US20160031235A1

Movatterモバイル変換

Info

Publication number: US20160031235A1
Application number: US14/881,871
Authority: US
Inventors: Marcel Gerber; Thomas Bosgiraud
Original assignee: Cimpress Schweiz GmbH
Current assignee: Vistaprint Ltd; Cimpress Schweiz GmbH
Priority date: 2012-06-18
Filing date: 2015-10-13
Publication date: 2016-02-04
Also published as: US20130334757A1; US9156293B2

Abstract

A manufacturing tray for imprinting custom content onto different articles of manufacture includes a tray base and frame, and a plurality of interchangeable different customized inlays for holding different types of articles of manufacture. Each tray includes an identifier which may be associated with a custom processing job for instructing the imprinting system which of a plurality of available pre-treatment, post-treatment, and imprinting processes to perform.

Description

RELATED APPLICATIONS

This application is a continuation of U.S. application Ser. No. 13/526,500, filed on Jun. 18, 2012, now U.S. Pat. No. 9,156,293, which is hereby incorporated by reference in its entirety.

BACKGROUND OF THE INVENTION

The present invention relates generally to printing on articles of manufacture, and more particularly to a manufacturing tray with customized inlays for processing different types of articles of manufacture.

Performance improvements in computing, networking and communications has led to enormous advances in the number and types of capabilities that one can achieve using a networked device. For example, in the printing industry, websites such as www.vistaprint.com allow a user of a networked device to select and customize template designs for printed and electronic products, and then to order and purchase quantities of such product(s). As the ability to customize designs for printed products becomes simpler for the end customer, the demand for customized printed designs on different types of products has increased. For example, consumers desire not only printed paper documents such as business cards, postcards, brochures, posters, etc., but also many other types of items such as shirts, hats and other garments, and office tools and promotional items such as rulers, USB drives, calculators, toys, tape measures, etc.

As the desire for articles of manufacture such as the promotional items and office tools just described increases, companies looking to print on such products seek ways to meet the demand. Typically, printing on an article of manufacture, especially those that do not comprise a paper product, requires a specialized printing platform (hereinafter “printer tray”) designed to fixedly retain the article of manufacture while a particular design is printed thereon. A blank (unprinted) article of manufacture is loaded onto the specialized printer tray, which in turn is loaded onto a conveyance system of the printing system, which prints the intended design on the article of manufacture. In an industrial environment, manufacturers of printed articles of manufacture typically imprint the same design on a long run of the same type of article of manufacture. This is due in part to the fact that mass production has traditionally been the realm of non-customized unpersonalized products, and further in part due to the high setup time for each print run. In general, in the past, higher efficiencies in terms of time and cost were achieved by printing the same design on high quantities of the same type of article of manufacture. The fewer the quantity of a given type of article of manufacture printed with a given design, the less efficient the process was.

Mass customization overturns the traditional model for achieving high efficiencies in printing. For any given type of article of manufacture, there may be as many different unique designs to print as there are quantity of the particular type of article of manufacture. Adding into this mix any number of different types of articles of manufacture, and the traditional model for achieving printing efficiencies is no longer applicable.

What is needed is a new printing model which allows any number of unique print designs to be printed on any number of different types of articles of manufacture without interrupting the manufacturing (i.e., “printing”) flow or causing downtime of the printing system. Furthermore, it would be desirable to allow multiple different types of articles of manufacture to be printed in any order in the manufacturing flow. Additionally, it would be desirable to allow insertion of high-priority print jobs into the manufacturing flow without interrupting the flow or causing any downtime of the printing system.

SUMMARY OF THE INVENTION

An embodiment includes a manufacturing tray for imprinting custom content onto different articles of manufacture includes a tray base and frame, and a plurality of interchangeable different customized inlays for holding different types of articles of manufacture. Each tray includes an identifier which may be associated with a custom processing job for instructing the imprinting system which of a plurality of available pre-treatment, post-treatment, and imprinting processes to perform.

BRIEF DESCRIPTION OF THE DRAWINGS

A more complete appreciation of this invention, and many of the attendant advantages thereof, will be readily apparent as the same becomes better understood by reference to the following detailed description when considered in conjunction with the accompanying drawings in which like reference symbols indicate the same or similar components, wherein:

FIG. 1A is a top-down view, andFIG. 1B is a perspective view of a schematic representation of an exemplary embodiment of a conveyance printing system;

FIG. 2A is a perspective view of a schematic representation of an exemplary embodiment of a tray being loaded with articles of manufacture;

FIG. 2B is an exploded view of the tray shown inFIG. 2A;

FIG. 2C is a top down view of a number of different tray inlays configured to hold different types of articles of manufacture;

FIG. 2D is a top down view of the tray ofFIG. 2A shown without a tray inlay placed therein;

FIG. 2E is a side view of a tray illustrating a horizontal usage orientation and a vertical storage orientation;

FIG. 3 is a perspective exploded view and its corresponding assembled view of a schematic representation of an alternative exemplary embodiment of a tray implemented in accordance with the invention;

FIG. 4A is a top perspective view of a schematic representation of an embodiment of a loading station;

FIG. 4B is a front perspective view of the loading station ofFIG. 4A;

FIG.4B1 is a zoomed-in view of a section of the tray rack shown inFIG. 4B;

FIG. 4C is a rear perspective view of the loading station ofFIG. 4A wherein the article of manufacture rack and the tray rack are empty of articles of manufacture and empty of trays;

FIG. 4D is a block diagram of a schematic representation of an exemplary pick-to-light system;

FIG. 4E is a side view of the loading station ofFIG. 4A;

FIG. 5 is a block diagram representation of a computer system which may be used to implement one or more of the conveyance printing system components, such as but not limited to the system controller;

FIG. 6 is a view of a schematic representation of an unloading station;

