This invention relates generally to an apparatus for separating discrete pieces from a continuous web, and, in particular, to a web burster/inserter apparatus that can separate pieces of various sizes and shapes from a continuous web and place the separated pieces into containers that are moving along a high volume handling system or place the separated pieces into a desired location such as the fill tube of a form, fill, and seal bagging machine.
It is a common advertising and promotional technique to place coupons, discount cards, prizes or other promotional materials into containers such as cartons for breakfast cereal or snack items or into bagged products such as potato chips. The coupon is highly visible to the consumer who can then use the coupon for the intended purpose, such as for discounts on future purchases or rebates. The coupon itself may also contain a prize or other premium, often a molded plastic figure or other piece. Accordingly, the term “coupon” used herein includes any type of insert, coupon, card, sheet, receipt, warranty, prize, premium, or other part that can be advantageously handled in accordance with the invention hereinafter described. Similarly, the terms “container” and “receiving product” are used in the broadest possible context to include containers such as boxes, tubs, cans, and vessels of all kinds as well as other coupon receiving objects that can be advantageously used with the present invention, such as the fill tube of a form, fill, and seal packaging machine.
Placing coupons by hand is very expensive as it is labor intensive and human hands cannot always keep up with the speed of modern automated packaging equipment. Thus, packaging equipment manufacturers have developed a variety of automated coupon inserter machines for placing coupons on or into products. Typically, coupon inserting devices operate by discharging or positioning a single coupon in each container rapidly moving along a conveyor system or into a chute or tube of some other type of product handling system. There are several methods and apparatus for placing single coupons. One requires a stack of pre-cut coupons that are individually dispensed from a downwardly sloping channel, such as the system shown in Prewer, U.S. Pat. No. 4,530,200. In that system, pusher elements and advancing rollers coact to withdraw the forwardmost coupon from the pre-cut stack. The coupon is then drawn into the downwardly sloping channel to a dispensing location. In another apparatus, shown in Gallimore, U.S. Pat. No. 4,197,113, a reciprocal vacuum head picks a coupon from a stack of pre-cut coupons and places the coupon on a conveyor system, which in turn transports the coupons to the containers. Another system, shown in Lewis et al., U.S. Pat. No. 4,354,894, requires the use of a mechanical cutting device to separate each coupon from a continuous web. Once separated, the coupons are dispensed to the containers using a conveyor system. In yet another system, a device separates a single coupon from a continuous web of coupons using a bursting technique and places the coupon into the container or places the coupon into the fill tube of a form-fill-seal packaging system. Such devices are disclosed in U.S. Pat. Nos. 5,845,462 and 6,082,079, respectively, which are assigned to the assignee of the present invention. While such systems are generally effective with flat coupons, they have not been found to be entirely effective for use in connection with thick or bulky coupons such as overwrapped plastic prizes or parts (such coupons shall be referred to herein generally as “three-dimensional coupons”). This invention relates to an improved coupon delivery system as compared to the systems described above and to solutions to some of the problems raised or not solved thereby.
The present invention provides a burster-type coupon insertion machine that is capable of handling three-dimensional coupons without damaging the coupon. The coupon insertion machine quickly and reliably dispenses a coupon with each activation of the device and is capable of reliably operating at high speeds. The coupon insertion machine is further capable of separating a variety of coupon sizes, shapes, and burst strengths and includes an integrated coupon delivery mechanism to provide a highly reliable coupon insertion machine at a reasonable price. The coupon inserter in accordance with the present invention easily dispenses overwrapped three-dimensional coupons such as toys, prizes, and other objects. These and other advantages of the present invention will become apparent from the detailed description, claims, and accompanying drawings.
