y1* *
E1 Y4* *
E4
Y AS
9. Íýýëòòýé ýäèéí çàñàã äàõ çàñãèéí ãàçðûí çàðäëûí
¿ðæ¿¿ëýã èéã äîîðõ õýëáýðýýð òîäîðõîéëîíî.
Y 1
MG
Gp 1 c m
(1.1)
Ýíäýýñ òýíöâýðò ¿éëäâýðëýëèéí ººð ëºëòèéã òîäîðõîéëáîë:
Gp
YG Gp
1 c m
(1.2)
13. E C p Gp Ip NX p
NX p NX 0 m * Y
E C p Gp Ip NX 0 m * Y
Cp C0 c * DI
Cp C0 c * (Y (T TR))
DI Y NT
T T0 t * Y
NT T TR
Y E
T T0 t * Y
Y E
E C p Gp Ip NX 0 m * Y
Cp C0 c(Y (T0 t * Y TR))
Y E
Y C0 c * (Y (T0 t * Y TR)) G p Ip NX 0 m * Y (1.4)
Ýíä: TR- óëñûí øèëæèõ òºëáºð
15. Y C0 c * (Y (T0 t * Y TR)) G p I p NX 0 m * Y
Y C0 c * Y c * T0 c * t * Y c * TR G p I p NX 0 m * Y
(1 c * (1 t ) m) * Y C0 c * TR G p I p NX 0 c * T0
B0
B0
Y
(1 c * (1 t ) m) (1.5)
Îäîî 1.5 òýãøèòãýëýýñ Ò0-ð íýãä¿ãýýð ýðýìáèéí
óëàìæëàë àâñíààð ¿ë õàìààðàõ òàòâàðûí îðëîãûí
¿ðæ¿¿ëýã íü òîäîðõîéëîãäîíî.
16. Y Y c
M To 1
T0 T0 (1 c(1 t ) m) (1.6)
Ýíä òýíöâýðò ¿éëäâýðëýëä íºëººëäºã áóñàä õ¿ èí ç¿éë òîãòìîë áàéõàä
çºâõºí îðëîãîîñ ¿ë õàìààðàõ òàòâàðûí îðëîãî ººð ëºãäºæ áàéãàà ãýæ ¿çíý.
1.6-í õóâüä t=0, m=0 ãýæ ¿çâýë äàðààõ õýëáýðòýé
áîëíî.
Y c
M T0 1
T0 1 c (1.6’)
17. • (1.6’)-ã îðëîãîîñ ¿ë õàìààðàõ òàòâàðûí
îðëîãûí ¿ðæ¿¿ëýã èéí òîìú¸î ãýæ íýðëýíý.
• ̺í (1.6)-ààñ òýíöâýðò ¿éëäâýðëýëèéí
ººð ëºëòèéã òîäîðõîéëáîë äîîðõ õýëáýðòýé
áîëíî.
c * T0
YT0 T0
(1 c * (1 t ) m) (1.7)
19. c * T0
E AD Y E
*
* *
E4 E4 (C ' p Gp Ip NX p )'
E 4 Y 4
YG
* E1 (C p Gp Ip NX p )1
E 1
* *
E1 Y 1
E5 (C'' p Gp Ip NX p )''
*
*
E5
E5 Y5*
c * T0
c * T0
YT0
1 c(1 t ) m
450
Y5* *
E5 Y1* *
E1 Y4* *
E4
Y AS
24. Òàòâàðûí õóâü ººð ëºãäºæ t2 áîëæ òýíöâýðò ¿éëäâýðëýëèéí
ò¿âøèí ¯*2 áîëñîí ãýæ ¿çüå.
Ýäãýýð íºõöºëèéã òýãøèòãýë (1.5)–ä îðëóóëúÿ.
* B0
Y1
1 c(1 t1 ) m * *
Y Y 2 Y
1
* B0
Y 2
1 c(1 t 2 ) m
B0 B0
1 c(1 t 2 ) m 1 c(1 t1 ) m
25. B0 c (t2 t1 )
(1 c (1 t 2 ) m) (1 c (1 t1 ) m)
B0 c t
(1 c (1 t 2 ) m) (1 c (1 t1 ) m)
Y B0 c
Mt
t (1 c (1 t2 ) m) (1 c (1 t1 ) m)
(1.8’’)
26. (1.8’’)-ä (1.5)-òýãøèòãýëýýñ Â0-ûã îëæ îðëóóëñíààð
äèñêðåò òîõèîëäîë äàõü òàòâàðûí õóâèéí ¿ðæ¿¿ëýã èéí
òîìú¸î ãàðíà.