FIG. 7A is a top down view andFIG. 7B is a perspective view of a schematic representation of a section of the conveyance system which implements a transverse direction of the forward motion of the conveyor;

FIG. 8A is a side perspective view of a schematic representation of an exemplary embodiment of a pre-treatment system implemented in accordance with the invention;

FIG. 8B is a perspective view of the pre-treatment system ofFIG. 8A illustrating the entrance of the system;

FIG. 8C is a perspective view of the pre-treatment system ofFIG. 8A taken from the rear and exit of the system with the housing and conveyor removed;

FIG. 8D is a view of a schematic representation of one of the brush units in the pre-treatment system ofFIG. 8A;

FIG. 9A is a top perspective view of a schematic representation of an exemplary embodiment of a printer system implemented in accordance with the invention;

FIG. 9B is a top perspective view of the printer system ofFIG. 9A with the upper framing and housing removed;

FIG. 10A is a view of a schematic representation of the linear motion system within the printing system ofFIGS. 9A and 9B with a tray engaged thereon;

FIG. 10B is a view of the linear motion system ofFIG. 10B without the tray;

FIG. 11 is a flowchart illustrating an exemplary method for adjusting the height of the tray for printing or other processing;

FIG. 12 is a flowchart illustrating the workflow operations of the conveyance printing system;

FIG. 13 is a block diagram illustrating a retail production system in which the conveyance printing system may operate;

FIG. 14A is a schematic representation of an example gang template;

FIG. 14B is a schematic representation illustrating the filling of a gang template;

FIG. 14C is a schematic representation of a filled gang; and

FIG. 14D is a top down view of a tray filled with printed articles after the filled gang file ofFIG. 14C is printed on a filled tray.

DETAILED DESCRIPTION

Embodiments of the invention are directed to supporting a new printing paradigm through methods and systems which alone or together allow any number of unique print designs to be printed on any number of different types of articles of manufacture without interrupting the print manufacturing flow or causing downtime of the printing system(s). Embodiments of the invention may further be configured to allow multiple different types of articles of manufacture to be interspersed in a print manufacturing flow in any order and without regard to which type(s) of articles of manufacture are precedingly or succeedingly printed in the flow. Embodiments of the invention may further be configured to allow insertion of high-priority print jobs into the queue of a currently running print manufacturing flow without interrupting the flow or requiring any downtime of the printing system(s).

Turning now to the drawings,FIGS. 1A and 1B show an exemplary embodiment of a novel continuous-flowconveyance printing system100 with capability to print on multiple different types of articles of manufacture using the same printer, and to print potentially different image content on every article of manufacture, without requiring the printing system to stop or be taken offline between print jobs or between printing of different types of articles of manufacture.

In an embodiment, the continuous-flowconveyance printing system100 operates to print customized images on promotional goods or items, typically characterized by, but not limited to, metallic and/or plastic surfaces. The continuous-flow conveyance printing system in the illustrative embodiments described herein is a production system for direct digital ink-jet printing on promotional items. The system can process a mixture of different promotional items and each item may be printed with a different design or image. The printed items are sorted and packaged on the system, and in some embodiments, direct shipments may even be processed and packed on the system.

In the embodiment shown inFIGS. 1A and 1B, the continuous-flowconveyance printing system100 comprises two identically constructed

production loops

110a,110b, which supply and share aprinting system150 via aconveyance system180. Of course, it is to be understood that other embodiments of the system may include only one production loop, or alternatively may include three or more such production loops. Each

production loop

110a,110bincludes an

independent operations area

120a,120bcomprising a

loading station

130a,130band an unloading

station

140a,140b. Theprinting system150 includes apre-treatment system160 and aprinter system170.

The Conveyance System

As best illustrated inFIGS. 7A and 7B, which show a small portion of thefull conveyance system180, including a portion of themain loop186 and a portion of atransverse motion section187 which allows a tray to bypass a section of themain loop188, theconveyance system180 includes aconveyor181 such as a conveyor belt or roller chain(s), conveyor rail(s)182 for supporting and guiding theconveyor181,conveyor drivers183 for driving theconveyor181 in at least a forward (and potentially a reverse) motion, a plurality ofremovable print trays200 for transporting articles of manufacture through the system100 (seeFIGS. 1A and 1B),pneumatic stoppers184 for stopping movement of atray200 being transported on theconveyor181,sensors185 for monitoring the position(s) of the tray(s)200 on theconveyor181, controller(s)186 for controlling thedrivers183 andstoppers184 of the conveyance system, andtransverse conveyance sections187 for bypassing themain loop188 of theconveyor system180.

Theconveyance system180 transfers theprint trays200 in the two main loops from the

loading stations

130a,130bto theprinting system150 and then on to the unloading

stations

140a,140b, respectively. In an embodiment, theconveyor system180 is implemented using a heavy duty steel belted conveyor, such as a modular transfer system manufactured by Bosch Automation Technology and Robert Bosch GmbH. Preferably, theconveyance system180 transfers thetrays200 at a constant working height. For example, in one embodiment, the working height of transport may be 840 mm to provide optimal loading and unloading ergonomics for a

standing operator

2a,2b(referred to generally as2).

The position oftrays200 along the conveyance path is determinable based on input fromsensors185, such as inductive or RFID sensors, positioned at strategic locations along the conveyance path (including themain loop188 and transverse sections187).Controllable stoppers184 are positioned at strategic locations along the conveyance path to effect stopping (and controllable releasing) of the forward transport oftrays200 on theconveyor181 at various predetermined positions along the conveyance path.

Trays

All articles of manufacture (also referred to herein as “articles”) to be printed are conveyed on trays. Each tray is configured to hold one or more types of articles of manufacture (specific embodiments of which are shown inFIG. 2A as99a-99i) in respective fixed positions as thetray200 is conveyed through thesystem100.

