Abstract:
A robot vehicle for automatic operation in a predetermined travelling route comprises a pair of driving wheels connected to a driving device; means for detecting revolving speeds of said driving wheels; means for detecting azimuth of the travelling direction of said robot vehicle; a memory device for memorizing a travelling program including data of a travelling distance and an azimuth; and a control processor device which control the travelling of said robot vehicle depending upon the travelling program of said memory device under comparing the travelling distance and azimuth of the travelling program with a travelling distance detected by said revolving speed detecting means and an azimuth detected by said azimuth detecting means.
Abstract:
A remote-controlled motor-driven vehicle responsive to a control signal transmitted by a portable transmitter carried by a moving individual for transporting a load at a predetermined distance behind the individual has an improved control system which includes a receiver for detecting the transmitted signal and developing therefrom a range signal representative of the distance between the individual and the vehicle and bearing signal representative of the heading of the vehicle relative to the individual. A motor control circuit is responsive to the application of the range and bearing signals for controlling the speed and direction of said vehicle. A detector is coupled to the receiver and is responsive to the reception of the control signal for developing an actuating signal. A switching circuit is coupled between the receiver and the motor control circuit and is responsive to the actuating signal for causing the motor control circuit to first respond to the bearing signal and then respond to the range signal to thus sequentially steer the vehicle in the proper direction and then move the vehicle to the desired distance behind the individual.
Abstract:
The present invention relates to a golf cart operating by recognizing a specific behavior of a user as a routine, and a golf cart control method therefor, and, more specifically, comprises: at least one remote controller (100) carried by a user, and a cart (200) capable of performing autonomous driving, stopping, and re-starting by exchanging signals with the remote controller (100), wherein the cart (200) recognizes the user behind the user and performs autonomous driving while keeping a predetermined distance from the user, and, if a specific behavior of the user is recognized, the cart (200) can stop or re-start in response to the specific behavior so that the user can conveniently use the cart even without issuing a command by using the remote controller (100) during stopping or re-starting of the cart.
Abstract:
Disclosed is a golf-shot-tracking-self-driving-path central controlling system, comprising a predetermined-paths-determining module, a golf-ball-next-shot-location determining module and a path driving controlling module, to centrally control each of a plurality of golf-shot-tracking fairway-self-driving golf carts to drive in one of a plurality of predetermined paths or shift among the plurality of predetermined paths.
Abstract:
A charge control system includes a lithium battery configured to provide lithium battery power to a set of electrical loads, a user signaling device, and control circuitry coupled with the lithium battery and the user signaling device. The control circuitry is operative to: (A) detect availability of charge from an external charger, (B) in response to detection of the availability of charge from the external charger and prior to controlling the external charger to adjust the amount of charge stored by the lithium battery, perform a set of pre-charging assessment operations, and (C) based on the set of pre-charging assessment operations, provide a user notification via the user signaling device, the user notification indicating whether the lithium battery is properly setup for charge adjustment. When the user signaling device generates the user notification, the user is informed that the utility vehicle is properly connected to the external charger.
Abstract:
A system method for detecting taillight signals of a vehicle using a convolutional neural network is disclosed. A particular embodiment includes: receiving a plurality of images from one or more image-generating devices; generating a frame for each of the plurality of images; generating a ground truth, wherein the ground truth includes a labeled image with one of the following taillight status conditions for a right or left taillight signal of the vehicle: (1) an invisible right or left taillight signal, (2) a visible but not illuminated right or left taillight signal, and (3) a visible and illuminated right or left taillight signal; creating a first dataset including the labeled images corresponding to the plurality of images, the labeled images including one or more of the taillight status conditions of the right or left taillight signal; and creating a second dataset including at least one pair of portions of the plurality of images, wherein the at least one pair of portions of the plurality of the images are in temporal succession.
Abstract:
A self-driving vehicle includes a plurality of operation members for the driver to operate and a controller. The plurality of operation members includes a steering operation member, a brake operation member, and an accelerating operation member. The controller has, as control modes thereof, an automatic operation mode and a manual operation mode. The operation member that is predefined as a trigger for the shift from the automatic operation mode to the manual operation mode differs depending on states of the vehicle in the automatic operation mode. The self-driving vehicle enables the driver to shift the control mode from the automatic operation mode to the manual operation mode with a simple operation.
Abstract:
A autonomous robotic golf caddy which is capable of following a portable receiver at a pre-determined distance, and which is capable of sensing a potential impending collision with an object in its path and stop prior to said potential impending collision.
Abstract:
A autonomous robotic golf caddy which is capable of following a portable receiver at a pre-determined distance, and which is capable of sensing a potential impending collision with an object in its path and stop prior to said potential impending collision.
Abstract:
A control apparatus for a self-moving cart is disclosed, in particular a golf caddy, comprising at least a speed control of a motor onboard the cart and a logical control unit which adjusts said speed control of said motor based on the relative position of a reference user, furthermore comprising a proximity detection device meant to face the rear side of the cart, with respect to the travelling direction, so as to detect a relative distance with respect to a user following the cart, said logical control unit being configured so as to determine said speed control depending on said detected relative distance so that it is maintained in a tolerance range defined by a maximum distance and a minimum distance, wherein said minimum distance is such as to enable the user to operatively reach on/off means of said apparatus meant to be installed onboard said cart.