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|Inventor | |Inventor | ||
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|EP 340206 B1 | |[https://www.patentfamily.de/13_Data/PatentViewer.aspx?typ=1&ff=&d=21219066 EP 340206 B1] | ||
|METHOD AND TEST-BENCH FOR THE DETERMINATION OF DYNAMIC QUANTITIES FOR INTERNAL COMBUSTION ENGINES | |METHOD AND TEST-BENCH FOR THE DETERMINATION OF DYNAMIC QUANTITIES FOR INTERNAL COMBUSTION ENGINES | ||
|In order, in a method for determining dynamic measured quantities of internal combustion engines, for example acceleration, exhaust, engine-speed and torque values, the internal combustion engine to be tested being coupled to a loading unit and the dynamic measured quantities of the internal combustion engine being fed to a computer unit, to be able to dispense with expensive, mechanically complicated inertia-dynamometer and roller test beds, it is proposed that the operation of a motor vehicle with an automatic gearbox be simulated in the computer unit, the system comprising the internal combustion engine and the motor vehicle being represented as a two-mass oscillator with a certain springiness and damping value, which system is coupled via the torque converter of the automatic gearbox, represented by its steady-state torque-converter family of characteristics, that control signals corresponding to the simulation of individual operating conditions of the motor vehicle be produced and output to the internal combustion engine and to the loading unit, and that the dynamic measured quantities obtained in this way be allocated unambiguously to individual operating conditions of the simulated motor vehicle. | |In order, in a method for determining dynamic measured quantities of internal combustion engines, for example acceleration, exhaust, engine-speed and torque values, the internal combustion engine to be tested being coupled to a loading unit and the dynamic measured quantities of the internal combustion engine being fed to a computer unit, to be able to dispense with expensive, mechanically complicated inertia-dynamometer and roller test beds, it is proposed that the operation of a motor vehicle with an automatic gearbox be simulated in the computer unit, the system comprising the internal combustion engine and the motor vehicle being represented as a two-mass oscillator with a certain springiness and damping value, which system is coupled via the torque converter of the automatic gearbox, represented by its steady-state torque-converter family of characteristics, that control signals corresponding to the simulation of individual operating conditions of the motor vehicle be produced and output to the internal combustion engine and to the loading unit, and that the dynamic measured quantities obtained in this way be allocated unambiguously to individual operating conditions of the simulated motor vehicle. | ||
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|FISCHER, KARL FRANZ ROBERT, DIPL.-ING. DR. | |FISCHER, KARL FRANZ ROBERT, DIPL.-ING. DR. | ||
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|DE 4431640 A1 | |[https://www.patentfamily.de/13_Data/PatentViewer.aspx?typ=1&ff=&d=50003554 DE 4431640 A1] | ||
|Vehicle with hydrodynamic torque converter and method for controlling a torque transmission system with a torque converter | |Vehicle with hydrodynamic torque converter and method for controlling a torque transmission system with a torque converter | ||
|The invention relates to a drive system comprising internal combustion engine and slip-controlled lock-up clutch for a hydrodynamic torque converter. | |The invention relates to a drive system comprising internal combustion engine and slip-controlled lock-up clutch for a hydrodynamic torque converter. | ||
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|FISCHER ROBERT DR ING | |FISCHER ROBERT DR ING | ||
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|DE 19538784 B4 | |[https://www.patentfamily.de/13_Data/PatentViewer.aspx?typ=1&ff=&d=61542504 DE 19538784 B4] | ||
|Torque transmission regulation method for vehicle transmission | |Torque transmission regulation method for vehicle transmission | ||
|A torsional vibration damper damps irregularities of torque at least within a portion of the range of the nominal engine torque. Torsional vibrations are isolated by intentional application or prevention of slip. The useful r.p.m. range of the engine r.p.m. being divided in at least two partial ranges in dependency upon characteristic values. Slip for the purpose of damping torsional vibrations is applied in at least one partial range. The damping of torsional vibrations in at least one further partial range is effected without the application of slip or by intentional prevention of the development of slip. | |A torsional vibration damper damps irregularities of torque at least within a portion of the range of the nominal engine torque. Torsional vibrations are isolated by intentional application or prevention of slip. The useful r.p.m. range of the engine r.p.m. being divided in at least two partial ranges in dependency upon characteristic values. Slip for the purpose of damping torsional vibrations is applied in at least one partial range. The damping of torsional vibrations in at least one further partial range is effected without the application of slip or by intentional prevention of the development of slip. | ||
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STINUS JOCHEN | STINUS JOCHEN | ||
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|DE 19602006 A1 | |[https://www.patentfamily.de/13_Data/PatentViewer.aspx?typ=1&ff=&d=58650633 DE 19602006 A1] | ||
|Torque transfer system, such as clutch, control system | |Torque transfer system, such as clutch, control system | ||
