Bell + Howell Company

Other

Bell & Howell Phillipsburg Company

Ren Roxas

Paul J Beatty

Gary L VanderSyde

Dave Haas

Gary VanderSvde

VanderSyde: Gary

An insert track (30) of an insertion machine comprises a continuous elastomer belt (32) which travels a horizontal plate 9101) and proximate a plurality of insert station hoppers (52H-57H). The plate (101) has an upper surface (103) formed from an ultra high molecular weight (UHMW) polyethylene. The plate (101) is sandwiched in a friction fit between the insertion machine frame (100) and a track front edge guide (105). The plate carries a track rear edge guide (104). In its friction fit the plate (101) is slidable for selectively changing the width of the track from the track front edge guide (105) to the track rear edge guide (104). The track front edge guide (105) has a bridge member (112) connected thereto proximate each insert station (52-57). Each bridge member (112) extends above and across the width of the belt (32). Each bridge member (112) has a drag strip (113) suspendedly connected thereto proximate the midpoint of the belt (32). Each drag strip (113) has an axis of elongation which is parallel to the direction of travel of the belt (32). From its connection to its branch member (112), each drag strip (113) curves downwardly to gently ride on the belt (32). In addition to a feeder (60), each insert station has a pair of knock-down arms (126A, 126B) which direct an item relased by the feeder (60) onto the belt ( b 32). Each knock-down arm (126) has a pair of bristled brushes (132, 134) secured to a distal end thereof. The knock-down arms (126) are pivotable about an axis (121). The axis (121) about which the knock-down arms (126) oscillate is intermediate the hoppers (52H-57H) and the belt (32).

Insertion machine with improved insert track

An insertion machine includes an insertion station (44) whereat groups of items are stuffed into an envelope held open at an envelope opening station (49). The insertion station comprises an cam (212)-driven carriage (202) which linearly reciprocates in a direction (480) toward and away from the envelope opening station (49). The carriage (202) carries a plurality of selectively mounted, selectively rotatable pusher fingers (204). The pusher fingers (204) have a profile suitable for shoving items along a partially inclined insertion plate surface 403 and into an opened envelope. The pusher fingers (204) are selectively rotatable to an operative orientation (720) and to an inoperative orientation (722) under the supervision of a controller (205). Jam detectors (550, 552) are provided proximate reciprocating entry fingers (500, 502) which move when a jam occurs in the inserting process. Should a jam occur, the pusher fingers (204) are controlled to rotate to their inoperative orientation (722). Access to the jam location is obtained by rotating the carriage (202) about an axis (415) and by swinging an envelope opening gate (660) about another axis (662). After the inserting of a group of items into an envelope, a flap moistener (70) detects a change in electromagnetic flux as the result of the travel of an opened envelope flap and sprays an atomized fluid along spaced-apart paths (699A, 699B) onto gummed regions of the envelope flap.

Insertion machine

An insertion machine includes an insertion station (44) whereat groups of items are stuffed into an envelope held open at an envelope opening station (49). The insertion station comprises a cam (212)-driven carriage (202) which linearly reciprocates in a direction (480) toward and away from the envelope opening station (49). The carriage (202) carries a plurality of selectively mounted, selectively rotatable pusher fingers (204). The pusher fingers (204) have a profile suitable for shoving items along a partially inclined insertion plate surface 403 and into an opened envelope. The pusher fingers (204) are selectively rotatable to an operative orientation (720) and to an inoperative orientation (722) under the supervision of a controller (205). Jam detectors (550, 552) are provided proximate reciprocating entry flanges (500, 502) which move when a jam occurs in the inserting process. Should a jam occur, the pusher fingers (204) are controlled to rotate the their inoperative orientation (722). Access to the jam location is obtained by rotating the carriage (202) about an axis (415) and by swinging an envelope opening gate (660) about another axis (662). After the inserting of a group of items into an envelope, a flap moistener (70) detects a change in electromagnetic flux as the result of the travel of an opened envelope flap and sprays an atomized fluid along spaced-apart paths (699A, 699B) onto gummed regions of the envelope flap.

An insert track (30) of an insertion machine comprises a continuous elastomer belt (32) which travels over a horizontal plate (101) and proximate a plurality of insert station hoppers (52H-57H). The plate (101) has an upper surface (103) formed from an ultra high molecular weight (UHMW) polyethylene. The plate (101) is sandwiched in a friction fit between the insertion machine frame (100) and a track front edge guide (105). The plate carries a track rear edge guide (104). In its friction fit the plate (101) is slidable for selectively changing the width of the track from the track front edge guide (105) to the track rear edge guide (104). The track front edge guide (105) has a bridge member (112) connected thereto proximate each insert station (52-57). Each bridge member (112) extends above and across the width of the belt (32). Each bridge member (112) has a drag strip (113) suspendedly connected thereto proximate the midpoint of the belt (32). Each drag strip (113) has an axis of elongation which is parallel to the direction of travel of the belt (32). From its connection to its branch member (112), each drag strip (113) curves downwardly to gently ride on the belt (32). In addition to a feeder (60), each insert station has a pair of knockdown arms (126A), 126B) which direct an item released by the feeder (60) onto the belt (32). Each knock-down arm (126) has a pair of bristled brushes (132, 134) secured to a distal end thereof. The knock-down arms (126) are pivotable about an axis (121). The axis (121) about which the knock-down arms (126) oscillate is intermediate the hoppers (52H-57H) and the belt (32).

An insertion machine includes an insertion station (44) whereat groups of items are stuffed into an envelope held open at an envelope opening station (49). The insertion station comprises a cam (212)driven carriage (202) which linearly reciprocates in a direction (480) toward and away from the envelope opening station (49). The carriage (202) carries a plurality of selectively mounted, selectively rotatable pusher fingers (204). The pusher fingers (204) have a profile suitable for shoving items along a partially inclined insertion plate surface 403 and into an opened envelope. The pusher fingers (204) are selectively rotatable to an operative orientation (720) and to an inoperative orientation (722) under the supervision of a controller (205). Jam detectors (550, 552) are provided proximate reciprocating entry fingers (500, 502) which move when a jam occurs in the inserting process. Should a jam occur, the pusher fingers (204) are controlled to rotate to their inoperative orientation (722). Access to the jam location is obtained by rotating the carriage (202) about an axis (415) and by swinging an envelope opening gate (660) about another axis (662). After the inserting of a group of items into an envelope, a flap moistener (70) detects a change in electromagnetic flux as the result of the travel of an opened envelope flap and sprays an atomized fluid along spaced-apart paths (699A, 669B) onto gummed regions of the envelope flap.

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Chicago, IL, United States of America

Ren Roxas