CALCS PROC052
Ship Motions using Lloyd's Register Rules

CONTENTS

Guidance: Application, Input, Output & Theory
Notation
Input Data Format
PROJECT INPUT
PROJECT OUTPUT

GUIDANCE

Motions are grouped as type Roll, Pitch and Combined. Combined motions are best interpretation of LR intentions.
Coordinate system is X fwd, Y port & Z up (from LR).
General datum for ship dimensions is Ship Bottom (AB Above Bottom), Aft Perpendicular (AP) and Ship Centre Line (transverse).
Usage instructions: Gravity translational acceleration factors are output. The rotational factors need only to be multiplied by appropriate positional offsets of any point from the motion centroid to obtain translational factors due to rotational motion.

APPLICATION

The LR analysis is suitable for conventional mono-hull vessels.
The procedure provides an estimate of accelerations, suitable for the design of structures, at defined points.
See also: BAS005 & BAS021. Procedures PROC050 & PROC052 are used in combination. This is shown in Input Format and the Project Example.

INPUT TO PROCEDURE

The LR formulation provides estimates of parameters (Xcg. Zcg, GM, Tr, Tp or Th) which may not have known values and are then entered as zero.
If SWH is entered as zero (undefined), the value is taken as for the LR survival condition.
If Rx, Ry or`ah are zero they are interpolated using the LR survival SWH & specified SWH.

THEORETICAL BASIS

Lloyd's Register Ship Rules, Chapter14, Section8, Table4.8.2

NOTATION

ahamplitude, heave (m)
Ahacceleration, heave (m/s^2)
AsAcceleration, at ship CG, suffixes x y z translational (m/s^2), rx ry rotational (rad/s^2)
Bship breadth (m)
CGship centre of gravity
condoperating condition
Dship depth, moulded (m)
dship draught (m)
GMlength, ship CG to Metacentre (up+ve) (m)
ggravity acceleration (m/s^2)
h p rheave, pitch & roll indicators
Kwwave height factor, referenced to LR Survival Condition (m)
Lpplength, between perpendiculars (m)
RxAngle, roll amplitude (deg)
RyAngle, pitch amplitude (deg)
SWHSignificant Wave Height (m)
SWHrSignificant Wave Height, Referenced to LR Survival Condition (m)
TrPeriod, roll motion (s)
TpPeriod, pitch motion (s)
ThPeriod, heave motion (s)
Xcg Ycg Zcgco-ordinates of ship CG (m)

INPUT DATA FORMAT

TABLE_D_1
T_CondShip Motion Conditions (PROC052 Input)
cond_i123
ship$Name1Name2Name3
cond$SWH.5mSWH1mSWH2m
Xcg404139.5
Ycg000
Zcg-1-.51.2
Lpp102102102
B222222
D999
GM000
d7.057.057.05
SWH.512
SWHr101010
Rx000
Rxs000
Ry000
Rys000
Tr101010
Tp777
Th000
g9.819.819.81
TABLE_D_0
TABLE_D_1
T_UnitAccelerations at locations of units (PROC050 Input)
unit_iunit$XuYuZuKg
1Rmin.3*100.4522/2+89+241/g
2Rmax.3*100.4522/2+349+241/g
TABLE_D_0

REM Program that co-ordinates PROC050 & PROC052
FOR cond=1 TO Ncond
PROC_TABLE_R("T_Cond","cond","row_case")
PROC052
FOR unit=1 TO Nunit
PROC_TABLE_R("T_Unit","unit","row_case")
PROC050
NEXT
PROC052plt
NEXT

PROJECT INPUT

TABLE_D_1
T_CondMotion Conditions
cond_i1234
ship$BAe113BAe113BAe113BAe113
cond$SWH.5mSWH1mSWH2mSWH3m
Xcg.4*100.45.4*100.45.4*100.45.4*100.45
Ycg0000
Zcg0000
Lpp100.45100.45100.45100.45
B22222222
D9999
GM0000
d7.057.057.057.05
SWH.5123
SWHr10101010
Rx0000
Rxs0000
Ry0000
Rys0000
Tr10101010
Tp7777
Th0000
g9.819.819.819.81
TABLE_D_0
TABLE_D_1
T_UnitAccelerations at locations of units
unit_iunit$XuYuZuKg
1Rmin.3*100.4522/2+89+241/g
2Rmax.3*100.4522/2+349+241/g
TABLE_D_0

FOR cond=1 TO Ncond
PROC_TABLE_R("T_Cond","cond","row_case")
PROC052
FOR unit=1 TO Nunit
PROC_TABLE_R("T_Unit","unit","row_case")
PROC050
NEXT
PROC052plt
NEXT