One embodiment of an inserter manufactured in accordance the present invention includes an infeed assembly, a delivery assembly, a ram, a controller, and a number of sensors and motors. Both the infeed and the delivery assemblies include upper and lower belts that are disposed around rollers. The upper and lower belts are functionally connected to one another by a biased linkage. This linkage allows either one or both of the belts to move so as to accommodate coupons of varying dimensions. The lower belts are driven by motors and are fixed in position. In one embodiment, the upper belts are not power-driven and are adjustable and spring-biased. In another embodiment, the upper belts are driven by the same motors driving the lower belts using a drive belt including an automatic tensioning device so as to allow movement of the upper belt. The controller receives input from an activation input, the coupon staging sensor, and the coupon delivery sensor and controls the operation and speed of the infeed assembly, the delivery assembly and the ram. The coupon staging sensor is mounted between the infeed and delivery assemblies and is adjacent the ram. The coupon delivery sensor is mounted beyond the delivery assembly. A container sensor that functions as the activation input is positioned with respect to the production conveyor line such that it can detect the packages into which the coupons are to be inserted. In the case where the device is to be used with a form, fill, and seal packaging machine, the activation input is connected to the form, fill, and seal packaging machine, and is typically linked to a “dump” signal from a statistical weighing machine.
In one embodiment, the device is used with a perforated or otherwise weakened web of coupons and a dull ram end is used in the ram. In another embodiment, a non-perforated web of coupons is used, and a sharp knife end is used in the ram to ensure a clean separation. While it has been found effective to use a pneumatic ram, other electrical or mechanical configurations such as a servo-motor driven ram could also be used. Such an embodiment is particularly useful where a pneumatic power source is not available near the product manufacturing line.
The coupon inserter has a relatively simple operational sequence. In one embodiment, the motor driving the delivery assembly is stopped and started during operation of the coupon inserter. In another embodiment, the motor driving the delivery assembly is continually running during operation of the coupon inserter.
In one embodiment, the motor operating the delivery assembly and the delivery assembly itself are stopped and started. In the embodiment where the three-dimensional coupons are being placed into containers moving along a conveyor or other product handling device, prior to any containers coming down the line, a continuous web of coupons is fed into the infeed assembly and a coupon is staged in the delivery assembly. When a container comes down the line, the container sensor identifies the container and sends an activation signal to the controller through the activation input. The motor connected to the delivery assembly is then activated by the controller to rapidly deliver the pre-staged coupon into the container. At the same time, the infeed assembly slightly backs-up the coupon web to ensure that the area near the coupon staging sensor is clear. When the pre-staged coupon passes the coupon delivery sensor, the motor attached to the infeed assembly begins forward rotation. At the same time, the motor operating the delivery assembly is slowed to match the speed of the infeed assembly. The now moving infeed assembly causes the web of coupons to be fed toward the delivery assembly. The coupon staging sensor senses the presence of the leading edge of the forwardmost coupon and, depending on coupon length, after a short delay, both motors stop thereby placing the thin portion of the web (perforated or otherwise weakened in one embodiment) between the two coupons immediately below the ram. After the web stops moving, the ram fires, breaking the coupons apart. After separation, the now-separated forwardmost coupon is staged in the delivery assembly to await the next signal from the activation input (a container sensor in this embodiment). The process is repeated each time a container passes the container sensor.
If the inserter is used with a form, fill, and seal packaging machine, when the activation input receives a signal from the form, fill, and seal packaging machine, the signal is transmitted to the controller. The motor connected to the delivery assembly is then activated by the controller to rapidly deliver the pre-staged coupon into the fill tube. At the same time, the infeed assembly slightly backs-up the coupon web to ensure that the area near the coupon staging sensor is clear. When the pre-staged coupon passes the coupon delivery sensor, the motor attached to the infeed assembly begins forward rotation. At the same time, the motor operating the delivery assembly is slowed to match the speed of the infeed assembly. The now rotating infeed assembly causes the web of coupons to be fed toward the delivery assembly. The coupon staging sensor senses the presence of the leading edge of the forwardmost coupon and, depending on coupon length, after a short delay, both motors stop thereby placing the thin portion of the web (perforated or otherwise weakened in one embodiment) between the two coupons immediately below the pneumatic ram. After the web stops moving, the ram fires, breaking the coupons apart. After separation, the now-separated forwardmost coupon is staged in the delivery assembly to await the next activation signal from the form, fill, and seal packaging machine. The process is repeated each time an activation signal is received by the activation input from the form, fill, and seal packaging machine.