|The appts. is mounted in force flow between drive machine, such as engine, and translation-variable appts., such as gearbox of vehicle, with setting member for controlled adjustment of torque transferable by torque transfer system using control unit, such as computer to control setting member in signal connection with sensors and other electronic units, such as ID units and slip ID units. The control unit detects from the data from torque, slip and operating state identification units the friction energy input into friction faces of the clutch as function of time and determines at least one temp. of clutch as function of time and compares it with threshold value. When this threshold is exceeded the control unit signals high thermal strain on the clutch and introduces protective measures, such as time variable control of clutch setting device (11). | |The appts. is mounted in force flow between drive machine, such as engine, and translation-variable appts., such as gearbox of vehicle, with setting member for controlled adjustment of torque transferable by torque transfer system using control unit, such as computer to control setting member in signal connection with sensors and other electronic units, such as ID units and slip ID units. The control unit detects from the data from torque, slip and operating state identification units the friction energy input into friction faces of the clutch as function of time and determines at least one temp. of clutch as function of time and compares it with threshold value. When this threshold is exceeded the control unit signals high thermal strain on the clutch and introduces protective measures, such as time variable control of clutch setting device (11). | ||
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JAEGER THOMAS DR | JAEGER THOMAS DR | ||
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|DE 19607812 A1 | |[https://www.patentfamily.de/13_Data/PatentViewer.aspx?typ=1&ff=&d=26961542 DE 19607812 A1] | ||
|Gearing unit with radially variable rotors | |Gearing unit with radially variable rotors | ||
|The gearing (1) operates without friction, using first and second rotors (6,7) rotating round their axes (6a,7a) so rotation can be passed to second axis via an interposed rotation-symmetric third rotor (8) also turning round its own axis (8a). The interfaces between third and the first and second rotors respectively can be formed by points or surface contacts and these contacts are achieved without friction. The rotation axes of first and third rotors (6a,8a) and a tangent to the first rotor through the area of contact between first and third rotors meet as a common intercept or dissect this, and the interfaces between second and third rotors meet at or dissect a second common intercept. Two of the rotors are respectively joined to drive and output shafts, using friction-free movement of the third rotor and gearing unit. | |The gearing (1) operates without friction, using first and second rotors (6,7) rotating round their axes (6a,7a) so rotation can be passed to second axis via an interposed rotation-symmetric third rotor (8) also turning round its own axis (8a). The interfaces between third and the first and second rotors respectively can be formed by points or surface contacts and these contacts are achieved without friction. The rotation axes of first and third rotors (6a,8a) and a tangent to the first rotor through the area of contact between first and third rotors meet as a common intercept or dissect this, and the interfaces between second and third rotors meet at or dissect a second common intercept. Two of the rotors are respectively joined to drive and output shafts, using friction-free movement of the third rotor and gearing unit. | ||
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GRASSWALD, CHRISTOPH, 80807 MUENCHEN, DE | GRASSWALD, CHRISTOPH, 80807 MUENCHEN, DE | ||
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|DE 19609878 A1 | |[https://www.patentfamily.de/13_Data/PatentViewer.aspx?typ=1&ff=&d=51449166 DE 19609878 A1] | ||
|Torque transmission system e.g. for motor vehicle | |Torque transmission system e.g. for motor vehicle | ||
|A procedure for controlling a torque transmission system in a car has a targeted acceleration during starting. The starting procedure has at least two phases in which the transmitted torque is controlled through preset parameters or functions. There is a central computer or control unit connected to sensors or other electronic equipment which evaluate the operating conditions or the driver's requirement. In the first starting phase, the torque transmission system is disengaged and the engine speed increases to a predetermined set point, whilst the transmitted torque is virtually zero. At the beginning of the second phase, the engine speed is at its setpoint and the gearbox input speed is virtually zero but at the end, this equals the engine speed. | |A procedure for controlling a torque transmission system in a car has a targeted acceleration during starting. The starting procedure has at least two phases in which the transmitted torque is controlled through preset parameters or functions. There is a central computer or control unit connected to sensors or other electronic equipment which evaluate the operating conditions or the driver's requirement. In the first starting phase, the torque transmission system is disengaged and the engine speed increases to a predetermined set point, whilst the transmitted torque is virtually zero. At the beginning of the second phase, the engine speed is at its setpoint and the gearbox input speed is virtually zero but at the end, this equals the engine speed. | ||
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KREMMLING BURKHARD | KREMMLING BURKHARD | ||
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|DE 19628787 C2 | |[https://www.patentfamily.de/13_Data/PatentViewer.aspx?typ=1&ff=&d=1046297 DE 19628787 C2] | ||
|Automatisch steuerbare Kupplung | |Automatisch steuerbare Kupplung | ||
|The invention concerns an automatic clutch (2) in the drive train of a motor vehicle having a manual or voluntarily changed transmission (3). The clutch (2) is set at a very low transmissible torque when a pedal used to control the load on the engine (1) is not activated and a gear of the transmission (3) is engaged. In this way, a creep tendency desired for manoeuvring the vehicle is brought about. | |The invention concerns an automatic clutch (2) in the drive train of a motor vehicle having a manual or voluntarily changed transmission (3). The clutch (2) is set at a very low transmissible torque when a pedal used to control the load on the engine (1) is not activated and a gear of the transmission (3) is engaged. In this way, a creep tendency desired for manoeuvring the vehicle is brought about. |