B0 Y1* (1 c (1 t1 ) m)
Y Y1* (1 c (1 t1 ) m) c
Mt
t (1 c (1 t1 ) m) (1 c (1 t 2 ) m)
*
Y c Y 1
Mt 1
t (1 c (1 t 2 ) m) (1.8’’’)
27. (1.8’’’)-ààñ õàðâàë äèñêðåò òîõèîëäîëä òîäîðõîéëñîí òàòâàðûí
õóâèéí ¿ðæ¿¿ëýã íü ýõíèé òýíöâýðò ¿éëäâýðëýë áîëîí òàòâàðûí
õóâü ººð ëºãäñºíèé äàðààõ òàòâàðûí õóâèàñ õàìààð áàéíà.
(1.8’) áîëîí (1.8’’’) íýãòãýæ äîîðõ õýëáýðýýð áè èõ áîëîìæòîé.
*
Y c Y 1
Mt
t (1 c (1 t 1 ) m)
2 (1.8’’’’)
Ìàãàäã¿é òàòâàðûí õóâü º ¿¿õýí áàãàà𠺺ð ëºãäºæ áàéãàà ¿åä òàñðàëòã¿é
áîëîí äèñêðåò òîõèîëäîëä òîîöñîí ¿ðæ¿¿ëýã îéðîëöîî ãàðíà.
28. Òàòâàðûí õóâèéí ¿ðæ¿¿ëýã èéí òîìú¸îíîîñ òýíöâýðò ¿éëäâýðëýëèéí
ººð ëºëòèéã òîäîðõîéëáîë äàðààõ õýëáýðòýé áîëíî.
*
c Y t 1
Yt
(1 c (1 t 1 ) m)
2 (1.9)
Òàòâàðûí õóâèéí ººð ëºëòèéí ýäèéí çàñãèéí Êåéíñèéí òýíöâýð äýõ
íºëººëëèéã ãðàôèêò àøèãëàí àâ ¿çüå.
29. E AD Y E
'
E' (Cp Gp I p NX p )'
*
E6 Y6* *
E6
E (C p Gp I p NX p )1
*
E1 Y1*
E1*
450
Y AS
Y1* E1* Y6* E6
*
Òàòâàð áóóðñíû óëìààñ áèé áîëæ áóé òýíöâýðò ¿éëäâýðëýëèéí
ºñºëòèéã (1.9) òýãøèòãýëýýð òîäîðõîéëîõ áîëîìæòîé.
38. G
YG
1 c (1 t ) m
Y YG YT0
c T0
YT0
1 c (1 t ) m
* * G c T0
Y
2 Y 1 YG YT0 Y1
1 c (1 t ) m 1 c (1 t ) m
39. Y 1 Gp
MG YG
Gp 1 c (1 t ) m 1 c (1 t ) m
* *
Y c Y
1 c Y t
1
Mt Yt
t (1 c (1 t 1 ) m) (1 c (1 t 1 ) m)
2 2
Gp c Y1* t
Y YG Yt
1 c (1 t ) m (1 c (1 t 1 ) m)
2
Gp c Y1* t
Y2* Y1*
1 c (1 t ) m (1 c (1 t 1 ) m)
2
40. *
* * c T0 c Y
1 t
Y
2 Y
1
1 c (1 t ) m (1 c (1 t 1 ) m)
2
42. Y 1 G
MG YG
Gp 1 c (1 t ) m 1 c (1 t ) m
Y c c T0
M T0 YT0
T0 1 c (1 t ) m 1 c (1 t ) m
Y c Y1* c Y1* t
Mt Yt
t (1 c (1 t1 2 ) m) (1 c (1 t 1 ) m)
2
43. c Y1* t
Yt
(1 c (1 t1 2 ) m)
Y2* (Y1* Yt ) YG
Gp
YG
1 c (1 t ) m
* * c Y1* t G
Y2 Y1
(1 c (1 t1 2 ) m) 1 c (1 t 2 ) m
44. Y 1 Gp
MG
Gp 1 c (1 t ) m 1 c (1 t ) m
* * *
Gp
Y2 Y1 YG Y1
1 c (1 t ) m
Y c Y2* c Y2* t
Mt Yt
t (1 c (1 t1 2 ) m) (1 c (1 t1 2 ) m)
c Y2* t
Y3* Y2* Yt Y2*
(1 c (1 t1 2 ) m)
45. c Y1* t
Yt
(1 c (1 t1 2 ) m) * *
Y2 (Y
1 Yt ) YT0
c T0
YT0
1 c (1 t ) m
* * c Y1* t c T0
Y2 Y1
(1 c (1 t1 2 ) m) 1 c (1 t 2 ) m