Influence of Kink Protection Systems on a Tram Passing Through Curve

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Influence of Kink Protection Systems on a Tram Passing Through Curve Grzegorz Fira, Tomas Załuski, Albert Szałajko,, Augsburg, 8-9 October www.ec-e.pl

Content Existing system of kink protection for a tram MBS Simulation Kinematics of tram MBS model Kink protection for two bogies steering system Kink protection for three bogies steering system On track case Example of results Comparing the results Swept envelope examples Safety against derailment (Y/Q ratio) Conclusions and future work 2

Existing system of kink protection for a tram Bombardier Transportation Rail vehicle with articulated joint WO98/42557 Control elements are provided to detect the angle of rotation between the wagon bodies and their corresponding bogies, and the angle of articulation at the articulated joint as well as controllable actuators for influencing the angle of articulation depending on the control elements. The angle of articulation is regulated to a control value, said control value being the sum of the current angle of articulation measured and the bending angle, in order to be able to minimize the clearance required whilst the railway vehicle is travelling dynamically. 3

Existing system of kink protection for a tram Liebherr Track-guided vehicle, in particular a rail vehicle for the transport DE 19936565 A1 Steering rule is realized according to equation: α 1 k 1 = k 3 α 3 + α 5 k 5 +... + k n α n α i relative rotation angle between carbody and corresponding bogie k i gain factor 4

Existing system of kink protection for a tram Liebherr Track-guided vehicle, in particular a rail vehicle for the transport DE 19936564 A1 Steering rule is realized according to equation: α 1 = k * (-1) n α n α i relative rotation angle between carbody and corresponding bogie k i gain factor 5

MBS Simulation: MBS tram model MBS model of tram: Complete analyzed model with trailer, motor bogies and intercar connections (each carbody is supported by one bogie). Motor bogie model include all kinematic connections, flexibility, stiffness and damping characteristics. Defined sensors for measuring of position in three dimensions for each marker located on cross sections relative to the Isys (required for swept envelope evaluation). Two kind of kink protection system are modeled: Steering system applied for two bogies (named 2xB) Steering system applied for three bogies (named 3xB) All bogies with independent wheels. 6

MBS Simulation: Kink protection for two bogies steering system Steering system applied for two bogies (named 2xB) carbody 3 carbody 2 carbody 1 α 3 α 1 bogie 3 bogie 2 bogie 1 Two hydraulic actuators for each bogie (additional yaw moment for controling relative angle between carbody and bogie). Each actuator is connected between carbody and corresponding bogie with in series stiffness damping element. 7

MBS Simulation: Kink protection for two bogies steering system Steering system applied for two bogies (2xB) gear α1 bogie 1 α3 bogie 3 actuator Steering rule is realized according to equation α1 = - α3 actuator 8

MBS Simulation: Kink protection for three bogies steering system Steering system applied for three bogies (named 3xB) carbody 3 carbody 2 carbody 1 α 3 α 1 bogie 3 α 2 bogie 2 bogie 1 Two hydraulic actuators for each bogie (additional yaw moment for controling relative angle between carbody and bogie). Each actuator is connected between carbody and corresponding bogie with in series stiffness damping element. 9

MBS Simulation: Kink protection for three bogies steering system Steering system applied for three bogies (3xB) differential mechanism α 2 bogie 2 α 2 /2 α 3 bogie 3 α1 bogie 1 actuator Based on equations as follow α 1 = α 2 /2 - Δ α α 3 = α 2 /2+ Δ α steering rule is realized according to equation α 1 + α 3 = α 2 actuator 10

Cant [m] MBS Simulation: On track case Track radius 25m, cant 130mm, velocity 20 km/h Cant [m] Curvature [1/m] 0,15 0,1 0,05 0-0,05-0,1-0,15 0 50 100 150 200 250 300 On track position [m] 11

Example of results: Comparing the results Type of steering system / Gain factor (stiffness) Maximum lateral displacement of carbody 1 relative to reference value [m] Maximum lateral displacement of carbody 2 relative to reference value [m] Maximum lateral displacement of carbody 3 relative to reference value [m] 2xB / K1-0.030-0.013 +0.002 Page 13 Page 14 Page 15 Page 16 Page 17 2xB / K2-0.071-0.050-0.028 2xB / K3-0.069-0.038-0.019 3xB / K4-0.064-0.077-0.038 3xB / K5-0.080-0.063-0.042 3xB / K6-0.069-0.079-0.050 3xB / K7-0.078-0.078-0.053 3xB / K8-0.089-0.079-0.049 3xB / K9-0.095-0.081-0.046 3xB / K10-0.078-0.078-0.053 3xB / K11-0.078-0.078-0.053 3xB / K12-0.073-0.079-0.050 3xB / K13-0.083-0.077-0.053 12

Example of results: Swept envelope examples References results without kink protection system Gain factor K2 Steering system applied for two bogies Car body 1 Car body 2 Car body 3 13

Example of results: Swept envelope examples References results without kink protection system Gain factor K4 Steering system applied for three bogies Car body 1 Car body 2 Car body 3 14

Example of results: Swept envelope examples References results without kink protection system Gain factor K5 Steering system applied for three bogies Car body 1 Car body 2 Car body 3 15

Example of results: Swept envelope examples References results without kink protection system Gain factor K8 Steering system applied for three bogies Car body 1 Car body 2 Car body 3 16

Example of results: Swept envelope examples References results without kink protection system Gain factor K9 Steering system applied for three bogies Car body 1 Car body 2 Car body 3 17

Example of results: Safety against derailment (Y/Q ratio) without system with system Steering system applied for three bogies 18

Example of results: Safety against derailment (Y/Q ratio) without system with system Steering system applied for three bogies 19

Example of results: Safety against derailment (Y/Q ratio) without system with system Steering system applied for three bogies 20

Conclusions and future work Conclusions: Kink protection system reduces swept envelope of tram passing through curve. Y/Q ratio (safety against derailment) not exceeding limit values. Carbody and bogie structure should be resistant for additional loads resulting from kink protection system. Future work: Verification of kink protection system for different kind of tram kinematics. Co-simulation with numerical model of hydraulic kink protection system. 21

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