In another alternative embodiment, the ram is not used. In this embodiment, which may be used in a conveyor-line installation, in a form, fill, and seal packaging machine installation, or in any other suitable environment, the operational process is slightly different. Installation in an environment where the three-dimensional coupons are being placed into containers moving along a conveyor is used for illustrative purposes. Prior to any containers coming down the line, a continuous web of coupons is fed into the infeed assembly and a coupon is staged in the delivery assembly. When a container comes down the line, the container sensor identifies the container and sends an activation signal to the controller through the activation input. The motor connected to the delivery assembly is then activated by the controller to rapidly deliver the pre-staged coupon into the container. When the pre-staged coupon passes the coupon delivery sensor, the motor attached to the infeed assembly begins moving. At the same time, the motor operating the delivery assembly is slowed to match the speed of the infeed assembly. The now rotating infeed assembly causes the web of coupons to be fed toward the delivery assembly. The coupon staging sensor senses the presence of the leading edge of the forwardmost coupon and, depending on coupon length, after a short delay, both motors stop thereby placing the perforated portion of the web between the two coupons between the infeed assembly and the delivery assembly. After the web stops moving, the infeed assembly reverses direction so as to apply a tension to the web thereby breaking the coupons apart at the perforation. After separation, the now-separated forwardmost coupon is staged in the delivery assembly to await the next activation signal from the container sensor and the continuous web remains held in the infeed assembly. The process is repeated each time a container passes the container sensor.
In another embodiment, the motor operating the delivery assembly and the delivery assembly itself are continually running. In one embodiment, the delivery assembly has at least one delivery belt that is continuously moving. The continuous web is fed into the infeed assembly thereby securing the continuous web between the upper infeed belt and the lower infeed belt of the infeed assembly. The infeed assembly advances the continuous web a predetermined length/distance toward a continuously running delivery assembly. Such advancement causes the continuous web to come into contact and engage the delivery assembly. Once the continuous web has been advanced the predetermined length/distance, the infeed assembly is stopped thereby stopping movement of the continuous web. In one embodiment the infeed assembly is stopped when a web portion between successive coupons is positioned between the infeed assembly and the delivery assembly. The infeed assembly then retracts the continuous web the predetermined length/distance from the continuously running delivery assembly. The advancement and retraction of the continuous web while the web is in contact with the continuously running delivery assembly acts to separate the forwardmost coupon from the continuous web. In one embodiment, a ram or knife strikes the continuous web near the web portion to help separate the forwardmost coupon from the continuous web. The delivery assembly then moves the forwardmost coupon to a desired delivery location.
The infeed assembly 22 includes an upper infeed belt 34 disposed about upper infeed rollers 34 and a lower infeed belt 36 disposed around lower infeed rollers 40. In one embodiment, the upper infeed belt 34 and the lower infeed belt 36 are functionally connected to one another by a biased linkage 48. The biased linkage 48 can take a variety of forms such as springs, belts, hydraulics, pneumatics, any combination thereof, or the like. The biased linkage 48 allows the infeed assembly 22 to accommodate three-dimensional coupons. While, as shown in
In one embodiment, upper infeed belt 34 and upper delivery belt 52 are moveable so as to accommodate three-dimensional coupons. This is accomplished by allowing the first and second upper infeed frame pieces 44 and 46 to move with respect to first and second frame pieces 30 and 32 so as to allow a gap sufficient to accommodate the three-dimensional coupon between upper infeed belt 34 and lower infeed belt 38. Similarly, in this embodiment, the first and second upper delivery frame pieces 62 and 64 are also allowed to move with respect to first and second frame pieces 30 and 32 so as to allow a gap sufficient to accommodate the three-dimensional coupon. In an alternative embodiment, lower infeed frame pieces 43 and lower delivery frame pieces 60 are allowed to move with respect to first and second frame pieces 62 and 64 so as to accommodate the three-dimensional coupon.