PROJECT OUTPUT

TABLE_D_T_Cond
cond_i1234
ship$BAe113BAe113BAe113BAe113
cond$SWH.5mSWH1mSWH2mSWH3m
Xcg.4*100.45.4*100.45.4*100.45.4*100.45
Ycg0000
Zcg0000
Lpp100.45100.45100.45100.45
B22222222
D9999
GM0000
d7.057.057.057.05
SWH.5123
SWHr10101010
Rx0000
Rxs0000
Ry0000
Rys0000
Tr10101010
Tp7777
Th0000
g9.819.819.819.81
TABLE_D_T_Unit
unit_iunit$XuYuZuKg
1Rmin.3*100.4522/2+89+241/g
2Rmax.3*100.4522/2+349+241/g
--- Rows Extracted ---
BAe113$ - Rmin$ - SWH.5m$ Accelerations
CriteriaAxAyAzCase
Ax max0.024401.016p+h: -1*Ry -1*Rx +h
Ax min-0.024401.004p+h: 1*Ry -1*Rx +h
Ay max00.055120.9896r+h: -1*Ry 1*Rx +h
Ay min0-0.055121.03r+h: -1*Ry -1*Rx +h
Az max0-0.055121.03r+h: -1*Ry -1*Rx +h
Az min00.05460.9696r-h: -1*Ry 1*Rx -h
all max0.02440.055121.03
all min-0.0244-0.055120.9696
END050
--- Rows Extracted ---
BAe113$ - Rmax$ - SWH.5m$ Accelerations
CriteriaAxAyAzCase
Ax max0.024401.016p+h: -1*Ry -1*Rx +h
Ax min-0.024401.004p+h: 1*Ry -1*Rx +h
Ay max00.055120.9622r+h: -1*Ry 1*Rx +h
Ay min0-0.055121.057r+h: -1*Ry -1*Rx +h
Az max0-0.055121.057r+h: -1*Ry -1*Rx +h
Az min00.05460.9422r-h: -1*Ry 1*Rx -h
all max0.02440.055121.057
all min-0.0244-0.055120.9422
END050
--- Rows Extracted ---
BAe113$ - Rmin$ - SWH1m$ Accelerations
CriteriaAxAyAzCase
Ax max0.0489501.032p+h: -1*Ry -1*Rx +h
Ax min-0.0489501.007p+h: 1*Ry -1*Rx +h
Ay max00.11080.9786r+h: -1*Ry 1*Rx +h
Ay min0-0.11081.059r+h: -1*Ry -1*Rx +h
Az max0-0.11081.059r+h: -1*Ry -1*Rx +h
Az min00.10870.9386r-h: -1*Ry 1*Rx -h
all max0.048950.11081.059
all min-0.04895-0.11080.9386
END050
--- Rows Extracted ---
BAe113$ - Rmax$ - SWH1m$ Accelerations
CriteriaAxAyAzCase
Ax max0.0489501.032p+h: -1*Ry -1*Rx +h
Ax min-0.0489501.007p+h: 1*Ry -1*Rx +h
Ay max00.11080.9238r+h: -1*Ry 1*Rx +h
Ay min0-0.11081.113r+h: -1*Ry -1*Rx +h
Az max0-0.11081.113r+h: -1*Ry -1*Rx +h
Az min00.10870.8838r-h: -1*Ry 1*Rx -h
all max0.048950.11081.113
all min-0.04895-0.11080.8838
END050
TABLE_R T_Cond: ship$=BAe113: cond$=SWH2m: Xcg=.4*100.45: Ycg=0: Zcg=0: Lpp=100.45: B=22: D=9: GM=0: d=7.05: SWH=2: SWHr=10: Rx=0: Rxs=0: Ry=0: Rys=0: Tr=10: Tp=7: Th=0: g=9.81
- PROC052 - Ship Motions, LR Rules Pt3 Ch14 Sec8 150916
As()=0
Motion Parameters,
Zcg= .25*D+.5*d= 5.775
GM= (B^3*Lpp/12)/(B*d*Lpp)+d/2-Zcg= 3.471
Kw= SWH/SWHr= 0.2
Rx= Kw*30= 6
Ry= Kw*12*EXP(-.0033*Lpp)= 1.723
ah= Kw*Lpp/80= 0.2511
Th= .5*SQR(Lpp)= 5.011
Ah= sAh*Kw*.05*Lpp*g/Th^2= -0.3924
BAe113$ - SWH2m$ - Ship Accelerations - Roll & Heave,
As(cond,rh+row,y)= SIN(RAD(Rx+Rxs))*(Ah+g)= 0.9844
As(cond,rh+row,z)= COS(RAD(Rx+Rxs))*(Ah+g)= 9.366
As(cond,rh+row,rx)= .07024*Rx*g/Tr^2= 0.04134
BAe113$ - SWH2m$ - Ship Accelerations - Pitch & Heave,
As(cond,ph+row,x)= SIN(RAD(Ry+Rys))*(Ah+g)= 0.2831
As(cond,ph+row,z)= COS(RAD(Ry+Rys))*(Ah+g)= 9.413
As(cond,ph+row,ry)= .07024*Ry*g/Tp^2= 0.02423
BAe113$ - SWH2m$ - Ship Accelerations - Combined Roll Pitch & Heave,
As(cond,rph+row,x)= SIN(RAD(.71*(Ry+Rys)))*(Ah+g)= 0.201
As(cond,rph+row,y)= SIN(RAD(.71*(Rx+Rxs)))*(Ah+g)= 0.6996
As(cond,rph+row,z)= COS(RAD(.71*(Rx+Rxs)))*COS(RAD(.71*(Ry+Rys)))*(Ah+g)= 9.389
As(cond,rph+row,rx)= .07024*.71*Rx*g/Tr^2= 0.02935
As(cond,rph+row,ry)= .07024*.71*Ry*g/Tp^2= 0.0172
Ah= sAh*Kw*.05*Lpp*g/Th^2= 0.3924
BAe113$ - SWH2m$ - Ship Accelerations - Roll & Heave,
As(cond,rh+row,y)= SIN(RAD(Rx+Rxs))*(Ah+g)= 1.066
As(cond,rh+row,z)= COS(RAD(Rx+Rxs))*(Ah+g)= 10.15
As(cond,rh+row,rx)= .07024*Rx*g/Tr^2= 0.04134