FIGS. 2A-2E together illustrate an exemplary embodiment of atray200 for use in thesystem100. In the exemplary embodiment, eachtray200 comprises abase plate201 and atray inlay210, example embodiments of which are shown best inFIG. 2C at210a,210b,210c,210dcustomized for specific articles of

manufacture

99a,99b,99c,99d, respectively. Theinlay210 of thetray200 is customized to carry a number of articles ofmanufacture99 indedicated slots211 for eacharticle99. Eachdedicated slot211 of theinlay210 is configured to consistently and accurately align a specific type of article ofmanufacture99 in thetray inlay210 of atray200 for correct print alignment, thereby preventing waste and re-print inefficiencies due to improper article alignment (which can cause printed images to be mis-positioned and/or to appear distorted). The number ofarticles99 on a giventray inlay210 will vary depending on the size of thetray inlay210, the size of the article(s)99, and other system parameters which affect how the articles may be positioned. For example, in an embodiment, one system parameter is the width of the printable area. In an example, the width of the printable area by theprinter system150 is 72 mm. As best illustrated inFIG. 2C, allarticles99 are positioned such that the target print area of each article is centered down the center line of theinlay211. The number ofarticles99 carried by onetray200 can therefore range from one to many.

Preferably, thetray inlay210 is removable, such that one

inlay

210a,210b,210c,210ddesigned to hold a particular type of article of

manufacture

99a,99b,99c,99d, can be switched out of thetray200 and replaced by anotherinlay200 designed to hold a different type of article ofmanufacture99. In an embodiment, each type of

tray inlay

210a,210b,210c,210dis designed to fit within atray frame220, which is universal to all types of

inlays

210a,210b,210c,210d. Thetray frame220 may literally be a frame which encases the outer side surfaces of theinlay210. (See, for example,frame250 inFIG. 3, which illustrates an alternative example embodiment200bof atray200 which can be used in system100). In such embodiment, theframe220 includes an orifice that substantially conforms to the shape and size of the outer edges of thetray inlay210 when thetray inlay210 is placed flat within the frame with theslots211 facing up and ready to receive articles ofmanufacture99 to be printed.

Alternatively, thetray frame220 may include only one or more

frame side members

220a,220b,220cwhich are configured to encase only a portion of the outer side surfaces/edges of theinlay210. For example, in an embodiment, thetray frame220 comprises amain frame member220apositioned along or near one edge of thebase plate201 and having two

sub-members

220b,220cperpendicularly arranged along or near the transverse edges of thebase plate201. The perpendicularly arranged

sub-members

220b,220cmay be connected at one end to respective opposite ends of themain frame member220a. The inner surfaces of themain frame member220aand perpendicularly arranged

sub-members

220b,220cengage three of the outer edges of theinlay210, providing both support and alignment assistance for theinlay210 with respect to theframe220. In addition to, or instead of the embodiments described herein, theframe220 may take other forms. For example, in an exemplary embodiment, the tray includes ahandle280 which allows the operator2 to manipulate thetray200, for example when inserting or removing thetray200 into a tray rack lane135 (discussed hereinafter), or when flipping the tray from a vertical position to a horizontal position for use, or vice versa for storage (also discussed hereinafter).

In an embodiment, thetray200 is designed to position the target print surface of the article(s)99 loaded in thetray inlay210 of thetray200 at a constant height as the tray is conveyed along theconveyor181 regardless of the specific type of article ofmanufacture99 that is loaded in thetray200. For example, in one embodiment, each type of

inlay

210a,210b,210c,210d, is configured to position the target print surface(s) of any articles of

manufacture

99a,99b,99c,99dloaded therein to be within a known distance of the known height of the print head nozzles when the tray is conveyed through theprinter system170. For example, if the known height of the print head nozzles in theprinter system170 is 81 mm above the conveyor which passes under the print head(s) in the printer system107, theinlays210 may be configured such that print surface(s) of the articles ofmanufacture99 when loaded on thetray200 have a height of 80 mm when the tray is mounted on the conveyor running under the print head(s).

In one embodiment, a constant print surface height across all types of

inlays

210a,210b,210c,210d, is achieved by way of one or more vertical positioning spacers203apositioned between the base plate201aand theinlay210a. Different types ofinlays210 may usepositioning spacers203 of different heights, as controlled by the shape and size of the particular article of

manufacture

99a,99b,99c,99dfor which the

particular inlay

210a,210b,210c,210dwas designed to carry.

In one tray design, for example as best illustrated inFIGS. 2A,2B and2E, thevertical positioning spacers203 attach at one end to thebase plate201 and at the other end to the underside of theinlay210 by way of screws or bolts. In an alternative tray design, for example as illustrated in an alternative tray embodiment200binFIG. 3, thetray inlay240 includes a slottedplate242 havingslots241 which conform to an outer shape of a cross-section of the articles of manufacture for which it is designed to hold. The slottedplate242 is mounted over asupport plate243, which is configured to support the articles ofmanufacture99 loaded therein such that the printing surface(s) of the loaded articles is maintained at a predetermined height relative to one or more points on the tray, while also preventing the articles loaded thereon from falling through therespective slots241. In one embodiment where the articles to be loaded thereon are flat and thin, thesupport plate243 may be a flat solid sheet of material with orifices embedded therein whose shapes correspond to the shapes of the outer edges of the articles of manufacture. In other embodiments, where the articles of manufacture to be loaded on theinlay240 varies in shape in the 3^rddimension when the print surface of the article is flat and constant along a plane parallel to the plane defined by the 1^stand second dimensions defined by the flat surface of the inlay, thesupport plate243 may include molded cavities which conform to the shape(s) of the portion(s) of the articles of manufacture that are to be supported by thesupport plate243. The height requirement for the print surface(s) of the articles of manufacture may be achieved by shaping the molded cavities and slots so as to fix the article ofmanufacture99 in a position such that the target print surface(s) of the article are at the required height relative to one or more points on the tray. Alternatively, the required height of the print surfaces of the loaded articles may be achieved by affixingvertical positioning spacers233 to the bottom of theinlay240. When vertical positioning spacer(s)233 are used, the height of thespacers233 are chosen such that the height of the target print surface(s) of the articles ofmanufacture99 mounted thereon meet the height requirements.

