Abstract: A robot arm type automatic car washing device adapted to automatically wash an automobile vehicle by vehicle washing rotary brushes mounted at the front ends of robot arms is so designed that a vehicle left-side washing rotary brush (111) mounted on a vehicle left-side washing robot arm (110) and a vehicle right-side washing rotary brush (121) mounted on a vehicle right-side washing robot arm (120) wash mainly the vehicle left-side and right-side, respectively, to thereby perform vehicle washing process while automatically controlling the vehicle washing rotary brushes respectively mounted on the front ends of the robot arms by a vehicle automatic washing device main controller (102) on the basis of input data in the form of vehicle actual measurement size data measured by analyzing vehicle image data by the vehicle automatic washing device main controller (102), the vehicle image data being prepared by photographing using a vehicle front surface photographing camera (150), a vehicle left side surface photogr

Abstract: A desktop image scanning/reading transmission/reception printer (30) and a floor-installation image scanning/reading transmission/reception printer (40) have an image scanning/reading function using an optical sensor (CCD) and a printing function or an Internet terminal function and are connected to a router, which is an Internet terminal, installed in an office or a home so as to enable data communication through a cable or by wireless. The image scanning/reading transmission/reception printer transmits/receives a read image file created by scanning/reading a document or a printed object by way of an optical sensor to the transmission destination indicated by the facsimile address newly set as transmission destination data or to the IP phone number of the destination Internet terminal over the Internet through a facsimile server which is a newly installed facsimile file transmission/reception server.

Abstract: A vehicle operating state collecting system comprising a plurality of vehicles and a system data center for collecting and analyzing vehicle operating state data. Each vehicle comprises a vehicle operating state data collecting device that collects parameters representing an operating state of the vehicle; and a vehicle operating state data storage for storing the collected data with time and date information. A communication device for transmitting the stored data together with a unique vehicle identification for identifying vehicles to the data center. The data center comprises a receiving device for receiving vehicle data transmitted from the vehicles and a vehicle data storage having a storage area for storing the vehicle data received by the receiving device for each vehicle; and a vehicle operation data analysis device that analyzes the vehicle data stored by the vehicle data storage.

Abstract: A toll road charge collection system comprises a vehicle (7) having an on-vehicle machine (11, 130) mounted thereon, an artificial satellite (1), and a system data center (20). The on-vehicle machine (11, 130) receives radio signal from the artificial satellite (1), and calculates the latitude, the longitude, and the altitude as the vehicle position according to the received radio signal. Latitude data, longitude data, and altitude data indicating the traveling vehicle position history are stored in an external storage unit (46) as a time-series log file, and transmitted to the system data center (20), where the data are stored/accumulated in a storage unit (63) for each vehicle.