BAe113$ - SWH2m$ - Ship Accelerations - Pitch & Heave,
As(cond,ph+row,x)= SIN(RAD(Ry+Rys))*(Ah+g)= 0.3067
As(cond,ph+row,z)= COS(RAD(Ry+Rys))*(Ah+g)= 10.2
As(cond,ph+row,ry)= .07024*Ry*g/Tp^2= 0.02423
BAe113$ - SWH2m$ - Ship Accelerations - Combined Roll Pitch & Heave,
As(cond,rph+row,x)= SIN(RAD(.71*(Ry+Rys)))*(Ah+g)= 0.2178
As(cond,rph+row,y)= SIN(RAD(.71*(Rx+Rxs)))*(Ah+g)= 0.7579
As(cond,rph+row,z)= COS(RAD(.71*(Rx+Rxs)))*COS(RAD(.71*(Ry+Rys)))*(Ah+g)= 10.17
As(cond,rph+row,rx)= .07024*.71*Rx*g/Tr^2= 0.02935
As(cond,rph+row,ry)= .07024*.71*Ry*g/Tp^2= 0.0172
END052
TABLE_R T_Unit:unit_i=1:unit$=2:Xu=3:Yu=4:Zu=5:Kg=6
- PROC050 Ship Local Accelerations 150916 - Ship Motions, LR Rules Pt3 Ch14 Sec8 150916
Au()=0
BAe113$ - Rmin$ - SWH2m$ Accelerations r-h: -1*Ry -1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= -0.2151
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.035
BAe113$ - Rmin$ - SWH2m$ Accelerations r-h: -1*Ry 1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0.2151
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.8747
BAe113$ - Rmin$ - SWH2m$ Accelerations r-h: 1*Ry -1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= -0.2151
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.035
BAe113$ - Rmin$ - SWH2m$ Accelerations r-h: 1*Ry 1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0.2151
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.8747
BAe113$ - Rmin$ - SWH2m$ Accelerations r+h: -1*Ry -1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= -0.2234
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.114
BAe113$ - Rmin$ - SWH2m$ Accelerations r+h: -1*Ry 1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0.2234
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9542
BAe113$ - Rmin$ - SWH2m$ Accelerations r+h: 1*Ry -1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= -0.2234
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.114
BAe113$ - Rmin$ - SWH2m$ Accelerations r+h: 1*Ry 1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0.2234
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9542
BAe113$ - Rmin$ - SWH2m$ Accelerations p-h: -1*Ry -1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0.0961
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9844
BAe113$ - Rmin$ - SWH2m$ Accelerations p-h: -1*Ry 1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0.0961
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9844
BAe113$ - Rmin$ - SWH2m$ Accelerations p-h: 1*Ry -1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= -0.0961
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9348
BAe113$ - Rmin$ - SWH2m$ Accelerations p-h: 1*Ry 1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= -0.0961
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9348
BAe113$ - Rmin$ - SWH2m$ Accelerations p+h: -1*Ry -1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0.0985
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.064
BAe113$ - Rmin$ - SWH2m$ Accelerations p+h: -1*Ry 1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0.0985
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.064
BAe113$ - Rmin$ - SWH2m$ Accelerations p+h: 1*Ry -1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= -0.0985
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.015
BAe113$ - Rmin$ - SWH2m$ Accelerations p+h: 1*Ry 1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= -0.0985
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.015