FIGS. 2A-2E and3 together illustrate a plurality of exemplary trays, each for holding a different type of article ofmanufacture99. As illustrated, each

tray inlay

210a,210b,210c,210d,241 is designed specifically to hold one or more specific types of articles of manufacture such that the print surface(s) of the held articles of manufacture are at a specific height relative to the conveyor belt. Since different articles of manufacture have different thicknesses and shapes, in general each type of article of manufacture will have a corresponding different tray inlay specifically designed to hold that particular type of article of manufacture. In a preferred embodiment, the tray frame is 250 mm square, and each inlay is configured to hold one or more articles of manufacture positioned such that when thetray200 is conveyed through theprinting system150, the target print surfaces area positioned down the center line of the available printable width of theprint system170.

In an embodiment, each tray is identified with anidentifier230 from which information needed to process thetray200 and/or the articles ofmanufacture99 loaded thereon can be read or derived. Various detectable identifiers are known in the art and any detectable identifier can be used to implement the tray identifier. In one embodiment, theidentifier230 is a Radio Frequency Identification (RFID) tag, and is identified by an RFID reader, positioned along the conveyance path, in combination with a controller. In another embodiment (not shown), theidentifier230 is a barcode which is detected by a barcode reader. In yet another embodiment (not shown), theidentifier230 is a Near Field Communications (NFC) tag which is detected by an NFC tag reader. Thetray identifier230 may be variously embodied using other technologies now known or developed in the future. Thetray identifier230 is used to extract various items of information needed to process the articles ofmanufacture99 correctly through thesystem100.

The Operations Area

Returning toFIGS. 1A and 1B, each

independent operations area

120a,120bis configured to allow one or more operators2 (shown as2aand2b) to fillempty trays200 with unprinted articles of manufacture99 (such as, but not limited to, promotional items) and to send loadedoutgoing trays200 out onto theconveyance system180 for conveyance to theprinting system150, unload printed articles from trays incoming from the printer, and scan, sort and package the printed articles. In an embodiment, the operators2 are human, but in other embodiments, one or more tasks performed by the human operators2 may be automated, for example through automated machinery and/or use of robotics.

Loading Station

FIGS. 4A,4B and4C illustrate an exemplary embodiment of aloading station130 which may be used in connection with the operations area(s)120a,120bof the system. Theloading station130 includes aflow rack131 for storing, and delivering to the operator2, blanks (unprinted) of the various types of articles ofmanufacture99 to be printed by thesystem100. In an embodiment, theflow rack131 comprises a plurality of lanes, referred to hereinafter as blank article lanes132a,132b, . . . ,132m, (or simply132) which are loaded and filled from the back of the rack131 (shown inFIG. 4C) and pulled out and removed from the front of the rack131 (shown inFIGS. 4A and 4B). Theblank article lanes132 are preferably configured to be tilted downward toward the front of therack131 at an incline (angle β) so that asarticle blanks99 are removed at the front of therack131 from ablank article lane132 for loading into a tray, the remainingarticle blanks99 in the lane slide forward toward the front of the lane due to the operation of gravity. This allows for easy access by the operator2 loading thetrays200. In an embodiment, articles ofmanufacture99 are packaged in bulk inboxes98. When ablank article lane132 is loaded with a particular type of unprinted article ofmanufacture99, one or more bulk-pack boxes98 are opened and placed in alane132 which is dedicated to that particular type of article of manufacture. The box(es)98 are preferably loaded from the back of the rack. As box(es)98 are emptied and removed from thelanes132, the remaining box(es) slide forward and down the incline of thelane132 via gravitational pull.

Every type of article of manufacture99 (e.g., each different type of

promotional article

99a,99b,99c,99d) has one or several dedicated blank article lane(s)132a,132b, . . . ,132m. Theblank article lanes132 may be organized on one or more multiple levels. In the embodiment shown inFIG. 1, theblank article lanes132 occupy twolevels131a,131b, withmultiple lanes132 on each level.

In an embodiment, theflow rack131 includes at least one (as shown) or multiple (not shown)interstage lane133 configured with a reverse inclination (at angle α) towards the back of theflow rack131. Theinterstage lane133 is used to gravitationally transport emptyraw material boxes98 from the front of theflow rack131 to the back of theflow rack131 for collection and transport outside of theoperations area120.

Theloading station130 also includes one or more tray rack(s)134 for storingempty trays200 ready to be filled with blank articles ofmanufacture99. In a preferred embodiment, thetray rack134 is stacked below the blank article rack(s)131a,131b. As explained in detail above, eachtray200 includes aninlay210 configured to hold a particular type of article of manufacture99 (such as a promotional item). The

inlay

210a,210b,210c,210dfor each type of

article

99a,99b,99c,99dmay be different. Preferably, thetray rack134 includes a plurality of lanes, called tray lanes135a,135b, . . . ,135n, referred to generally as135, located underneath and in positional correspondence to various ones of the blank article lanes135a,135b, . . . ,135mof the flow rack. In this embodiment,trays200 havinginlays210 configured to hold a particular type ofarticle99 are preferably stored in atray lane135 directly beneath a corresponding respectiveblank article lane132 dedicated to the specific type of article ofmanufacture99 that thetray inlay210 is configured to hold.

