Abstract: Provided is a charging apparatus for vehicles which charges a vehicle provided with a charging control circuit via a charging cable, comprising a charging control device which controls electrical charging to the vehicle by transmitting a charging control signal to the charging control circuit on the vehicle side, a charging control signal transmission restricting device which restricts transmission of the charging control signal, and a resetting device which forcibly resets the charging control signal when said restriction on transmission of the charging control signal is withdrawn.

Abstract: Provided is a charging apparatus for vehicles which charges a vehicle provided with a charging control circuit via a charging cable, comprising a charging control device which controls electrical charging to the vehicle by transmitting a charging control signal to the charging control circuit on the vehicle side, a charging control signal transmission restricting device which restricts transmission of the charging control signal, and a resetting device which forcibly resets the charging control signal when said restriction on transmission of the charging control signal is withdrawn.

Abstract: A first carrier signal generator (15) generates a carrier signal (S1) at a first frequency to modulate a preset identification code (S). A second carrier signal generator (16) generates a carrier signal (S2) at a second frequency, distinct from the first frequency. A modulator (14) affixes the identification code (S) to the carrier signal (S2), and outputs the carrier signal (S2) to a light-emitting circuit (17). When a "smart" or "learning" remote controller, of the type that demodulates frequency, receives the identification code (S), the carrier signal (Sw) of the second frequency is demodulated at the first frequency, compressed and stored in memory. The carrier signal (S2) set at the second frequency can cause the memory capacity of the remote controller to overflow, thereby preventing the identification code (S) from being stored in the learning remote controller.

Abstract: A cloth inspecting device on a loom for detecting abnormality in the cloth being produced has a light emitting and receiving assembly mounted within a sealed container with a transparent window facing the cloth. Drive means for the assembly is within the container and the assembly is mounted on a rail for movement along the length of the container across the width of the fabric. One or more filters are provided. A mirror is disposed opposite the container window with the cloth path therebetween. By placing the light emitting and receiving assembly in a sealed container the assembly as well as its driving mechanism is positively protected against interference by fly or dust during loom operation.