Cauzin Systems, Incorporated

Scott Santulli

John Glaberson

Robert L Brass

G Thomas Roth

Richard W Mason

Richard K Balaska, Jr

William M Feero

Henry S Imiolek

Arthur J L'Heureux, Iii

John Frega

A card reader for reading data strips carried on cards, the reader having a housing with an input slot carrying a removable card alignment tray to receive the cards. A sensor is used to detect the presence of an inserted card and cause the card, once sensed, to be drawn in by card driving mechanisms and forced into, and held, in alignment. Alignment is three dimensional in that the card is held against two perpendicular guides and flat against a window. A detector senses when the card is in its aligned position and actuates an optical scanner to scan the data strip on the card. Scanning is through the window, assuring that the plane of the card is correct. When scanning is completed, the input mechanism is reversed to eject the card. Proper alignment of the data strip relative to the scanner, occurs because (a) the scanner itself is positioned by a track, (b) the alignment tray (which holds the card being read) has end and side alignment guides to position the card relative to the scanner, and (c) the data strip is in a known, predetermined position on the card.

Card reader for receiving a card bearing an imprinted data strip, self

A printed data strip (7) on a substrate (5) is provided including bit encoded information (23) and control information (15, 19, 27, 29) for an optical scanner. The encoded information is in a plurality of parallel, contiguous data lines (11) formed of bits of sequentially-encoded information, the bits being of uniform height and width. The data lines (11) start along a common line and, together, form an information portion (23) of sequentially-encoded data. The data lines (11) are transverse to the longitudinal dimension of the data strip (7). Associated with the encoded information on the printed substrate (5) are printed areas serving preliminarily to align the optical scanner with the data lines (17), and to set contrast levels (17), to maintain alignment during scanning (27, 29), and to set the vertical (19) and horizontal (15) rates of scanning. Means are provided to control and adjust the timing of each scanned data line by the optical scanner during the course of scanning.

Printed data strip including bit-encoded information and scanner control

A data strip (2) of predetermined size is made (a) by determining the total nibbles of digital information to be encoded and the maximum number of integral nibbles per data line (14), using predetermined minimum dibit dimensions, after allowing for parity checks, alignment guides (32,36), and a start line (28), (b) by increasing the dibit dimensions to achieve the predetermined size, and adjusting the bit size to account for ink spread, and (c) by preparing a reader instruction header (16) containing coded specifications as to the data strip format. These factors are interdependent and must be correlated to provide a final data strip (2) satisfying all the predetermined criteria. An associated printer (64) prints the data strip (2) with a header (16) and a data portion (12) in the determined format. The printer (64) may be a dot matrix printer which prints a data strip having the full width of the printer, which is then reduced photographically to increase the accuracy of the final data strip (2); or a laser or dot matrix printer can be used to print in the finished size.

Method and apparatus for transforming digitally encoded data into

An apparatus and method are provided for reading contiguous, conterminous, parallel data lines (76) of minute, rectangular bits of information printed on a substrate (2) and together forming a data strip (3) with its length, perpendicular to the data lines (76). The reader (1) includes alignment means for holding the strip (5) and includes data line scanning means (33, 40, 130) on a chassis (20) which moves longitudinally of the data strip (3) while simultaneously and synchronously scanning the tranverse data lines (76) at a rate that scans each data line a plurality of times. An infra-red light source (50) illuminates the data line (76) being scanned, and crossed cylindrical lenses (30, 32, 40, 130), moving relative to each other and to the data strip (3), focus individual scanned bits upon a matched infra-red detector (42). Multiples (33) of one of the cylindrical lenses, mounted on a rotating drum (44), are used to increase speed of operation. Means are provided for continuously aligning the lenses with the data strip (144, 170), for synchronizing the relative motion of the lenses and the data strip (44, 27, 28, 24), for correlating the scanning means with the size and number of bits of information and with the ratio of the illumination intensity of the printed bits and the substrate (74, 80), and for utilizing a single scan from each multiply-scanned data line (76).

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Danbury, CT, United States of America

Scott Santulli