In an embodiment, thetrays200 are stored in thetray lanes135 standing on one side. This allowsmore trays135 to be stored in thetray rack134 perlane135.FIG. 2D best illustrates the desired tray orientation for storage (vertical) and for active use (horizontal). Thetrays200 are stored in vertical orientation (up on one side) in their tray lanes and are flipped horizontal by theoperator2aprior to being loaded with blank articles ofmanufacture99 of the type for which theinlay210 of thetray200 has been designed to hold. During loading, theconveyance system180 is configured to allow thetray200 to rest on the conveyor rails182 without being conveyed forward. After loading thetray200 withblanks99, theoperator2areleases thetray200 to be conveyed forward by theconveyance system180 for print processing. During unloading, theconveyance system180 is configured to allow thetray200 to rest on the conveyor rails182 without being conveyed forward. After theoperator2bremoves the printed articles from the stoppedtray200, the operator flips the tray from the horizontal position to the vertical position, as illustrated inFIG. 2D.

Returning toFIGS. 4A-4D, theblank article rack131 andtray rack134 are preferably positioned adjacent theconveyance system180 and in particular such that theblank article lanes132 andtray lanes135 open onto theconveyor181. This allows anoperator2astanding in front of the

racks

131 and134, and in particularly, in front of the openings of the

lanes

132,135, with theconveyor181 passing therebetween, to easily select and ergonomically remove atray200 from atray lane135 and place it onto theconveyor181 in one easy motion, load thetray200 witharticles99 removed from theblank article lane132 above the selectedtray lane135, and release thetray200 for transport by theconveyance system180. In an embodiment, thetray rack134 is positioned and/or stacked below theflow rack131 such that the bottoms of the openings of thetray lanes135 are the same height as the conveyor rails182. In an exemplary embodiment, the height of the conveyor rails off the floor is 840 mm, and the width of the conveyor181 (and including outside width of the conveyor rails) is 250 mm. The height off the floor of the bottoms of the openings of the lower row of tray lanes131ais 1150 mm. The height and width of the conveyor, and the heights and setup of the tray and articles racks, are designed for optimal loading ergonomics. As best seen inFIG. 4E, the operator can therefore stand in an upright position (i.e., with optimal posture), and, without extending or raising the upper arm(s) or moving the upper body or shoulders, reach across the conveyor to grasp atray200 from atray lane135, pull it out of thetray lane135, and lay it horizontal into the loading position on theconveyor181.

In an embodiment, theloading station130 includes one or more indicators136 to indicate which type of articles ofmanufacture99 are to be loaded ontocorresponding trays200. In an embodiment, the loading station is configured with anindication panel190 having one or more indicators136 corresponding to eachtray lane135. In this embodiment,trays200 queued in thetray lane135 are dedicated to a particular type of article ofmanufacture99. Thus, alltrays200 stored in theparticular tray lane135 are configured with aninlay210 which is designed to hold the particular article type for which the tray lane is dedicated. When the indicator136 of aparticular tray lane135 indicates that atray200 in its lane should be loaded, the operator removes atray135 from the indicated lane, removes one ormore articles99 from the corresponding blank article lane (which are of the type for which theinlay210 of the selectedtray200 was designed), and loads thetray200 with the selected article(s)99.

In an alternative embodiment (not shown), theloading station130 is configured with one or more indicators136 corresponding to eachblank article lane132. In this embodiment, when an indicator136 associated with ablank article lane132 indicates that atray200 should be loaded witharticles99 of the type contained in the indicatedlane132, theoperator2aremoves atray200 from atray lane135 corresponding to the indicated blank article lane (which contains trays of the type configured to hold the indicated article type), removes one ormore articles99 from the indicatedblank article lane132, loads the selectedtray200 with the selected article(s)99, and launches the loadedtray200 for print processing by releasing thetray200 onto theconveyance system180. In an embodiment, theconveyance system180 includesstoppers184 which automatically stop a tray in front of theloading station130. Thestopper184 is manually disengaged by theoperator2aat a push of a button.

In a specific embodiment, illustrated inFIG. 4D, the indicators136 are implemented in what is herein termed a “pick-to-light” system, orlight indicator panel190. The pick-to-light system190 supports the operator in picking thecorrect trays200 from thetray rack134 and/orarticles99 from theblank article rack131, and shortens the reaction time of the operators2 to increase operations efficiency. In an embodiment, each indicator136 comprises one or more lights, such as LEDs, that turn on, turn a specific color, and/or flash in a particular sequence, when the tray lane135 (and/or a blank article lane132) is to be selected by the operator. Acontroller195 controls the turning on and off of the indicators. Thecontroller195 is configured with intelligence as to what type oftrays200 are stored in eachtray lane135 and/or what types of articles of manufacture are in eachblank article lane132. Thecontroller195 is further configured to be in communication with thesystem controller105 and/orproduction server101 to receive information as to what type oftray200 is to be loaded next in the production process. In one embodiment, as best illustrated inFIG. 4D, the pick-to-light system190 includes one yellow191a,191b, . . . ,191n, and one green192a,192b, . . . ,192n, light signal for each lane of the tray rack. The light signals can have the following states:


Green Light	Yellow Light
State	State	Signal Meaning

Steady On	Off	Current article type to print. Load
		predetermined number of trays.
Blinking On	Off	Current article type to print. Load
		single tray.
Steady, Blinking	Steady On	Next article type to be printed will
or Off		be on this tray.
All lanes	All lanes	A warning signal. Check the display
simultaneously	simultaneously	screen for details.
blinking	blinking
Off	Blinking	Emergency-Stop button has been
		pressed on the system.

