Column Name | Description | Data Type | Length | Allow Nulls | Default |
GFR_RID | RID number of the gear frame | Integer | 4 |
| 0 |
GFR_GFRT_RID | RID number of the type of the gear frame | Integer | 4 | ✓ | 0 |
GFR_IX | Index in the specific group of "GFR_GFRT_RID"records. It is important that the first GFR_IX is 0. | SmallInt | 2 | ✓ | 0 |
GFR_PG_GRP | No. of the profile construction for the corresponding gear frame. /* Faktoren 0: GFR_DZ 1: DEFL_1_DZ 2: DEFL_1_DX+DEFL_BASE_DX 3: GFR_BEAM1_DY 4: GFR_BEAM2_DY 5: GFR_DX1 6: GFR_DX2 7: Real rope distance at the gear frame 8: Height of M/R-Beams 9: Distance of Traction sheave to gearing center ( means TR_SHEAVE_DY) 10: Diameter of Traction sheave 11: Width of Traction sheave 12: DEFL_1_DZ 13: DEFL_1_DX 14: Diameter of Deflection 1 15: Width of Deflection 1 16: DEFL_2_DZ 17: DEFL_2_DX 18: Diameter of Deflection 2 19: Width of Deflection 2 20: DEFL_BASE_DX 21: GA_BB_DIST */ void CGrGearFrameComp::SetProfilGruppenParameter(double *pData) { CGrGearComp *pGear = GetShaft()->m_pGear; Assert(pGear); pData[0] = GetGFRSet()->m_GFR_DZ; pData[1] = -GetGFRSet()->m_GFR_DEFSHEAVE_1_DZ; pData[2] = pGear->m_DEFL_1_DX_Edit; pData[3] = GetGFRSet()->m_GFR_BEAM1_DY; pData[4] = GetGFRSet()->m_GFR_BEAM2_DY; pData[5] = GetGFRSet()->m_GFR_DX1; pData[6] = GetGFRSet()->m_GFR_DX2; pData[7] = 0; pData[9] = 0; // wirklichen Seilabstand übergeben pData[7] = fabs(( double)pGear->m_DEFL_1_DX_Edit) + pGear->m_pPulleyBeam[0]->m_pPulleySingle[0]->Get_D()/2 + pGear->m_pTreibscheibe->Get_D()/2; if( Base::IsZero(pData[2]) || GetGFRSet()->m_GFR_MODE & GFR_MODE_DEFSHEAVE_1_DX_CONTAINS_OFFSET ) { pData[2] = fabs(( double)pGear->m_DEFL_1_DX_Edit); } pData[8] = 0; if(GetShaft()->m_pGear->m_pGearBeam[0]->IsActive()) { if(GetShaft()->m_pGear->m_pGearBeam[0]->m_pProfil->IsActive()) { pData[8] =GetShaft()->m_pGear->m_pGearBeam[0]->m_pProfil->FlatGetHeight(); } } // 9: Distance of Traction sheave to gearing center ( means TR_SHEAVE_DY) pData[9] = pGear->m_GA_PUD_DIST_Edit; //pGear->m_pGearArtSet->m_GA_PUD_DIST;// 10: Diameter of Traction sheave pData[10] = pGear->m_pTreibscheibe->Get_D(); // 11: Width of Traction sheave pData[11] = pGear->m_pTreibscheibe->Get_B(); // 12: DEFL_1_DZ pData[12] = pGear->m_DEFL_1_DZ_Edit; // relativ zur traction sheave// 13: DEFL_1_DX pData[13] = pGear->m_DEFL_1_DX_Edit; // (incl. DEFL_BASE_DX)// 14: Diameter of Deflection 1 pData[14] = pGear->m_pPulleyBeam[0]->m_pPulleySingle[0]->Get_D(); // 15: Width of Deflection 1 pData[15] = pGear->m_pPulleyBeam[0]->m_pPulleySingle[0]->Get_B(); // 16: DEFL_2_DZ pData[16] = pGear->m_DEFL_2_DZ_Edit; // relativ zur traction sheave// 17: DEFL_2_DX pData[17] = pGear->m_DEFL_2_DX_Edit; // (incl. DEFL_BASE_DX)// 18: Diameter of Deflection 2 pData[18] = pGear->m_pPulleyBeam[1]->m_pPulleySingle[0]->Get_D(); // 19: Width of Deflection 2 pData[19] = pGear->m_pPulleyBeam[1]->m_pPulleySingle[0]->Get_B(); // 20: DEFL_BASE_DX pData[20] = m_DEFL_BASE_DX; // 21: GA_BB_DIST pData[21] = pGear->m_pGearArtSet->m_GA_BB_DIST; pData[22] = m_DEFSHEAVE_1_DX; // relativ zu DEFL_BASE_DX (d.h. ohne DEFL_BASE_DX) Vorzeichen wie in tabelle pData[23] = m_DEFSHEAVE_1_DZ; // relativ zum Gearframe/ Getriebeauflagepunkt pData[24] = m_DEFSHEAVE_2_DX; // relativ zu DEFL_BASE_DX (d.h. ohne DEFL_BASE_DX) Vorzeichen wie in tabelle pData[25] = m_DEFSHEAVE_2_DZ; // relativ zum Gearframe/ Getriebeauflagepunkt pData[50] = GetGFRSet()->m_GFR_USER_PG_50; pData[51] = GetGFRSet()->m_GFR_USER_PG_51; pData[52] = GetGFRSet()->m_GFR_USER_PG_52; pData[53] = GetGFRSet()->m_GFR_USER_PG_53; pData[54] = GetGFRSet()->m_GFR_USER_PG_54; } | Integer | 4 | ✓ | 0 |
GFR_HITCH_DIST_MIN | Minimum distance between the hitches.Restriction for the selection of a possible gear frame. This value is the minimum theoretical distance of the hitches. The real distance of the hitches must be larger or equal to this value. | Double | 9 | ✓ | 0 |
GFR_HITCH_DIST_MAX | Maximum distance between the hitches.Restriction for the selection of a possible gear frame. This value is the maximum theoretical distance of the hitches. The real distance of the hitches must be smaller or equal to this value. | Double | 9 | ✓ | 0 |
GFR_ROPE_DIST | Distance between the ropes or also the distance between the holes. Enter "0" when the value should be calculated by Liftdesigner. | Double | 9 | ✓ | 0 |
GFR_DZ | Distance between top of the machine beam or finished machine room floor and top of the gear frame. Insert always positive! | Double | 9 | ✓ | 0 |
GFR_DX1 | Distance between center-line traction sheave and fixing part in positive x-direction | Double | 9 | ✓ | 0 |