BAe113$ - Rmin$ - SWH2m$ Accelerations rp-h: -1*Ry -1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0.06823
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= -0.1528
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.032
BAe113$ - Rmin$ - SWH2m$ Accelerations rp-h: -1*Ry 1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0.06823
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0.1528
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9179
BAe113$ - Rmin$ - SWH2m$ Accelerations rp-h: 1*Ry -1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= -0.06823
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= -0.1528
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9964
BAe113$ - Rmin$ - SWH2m$ Accelerations rp-h: 1*Ry 1*Rx -h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= -0.06823
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0.1528
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.8827
BAe113$ - Rmin$ - SWH2m$ Accelerations rp+h: -1*Ry -1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0.06994
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= -0.1587
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.111
BAe113$ - Rmin$ - SWH2m$ Accelerations rp+h: -1*Ry 1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= 0.06994
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0.1587
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9977
BAe113$ - Rmin$ - SWH2m$ Accelerations rp+h: 1*Ry -1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= -0.06994
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= -0.1587
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 1.076
BAe113$ - Rmin$ - SWH2m$ Accelerations rp+h: 1*Ry 1*Rx +h
Aux= Kg*(-sRy*As(cond,c,x)-sRy*As(cond,c,ry)*(Zu-Zcg))= -0.06994
Auy= Kg*(sRx*As(cond,c,y)+sRx*As(cond,c,rx)*(Zu-Zcg))= 0.1587
Auz= Kg*(As(cond,c,z)-sRx*As(cond,c,rx)*(Yu-Ycg)+sRy*As(cond,c,ry)*(Xu-Xcg))= 0.9624
BAe113$ - Rmin$ - SWH2m$ Accelerations
CriteriaAxAyAzCase
Ax max0.098501.064p+h: -1*Ry -1*Rx +h
Ax min-0.098501.015p+h: 1*Ry -1*Rx +h
Ay max00.22340.9542r+h: -1*Ry 1*Rx +h
Ay min0-0.22341.114r+h: -1*Ry -1*Rx +h
Az max0-0.22341.114r+h: -1*Ry -1*Rx +h
Az min00.21510.8747r-h: -1*Ry 1*Rx -h
all max0.09850.22341.114
all min-0.0985-0.22340.8747
END050
--- Rows Extracted ---
BAe113$ - Rmax$ - SWH2m$ Accelerations
CriteriaAxAyAzCase
Ax max0.098501.064p+h: -1*Ry -1*Rx +h
Ax min-0.098501.015p+h: 1*Ry -1*Rx +h
Ay max00.22340.8447r+h: -1*Ry 1*Rx +h
Ay min0-0.22341.224r+h: -1*Ry -1*Rx +h
Az max0-0.22341.224r+h: -1*Ry -1*Rx +h
Az min00.21510.7651r-h: -1*Ry 1*Rx -h
all max0.09850.22341.224
all min-0.0985-0.22340.7651
END050
--- Rows Extracted ---
BAe113$ - Rmin$ - SWH3m$ Accelerations
CriteriaAxAyAzCase
Ax max0.148601.096p+h: -1*Ry -1*Rx +h
Ax min-0.148601.022p+h: 1*Ry -1*Rx +h
Ay max00.33790.9268r+h: -1*Ry 1*Rx +h
Ay min0-0.33791.167r+h: -1*Ry -1*Rx +h
Az max0-0.33791.167r+h: -1*Ry -1*Rx +h
Az min00.31920.8083r-h: -1*Ry 1*Rx -h
all max0.14860.33791.167
all min-0.1486-0.33790.8083
END050
--- Rows Extracted ---
BAe113$ - Rmax$ - SWH3m$ Accelerations
CriteriaAxAyAzCase
Ax max0.148601.096p+h: -1*Ry -1*Rx +h
Ax min-0.148601.022p+h: 1*Ry -1*Rx +h
Ay max00.33790.7625r+h: -1*Ry 1*Rx +h
Ay min0-0.33791.331r+h: -1*Ry -1*Rx +h
Az max0-0.33791.331r+h: -1*Ry -1*Rx +h
Az min00.31920.644r-h: -1*Ry 1*Rx -h
all max0.14860.33791.331
all min-0.1486-0.33790.644
END050

PROJECT END