In and embodiment, theloading area120 includes atray identifier reader138, such as RFID or barcode reader, which scans thetray identifier230 associated with thetray200 prior to, during, or after loading of the blank articles into thetray200. The scanned tray identifier230 (or signal or other information from which the value of the tray identifier can be derived) is sent to thesystem controller105, which in one embodiment is in communication with aproduction server101 which matches the scannedtray identifier230 with a particular print job as will be discussed in further detail hereinafter. The print job can be a single print job or an aggregate print job containing multiple individual print jobs. When the print job is an aggregate print job containing the one or more designs which are to be simultaneously printed on multiple respective articles loaded in thetray200, theproduction server101 also associates the position of each article in the tray with a corresponding customer order.

In an alternative embodiment (not shown), eachslot211 in thetray inlay210 is configured with an identifier, such as an RFID tag, a barcode, etc. An identifier reader, such as RFID or barcode reader, scans the identifier associated with each tray inlay slot prior to, during, or after loading of the printed article in order to associate the article ofmanufacture99 directly with a customer order.

Theloading station130 may include one ormore control screens139 which function as a communication interface between thesystem controller105 and/orproduction server101 and theload operator2a. System status, the required trays, warnings and other information may be displayed on the screen to convey information to the operator2.

Unloading Station

As best illustrated inFIGS. 1A,1B and6, the unloading

station

140a,140b, referred to generally as140, preferably includes anidentifier reader148, a display orcontrol screen149, anorder summary printer141, alabeler142, and apackaging system143, and may further include a sorting and packing table orstation144, ashipping label maker145, and apostage machine146. The unloadingstation140 is operated by one (or more) operator(s)2b. In an embodiment, theload operator2aand the unloadoperator2bare different people. Furthermore, there may be more than oneload operator2aand/or more than one unloadoperator2bto perform the load and unload functions. In an alternative embodiment, theload operator2aand the unloadoperator2bmay be the same person. The purpose of the unloadingstation140 is to assist anoperator2bto unloadarticles99 from atray200 arriving from theprinting system150, to collect the processedarticles99 associated with each customer order, to generate and/or receive an order summary form, to package the individual articles associated with the individual customer order(s), and to bundle the packaged individual articles of each customer order into one or more shipment units. In an embodiment, the unloadingstation140 may also include an area for packaging the shipment units into shipping packages, applying shipping labels and postage for sending the packages out for shipping.

In an embodiment, theidentifier reader148 scans thetray identifier230 of eachtray200 arriving from theprinting system150. Theidentifier reader148 may be mounted along theconveyance system180 in a position to read the identifier of eachincoming tray200, or may be a hand scanner (not shown) operated manually by the unloadoperator2b. The scannedidentifier230 is communicated to thecontroller105 or to theproduction server101 or other control system, which matches the scanned identifier to one or more customer orders associated with the printedarticles99 in thetray200. Thecontrol screen149 displays for theoperator2ban indication of which printed article(s)99 should currently be removed from the scannedtray200 for packaging and processing. Thecontrol system105 orproduction server101 then automatically generates an order summary associated with the customer order and signals theorder summary printer141 at the unloadstation140 to print the order summary and thelabeler142 to print one or more labels associated with and identifying the removed article(s)99. The label(s) may be applied directly to the removedarticle99 or alternatively to the packaging for the article(s). In an embodiment, the unload station includes a packaging system, such as anautomated bagger143. In an embodiment, the order summary form and one or more of the printed article(s) associated with the particular customer order are input to theautomated bagging system143 and the label(s) are applied to the bag(s). In an embodiment, the bagging process by the automated bagger is triggered by a touch switch operated by the unloadoperator2b. However, in an alternative embodiment, the bagging may be performed automatically without operator assistance or input.

Preferably, the unload operation is guided by a pick-to-screen process. Thecontrol screen149 at the unloadingstation140 indicates the number and the position of thearticles99 on thetrays200 that belong to the same customer order and are to be put together in one bag. In an embodiment, theidentifier reader148 is a RFID reader and is used to scan theRFID tray identifier230. In an alternative embodiment, theidentifier reader148 is a hand scanner which is used by the unloadoperator2bto scan the identifier corresponding to a respective slot on the tray to identify which of the printed articles on a given tray is being unloaded by the operator. The information is used by theproduction server101 orsystem controller105 to command the ordersummary form printer141,automatic bagger143, andlabel printer142.

At the sort/pack table144 the bags are collected. The bags are scanned, sorted, and in case of direct shipments the bags are packed in cardboard boxes. Automatically printed labels are applied to the boxes.

Operator Operations and Ergonomics

The construction and placement of the loading and unloading stations and conveyance system are designed with particular attention to operator ergonomics and time operating efficiency. Referring toFIG. 4E, the height of thetray rack lanes135 andconveyor181 passing in front of thetray rack134 is preferably approximately hip-high for an average human operator. In an embodiment, the conveyor height is 840 mm above the floor on which the operator stands. This allows thehuman operator2ato stand upright with good posture with minimal movement of the upper arms and shoulders when handling the trays incoming form theprinting system150, flipping thetrays200 from a horizontal position to a vertical position, and returningempty trays200 to thetray rack134. On the load side, theoperator2acan also perform the operations of removingtrays200 from thetray rack134, flipping the removed trays from a vertical to a horizontal position, loading thetrays200 with articles ofmanufacture99, and releasing the loaded trays to theconveyance system180 while standing in an upright position and requiring little to no body movement other than lower arm and hand movement.