GFR_DX2 | Distance between center-line traction sheave and fixing part in negative x-direction | Double | 9 | ✓ | 0 |
GFR_DEFSHEAVE_1_DZ | Distance between center point of the traction sheave and the first deflection sheave in z-direction | Double | 9 | ✓ | 0 |
GFR_DEFSHEAVE_1_DX | Gear frame for machine above: Gear frame for machine below: Special: | Double | 9 | ✓ | 0 |
GFR_DEFSHEAVE_1_RID | RID number of the first deflection sheave. When only one deflection sheave is used you have to insert the RID number in this variable. | Integer | 4 | ✓ | 0 |
GFR_DEFSHEAVE_2_DZ | Distance between center point of the traction sheave and the second deflection sheave in z-direction | Double | 9 | ✓ | 0 |
GFR_DEFSHEAVE_2_DX | Gear frame for machine room top: Gear frame for machine room bottom: | Double | 9 | ✓ | 0 |
GFR_DEFSHEAVE_2_RID | RID number of the second deflection sheave. If a second pulley is not in use, insert "0". | Integer | 4 | ✓ | 0 |
GFR_BEAM1_DY | Distance between center-line of the traction sheave and the machine beam in negative y-direction | Double | 9 | ✓ | 0 |
GFR_BEAM2_DY | Distance between center-line of the traction sheave and the machine beam in positive y-direction | Double | 9 | ✓ | 0 |
GFR_MODE | Mode of the gear frame: 0x0001 (1) — The variable GFR_DEFSHEAVE_1_DX contains an offset, instead of an absolute value. You need this option if the gearing frame is dynamic in its distance. Example: A value of -50 for GFR_DEFSHEAVE_1_DX means that the distance between the ropes at the gearing is 50 mm smaller than between the ropes at the car and counterweight. | Integer | 4 | ✓ | 0 |
GFR_MRB_P_RID | RID number of the machine beam. You may mention the MR Beam RID here. We recommend to create your own beam profile if you want to link your machine bed: Read here how to do that. | Integer | 4 | ✓ | 0 |
GFR_MRB_DZ | Distance between the floor and the lower edge of the machine beam | Double | 9 | ✓ | 0 |
GFR_DEF_BASE_DX | Only used for: Gear frame for machine room bottom: Distance between the center of traction sheave and fixing profile of the deflection sheaves in x-direction. Gear frame for machine with sheave in shaft: Distance between the center of traction sheave and fixing profile for the wall in y-direction. | Double | 9 | ✓ | 0 |
GFR_VALID_FOR_TRACTION_D | Restriction for the selection of a gear frame with the diameter of the traction sheave | Double | 9 | ✓ | 0 |
GFR_DESC | Description of the gear frame | VarWChar | 150 | ✓ |
|
GFR_PART_NO |
| VarWChar | 50 | ✓ |
|
GFR_USER_PG_50 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_51 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_52 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_53 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_54 |
| Double | 9 | ✓ | 0 |
GFR_HOLE_XLEFT | For bottom traction only: Size of the hole between shaft and machine room. Check also GFR_MODE Width of the hole to the left relative to the traction sheave center. | Double | 9 | ✓ | 0 |
GFR_HOLE_XRIGHT | For bottom traction only: Size of the hole between shaft and machine room. Check also GFR_MODE Width of the hole to the right relative to the traction sheave center. The total width of the hole is GFR_HOLE_XRIGHT + GFR_HOLE_XLEFT. | Double | 9 | ✓ | 0 |
GFR_HOLE_ZTOP | For bottom traction only: Size of the hole between shaft and machine room. Check also GFR_MODE Height of the hole (up direction) relative to GFR_DZ. The total height of the hole is GFR_HOLE_ZTOP + GFR_HOLE_ZBOTTOM | Double | 9 | ✓ | 0 |
GFR_HOLE_ZBOTTOM | For bottom traction only: Size of the hole between shaft and machine room. Check also GFR_MODE Height of the hole (down direction) relative to GFR_DZ. The total height of the hole is GFR_HOLE_ZTOP + GFR_HOLE_ZBOTTOM | Double | 9 | ✓ | 0 |
GFR_USER_PG_55 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_56 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_57 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_58 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_59 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_60 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_61 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_62 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_63 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_64 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_65 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_66 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_67 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_68 |
| Double | 9 | ✓ | 0 |
GFR_USER_PG_69 |
| Double | 9 | ✓ | 0 |
L_GearFrameTab
Written by Julien
