Air-cooled fuel-cell vehicle
An air-cooled fuel-cell vehicle includes: a drive motor for the vehicle; an air-cooled fuel cell; an intake duct which is placed on a vehicle front side relative to the fuel cell and guides air to the fuel cell; an air-intake shutter mechanism which opens and closes the intake duct; a storage chamber provided on the vehicle front side relative to a passenger compartment of the vehicle and accommodates the fuel cell, the intake duct, and the air-intake shutter mechanism; a controlling portion which controls the air-intake shutter mechanism; and a collision detector which detects a front collision of the vehicle. The controlling portion controls the air-intake shutter mechanism to a closed side when the front collision of the vehicle is detected, and the intake duct includes a tubular metal plate portion or a resin portion containing an elastomer component.
1. An air-cooled fuel-cell vehicle comprising:
a drive motor for the vehicle;
an air-cooled fuel cell configured to supply electric power to the motor;
an intake duct placed on a vehicle front side relative to the fuel cell and configured to guide air to the fuel cell;
an air-intake shutter mechanism configured to open and close the intake duct;
a storage chamber provided on the vehicle front side relative to a passenger compartment of the vehicle and configured to accommodate the fuel cell, the intake duct, and the air-intake shutter mechanism;
a controlling portion configured to control the air-intake shutter mechanism; and
a collision detector configured to detect a front collision of the vehicle, wherein
the controlling portion is configured to control the air-intake shutter mechanism to a closed position when the front collision of the vehicle is detected, and
the intake duct includes a tubular metal plate portion or a resin portion containing an elastomer component.
2. The air-cooled fuel-cell vehicle according to claim 1 , further comprising:
an exhaust duct through which the air passing through the fuel cell is discharged to an upper side of the storage chamber relative to the fuel cell; and
an air-exhaust shutter mechanism configured to open and close the exhaust duct, wherein
the storage chamber accommodates the exhaust duct and the air-exhaust shutter mechanism, and
the controlling portion is configured to control the air-exhaust shutter mechanism to a closed position when the front collision of the vehicle is detected.
3. The air-cooled fuel-cell vehicle according to claim 1 , further comprising:
a transaxle configured to transmit power of the motor to wheels of the vehicle, wherein
the storage chamber accommodates the motor and the transaxle,
an end portion, on the vehicle front side, of at least one of the motor and the transaxle is placed on the vehicle front side relative to an end portion of the fuel cell on the vehicle front side.
4. The air-cooled fuel-cell vehicle according to claim 2 , wherein
the exhaust duct includes a tubular metal plate portion or a resin portion containing an elastomer component.
5. The air-cooled fuel-cell vehicle according to claim 1 , further comprising:
a vehicle frame member constituting a framework of the vehicle;
an upper mount mechanism configured to fix the fuel cell to the vehicle frame member; and
a lower mount mechanism configured to fix the fuel cell to the vehicle frame member below the upper mount mechanism, wherein
the upper mount mechanism and the lower mount mechanism fix the fuel cell in an inclined posture so that an upper part of the fuel cell is placed on the vehicle front side relative to a lower part of the fuel cell, and
the lower mount mechanism includes a vulnerable portion configured to be broken more easily than the upper mount mechanism.
6. The air-cooled fuel-cell vehicle according to claim 1 , further comprising:
a vehicle frame member constituting a framework of the vehicle;
an upper mount mechanism configured to fix the fuel cell to the vehicle frame member; and
a lower mount mechanism configured to fix the fuel cell to the vehicle frame member below the upper mount mechanism, wherein
the upper mount mechanism and the lower mount mechanism fix the fuel cell in an inclined posture so that an upper part of the fuel cell is placed on the vehicle front side relative to a lower part of the fuel cell,
the upper mount mechanism and the lower mount mechanism include first and second fastening bolts, respectively, the first and second fastening bolts each being configured to fasten a first bracket fixed to a fuel-cell side member with a second bracket fixed to the vehicle frame member, and
when the vehicle is viewed from a vertical direction, an axial direction of the second fastening bolt of the lower mount mechanism is parallel to a vehicle width direction of the vehicle as compared with an axial direction of the first fastening bolt of the upper mount mechanism.
7. The air-cooled fuel-cell vehicle according to claim 1 , wherein
the metal plate portion of the intake duct or the resin portion of the intake duct includes a deformation promoting portion configured to be promoted to deform at a time when the vehicle has the front collision.
8. The air-cooled fuel-cell vehicle according to claim 1 , further comprising
an air conditioner condenser accommodated in the storage chamber and configured to dissipate heat from air-conditioner refrigerant, wherein
the intake duct is placed on an upper side of the storage chamber relative to the air conditioner condenser.
9. The air-cooled fuel-cell vehicle according to claim 1 , wherein
the air-intake shutter mechanism includes a frame body, and a plurality of fins extending along each other and supported rotatably by the frame body so as to open and close an opening of the frame body, and
the plurality of fins is made of metal.
10. The air-cooled fuel-cell vehicle according to claim 2 , further comprising:
a front hood configured to open and close a top face of the storage chamber; and
an opening degree detector configured to detect opening and closing of the front hood, wherein
the controlling portion is configured to control the air-exhaust shutter mechanism to the closed position when it is detected that the front hood is opened.
11. The air-cooled fuel-cell vehicle according to claim 3 , wherein
the intake duct and the fuel cell are placed on an upper side of the storage chamber relative to the motor and the transaxle.
12. An air-cooled fuel-cell vehicle comprising:
a drive motor for the vehicle;
an air-cooled fuel cell configured to supply electric power to the motor;
an intake duct placed on a vehicle front side relative to the fuel cell and configured to guide air to the fuel cell;
an air-intake shutter mechanism configured to open and close the intake duct;
a storage chamber provided on the vehicle front side relative to a passenger compartment of the vehicle and configured to accommodate the fuel cell, the intake duct, and the air-intake shutter mechanism;
an electronic control unit programmed to control the air-intake shutter mechanism; and
a collision detector configured to detect a front collision of the vehicle, wherein
the electronic control unit is programmed to control the air-intake shutter mechanism to a closed position when the front collision of the vehicle is detected, and
the intake duct includes a tubular metal plate portion or a resin portion containing an elastomer component.