In addition to the construction and placement of the loading and unloading stations and conveyance system, in embodiment, thetrays200 are also designed with particular attention to operator ergonomics. As best seen inFIGS. 2A,2B,2C and2E, in an embodiment, aslide rail221 is configured along at least the front edge of theframe220. Theslide rail221 is preferably manufactured using a low-friction material such as hard plastic which facilitates a sliding movement along therails182 of theconveyance system180 when in the loading and unloading areas of thesystem180. The front edge of theframe220 may be identifiable as the side of the frame, when the frame is oriented horizontally, that is situated in front along the forward direction of transport of the conveyance system, as illustrated inFIG. 2D. As also illustrated inFIGS. 2B and 2D, theslide rail221 may be configured with aconcave cavity222 to provide a gripping hold for an operator's fingers. The front of theframe220 may also include ahandle280 to allow the operator to grasp the edge of the tray nearest the operator and to flip it from the vertical position to the horizontal position, or from the horizontal position to the vertical position (seeFIG. 2D) with one hand and with one simple hand movement.

As best seen inFIGS. 2C,2E,4A,4B and6), when thetrays200 are stored in thetray rack134, they are placed vertically with theslide rail221 engaging the floor of the tray rack lane(s)135 in which they are inserted. Theslide rail221 protects the side of theframe220 when it is stored in the vertical orientation in thetray rack134. In an embodiment, theslide rail221 is made of a hard plastic with a low friction factor that allows the trays to slide easily along the floor of thelanes135 in thetray rack134.

The Printing System

Pre-Treatment Station

For some types of articles ofmanufacture99, it may be important to clean and/or pre-treat the articles before the actual printing. Referring back toFIGS. 1A and 1B, a preferred embodiment of thesystem100 includes a cleaning andpre-treatment station160. Theconveyance system180 is configured to transporttrays200 from theloading station130 to thepretreatment station160 prior to moving on to theprinter system170.

As best seen inFIGS. 8A and 8B, thepre-treatment station160 includes a framedhousing161 which encloses and/or houses the pre-treatment and cleaning components required for pre-treating and cleaning the print surfaces of the articles ofmanufacture99 ontrays200 as thetrays200 pass through thesystem160. In the illustrated embodiment, the two different process fluids (e.g., the wetting agent and the cleaning solution) are supplied from

respective canisters

309a,309bsituated under the station's housing. Athird canister309cmay be used to collect excess process fluid that accumulates inside thestation160. Electronic detectors continuously check the level of fluid inside the three canisters. Anelectrical control cabinet162 housing the pre-treatment station electronics, and an exhaust air pump/filter163 may be situated at the top section of the housing.

In an embodiment, thepre-treatment station160 is situated before the entrance to theprinter system170. Themain conveyor belt180 of theconveyance system180 passes through thepre-treatment station160. However, since the main conveyor speed may be higher than that needed to ensure effective pre-treatment of the print surfaces, thepre-treatment station160 may be configured with a secondary slower-speed slide-belt system which engages thetrays200 as they pass through thestation160 to slow down the trays as they pass therethrough for increased pre-treatment and cleaning effectiveness. In such embodiment, themain conveyor181 continues to run but slides under thetrays200 instead of carrying them.

In an embodiment, thepre-treatment station160 applies a two-step treatment process. The first step is the application of a wetting agent which is used to prevent or reduce reticulation of the ink when applied to the surfaces of the articles of manufacture. Ink reticulation can occur when the surface tension of the ink is higher than the surface tension of the material on which it is deposited, and thus the ink droplets retain their surface tension and thus do not fully spread out. Under a microscope, reticulated ink may appear as a mosaic of similar size irregular polygonal shapes, and veins or cracks in the printed image may be visible to the naked eye.

A wetting agent may be applied to the print surface of the articles of manufacture. Wetting agents operate to change the properties of the print surface to make it more wettable by increasing the surface energy of the material on which the ink is to be applied to a level at or higher than the surface tension of the ink, triggering the flattening out of the ink droplets and the tendency of the ink to more uniformly spread out and stick to the print surface of the article of manufacture. The type of wetting agent that is effective for a given type of material generally varies depending on the chemical properties of both the ink and the print surface material of the article of manufacture on which the ink is to be deposited. Although thepre-treatment station160 is shown with one wetting agent applicator, thepre-treatment station160 may alternatively be implemented with multiple different wetting agent applicators, each for applying a different type of wetting agent on different types of articles of manufacture with different surface material composition.

The second step of the pre-treatment process is the cleaning process for smoothing out the wetted print surface and to reduce the surface complexity of the print surface for achieving improved print quality. In one embodiment, the cleaning agent is a diluted isopropyl alcohol (IPA) solution.

In an embodiment, thepre-treatment station160 includes an identical pair of motorized sword brushes applying two different treatment fluids. The first brush unit is the pre-treatment brush which is used to apply the surface pre-treatment fluid or wetting agent. The second brush unit is the cleaning brush which may apply a cleaning solution and brush off or remove excess pre-treatment fluid to perform a final cleaning/de-greasing of the surface. A fluid regulator and

filter unit

308a,308bfor each brush is situated outside the station's housing.

In the embodiment shown herein, and as best seen inFIG. 8C, the pre-treatment fluid and the cleaning fluid are applied in successive stages by two respective

identical brush units

300a,300bcontained within thepre-treatment station160, one of which is diagrammed inFIG. 8D at300. In an exemplary embodiment, and as best viewed inFIGS. 8C and 8D, the brush units are implemented using, for example, a Model KSB111 combination sword brush unit, manufactured by Wandres. A continuously rotatingbrush belt301 is height adjusted on a pair of adjustment frames307a,307bto touch the target print surfaces of the articles ofmanufacture99 with the correct contact pressure as they pass under thebelt301. Therotating brush301 may be backed by an inflated cushion302 (i.e., a pressure buffer) which regulates the contact pressure between thebrush301 and the print surface of the articles ofmanufacture99. Anintegrated spray unit304 continuously moistens thebrush301 with the process fluid. Asuction unit305 is also attached downstream from thebrush301 to collect particles and keep the brush itself clean.

