Abstract: A control system for a hybrid vehicle includes a controller. When a downshift of a transmission and an increase in an amount of regeneration are carried out during regenerative coast traveling in which regeneration is carried out by an electric motor, and when a state of charge of a battery is lower than a predetermined value, the controller increases the amount of regeneration before completion of the downshift. When the state of charge of the battery is higher than or equal to the predetermined value, the controller increases the amount of regeneration after completion of the downshift.

Abstract: A control apparatus for a power transmitting system of a vehicle provided with a transmission portion having a plurality of speed ratios to be established in steps, and an electric motor operatively connected to an input-side rotary member of said transmission portion and controlled to generate a regenerative torque in a decelerating state of the vehicle, the control apparatus is configured: to implement a shifting control to perform a shifting operation of said transmission portion under the condition of a determination in the decelerating state of the vehicle that an input torque of said transmission portion including said regenerative torque is substantially zero; and to implement the shifting control to perform the shifting operation of said transmission portion under the condition of an improvement of a fuel economy rather than the determination that the input torque of said transmission portion is substantially zero, when a target deceleration value of the vehicle is larger than a predetermined threshol

Abstract: A control apparatus for a vehicular automatic transmission, which permits effective reduction of deterioration of vehicle drivability upon operation of a brake operating member, and which is configured to increase a sweeping rate in a sweep control of the torque capacity of a coupling element of an automatic transmission portion 20 to be engaged to perform a shifting action when a regenerative braking command is generated according to the operation of the brake operating member during an inertia phase of the shifting action, so that the coupling element is rapidly engaged for the purpose of generating an engine braking force when the regenerative braking command is generated according to the operation of the brake operating member during the inertia phase of the shifting action. Accordingly, the braking force generated during the shifting action is equal to the braking force generated in the normal state (in the absence of the shifting action).

Abstract: Hydraulic pressure supplied to a first brake and a second brake in a transmission is controlled during an upshift such that the second brake releases from an applied state, and the first brake applies from a released state. The hydraulic pressure supplied to the first brake is increased to a standby pressure. When a period of time has passed after the upshift starts, the output torque of a powertrain is increased. The standby pressure is corrected according to a decrease rate of an input shaft rotation speed of the transmission during an inertia phase of the upshift. An ECU executes a program that includes the step of setting the period of time from the start of the upshift until the output torque of the powertrain starts to increase, according to the standby pressure.

Abstract: A control apparatus for a vehicular automatic transmission, which permits effective reduction of deterioration of vehicle drivability upon operation of a brake operating member, and which is configured to increase a sweeping rate in a sweep control of the torque capacity of a coupling element of an automatic transmission portion 20 to be engaged to perform a shifting action when a regenerative braking command is generated according to the operation of the brake operating member during an inertia phase of the shifting action, so that the coupling element is rapidly engaged for the purpose of generating an engine braking force when the regenerative braking command is generated according to the operation of the brake operating member during the inertia phase of the shifting action. Accordingly, the braking force generated during the shifting action is equal to the braking force generated in the normal state (in the absence of the shifting action).

Abstract: A motor-generator is feedback-controlled by adopting the rotation speed information from a resolver when the rotation speed of a motor-generator is low, and by adopting the rotation speed information from a north marker when the rotation speed thereof is high. If the gradient of change in the rotation speed thereof based on the presently adopted rotation speed information is greater than or equal to a predetermined value, the rotation speed information switching operation is prohibited to prevent the shift shock during the ratio shifting operation of a reduction mechanism. That is, in a construction in which the rotation speed of the motor-generator can be detected via the resolver and the north marker, the power output device capable of properly performing the rotation speed control of the motor-generator and the like by making proper the timing at which the rotation speed information adopted for the control is switched.

Abstract: A motor-generator is feedback-controlled by adopting the rotation speed information from a resolver when the rotation speed of a motor-generator is low, and by adopting the rotation speed information from a north marker when the rotation speed thereof is high. If the gradient of change in the rotation speed thereof based on the presently adopted rotation speed information is greater than or equal to a predetermined value, the rotation speed information switching operation is prohibited to prevent the shift shock during the ratio shifting operation of a reduction mechanism. That is, in a construction in which the rotation speed of the motor-generator can be detected via the resolver and the north marker, the power output device capable of properly performing the rotation speed control of the motor-generator and the like by making proper the timing at which the rotation speed information adopted for the control is switched.

Abstract: Hydraulic pressure supplied to a first brake and a second brake in a transmission is controlled during an upshift such that the second brake releases from an applied state, and the first brake applies from a released state. The hydraulic pressure supplied to the first brake is increased to a standby pressure. When a period of time has passed after the upshift starts, the output torque of a powertrain is increased. The standby pressure is corrected according to a decrease rate of an input shaft rotation speed of the transmission during an inertia phase of the upshift. An ECU executes a program that includes the step of setting the period of time from the start of the upshift until the output torque of the powertrain starts to increase, according to the standby pressure.