As best seen by reference to
Like the infeed assembly 22, the delivery assembly 24 includes an upper delivery belt 52 disposed about upper delivery rollers 54 and a lower delivery belt 56 disposed around lower delivery rollers 58. In one embodiment, the upper delivery belt 54 and the lower delivery belt 56 are functionally connected to one another by a biased linkage 48. The biased linkage 48 can take a variety of forms such as springs, belts, hydraulics, pneumatics, any combination thereof, or the like. The biased linkage 48 allows the delivery assembly 24 to accommodate three-dimensional coupons. While, as shown in
As best seen by reference to
As shown in
Ram 26 is attached to the first and second frame pieces, 30 and 32, of the coupon inserter 20 and is positioned between the infeed assembly 22 and the delivery assembly 24. Other means of positioning the ram 26 within the coupon inserter 20 could also be used. In the embodiment where a pneumatic ram is used, it has been found effective to use the Bimba Flat 2 device manufactured by Bimba Manufacturing Company. In the embodiment where an electromechanical ram is used, it has been found effective to use the QCI-17H-3-01 device manufactured by Quicksilver Controls. In one embodiment, the coupon inserter 20 is used with a bandoleer format coupon where each successive coupon is connected to the next one with a perforated or otherwise weakened web portion in between each. If such coupons are used, a dull wedge is used as ram end 72 in the ram 26. In another embodiment, a non-perforated web of coupons is used, and a sharp knife is used as ram end 72 in the ram 26 to ensure a clean separation of the coupon from the web.
The coupon inserter 20 has a relatively simple operational sequence. In one embodiment, the motor driving the delivery assembly 24 and the delivery assembly 24 are stopped and started during operation of the coupon inserter 20. In another embodiment, the motor driving the delivery assembly 24 and the delivery assembly 24 are continually running during operation of the coupon inserter 20.
In one embodiment, the motor driving the delivery assembly 24 is stopped and started. In the embodiment shown in
Also illustrated in
In another embodiment, shown in
In another embodiment shown in
Regardless of the embodiment, feeding the continuous web from the infeed assembly 22 to the delivery assembly 24 causes the continuous web 74 to pass the coupon staging sensor 68. The coupon staging sensor 68 triggers the controller 28 to retrieve a programmed length/distance from memory. The controller 28 then activates the infeed drive motor 42 and operates the infeed assembly 22 to advance the continuous web 74 the programmed length/distance. After the infeed assembly 22 has advanced the continuous web 74, the infeed drive motor 42 stops and restarts the infeed assembly 42 in the opposite direction. The infeed assembly 42 moves the continuous web 74 in the direction toward the delivery assembly. The continuous web 74 is moved the programmed length/distance in this direction. In one embodiment shown in
As illustrated by the foregoing description and shown in the Figures, the present invention is more suitable as a coupon inserter for use with three-dimensional coupons than existing systems. Although the invention has been herein shown and described in what is conceived to be the most practical and preferred embodiments, it is to be understood that the invention is not intended to be limited to the specific embodiments set forth above. Rather, it is recognized that modifications may be made by one of skill in the art of the invention without departing from the spirit or intent of the invention and therefore, the invention is to be taken as including all reasonable equivalents to the subject matter of the appended claims.
This application is a continuation-in-part application of and claims benefit under 35 U.S.C. § 120 to U.S. patent application Ser. No. 09/680,892, filed on Oct. 6, 2000, now abandoned which is specifically incorporated herein by reference in its entirety for all purposes.
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Number | Date | Country | |
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Number | Date | Country | |
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Parent | 09680892 | Oct 2000 | US |
Child | 10718040 | US |