As described earlier, in an embodiment, alltrays200 are designed to align the target print surface of the various types of articles ofmanufacture99 on thetrays200 at an equal (and predetermined) height. In an alternative embodiment, the target print surfaces of the articles ofmanufacture99 may not be predetermined, and may in practice vary depending on the type of article of manufacture. In such embodiment, the height of the conveyance may be adjusted within theprinting system150, such that the target print surfaces are positioned at a predetermined distance from the various processing components (such as, by way of example and not limitation, the pre-treatment system brushes, the print head nozzles, the curing lamps, etc.). The height adjustment can be determined using the principles and system described hereinafter with respect to theheight adjustment system400 in theprinter system170, and as described in connection withFIGS. 10A and 10B.

In an embodiment, thepre-treatment station160 includes anidentifier reader164 which reads theidentifier230 of the tray to determine the type of article ofmanufacture99 carried by thetray200. A programmablelogic controller PLC303acontrols a 2-levelpneumatic height adjuster303bto selectively apply or skip the brush treatment depending on the type of article of manufacture on the tray. Thepre-treatment station160 is depicted in the exemplary embodiment as having a single wettingagent application system300aand a single cleaningsolution application system300b. In alternative embodiments, thepre-treatment station160 may implement any number of different wetting agent application systems and/or cleaning agent application systems. The type of wetting agent and/or cleaning agent(s) to apply can be programmed and associated to a particular print job by including instructions or process identifications in the information associated with the tray identifier. When thetray200 enters thepre-treatment station160, a tray identifier reader may read the tray identifier, look up the information associated with the tray identifier, and determine whether and which pre-treatment agents and/or cleaning agents to apply to the print surfaces of the articles of manufacture on theparticular tray200.

Printer System

In an embodiment, as best shown inFIGS. 9A and 9B, theprinter system170 is designed to physically interface with theconveyance system180 and to communicate with thesystem controller105 and/or the production server101 (seeFIGS. 1A and 1B). Theprinter system170 is preferably mounted within aframe171, preferably enclosed for purposes of safety and cleanliness. In an embodiment, theframe171 includes an inner frame on which the printer itself is mounted, and a guard frame which acts as a cover for theentire system170. The inner frame is preferably made from mild steel box section for rigidity which is very important for maintaining a crisp printed image. The guard frame is preferably made from aluminium extrusion in-filled with clear polycarbonate panels. The guards covering the in-feed and out-feed conveyor sections are also made from the same fabricated polycarbonate sheet.

Thetrays200 enter theprinter system170 immediately after exiting thepre-treatment station160. In an embodiment, thetrays200 are engaged with a precisionlinear motion system400 for printing.

Theprinter system170 may include anionization unit174 which generates pressurized ionized air aimed at the print surfaces for removing any static charge, both positive and negative, from the print surfaces of the articles of manufacture on the tray.

Theprinter system170 may further include a plasmajet treatment system175 which operates to roughen the print surfaces of the articles ofmanufacture99 on thetray200 in order to increase surface tension to achieve better wetting. The plasma jet treatment is used to change the surface energy of the articles of manufacture. In an embodiment, the ink used is UV ink, which has higher viscosity than water-based ink. The surface energy is measured in Dynes and to help the ink adhere to the product, the surface energy needs to be increased to approximately 20 Dynes greater than that of the UV ink. In an embodiment, the plasmajet treatment system175 includes one or more plasma nozzles set at pre-determined heights above the print surface of the articles of manufacture. Depending on the type of article of manufacture to be treated, the height of the plasma nozzles may be automatically adjusted.

In an embodiment, theprinter system170 includes one or more inkjet printer head(s)70 designed to apply ink colors Cyan, Magenta, Yellow and Black (CMYK). In a particular embodiment, the print width is up to 72 mm. Theprintheads70 are affixed to corresponding printhead assemblies, which include a head mounting plate with ink nozzles, ink tanks, head drive control circuits, and an outer housing.

In an embodiment, theprinter system170 includes asensor402 which senses a parameter from which the height of the printing surface of the articles ofmanufacture99 on thetray200 within theprinter system150 can be determined Thus, the relative distance between the nozzles72 of theprint head70 and the printing surface of the articles of manufacture in the tray can be determined. In an embodiment, thesensor402 is a laser sensor that is mounted in a fixed position on theprinter frame171 above theconveyor181 at the location that thetray200 enters theprinter system170. Thesensor402 measures the distance between the sensor head and the print surface of the articles ofmanufacture99 as they pass by a fixed location on theconveyor181. The laser sensor measurement is used as input to a tray height adjustment mechanism403 which adjusts the vertical position of thetray200 from its unadjusted vertical position as delivered by theconveyance system180 to a height-adjusted position during the actual printing process by the print head(s)70. A controller receives and translates the laser signal from thesensor402 into parameter representative of an unadjusted vertical position of the print surface of the articles ofmanufacture99 on thetray200, and determines a tray height adjustment parameter which may be used to signal a tray lift controller404 to adjust the vertical position of the tray lift403 so as to position the print surfaces of the articles ofmanufacture99 to a vertical height that is within a specified distance (with a range of tolerance) of the print head nozzles72 when thetray200 passes beneath the print head(s)70. Based on the laser sensor measurement, the height of the printing surface of the articles of manufacture is used to adjust to the optimal printing distance. If an article ofmanufacture99 is not correctly placed on thetray200, thetray200 can be rejected without print. Otherwise, the articles ofmanufacture99 on thetray200 are printed.

FIGS. 10A and 10B illustrate an exemplarylinear motion system400. The linear motion system includes anengagement plate410 configured to engage atray200 when the tray enters theprinter system170 by delivery of themain conveyance system180. Theengagement plate410 is slidingly mounted on, or otherwise slidingly attached to, a linearmotion transport rail460. A driving mechanism462 (directly or indirectly) engages theengagement plate410 and is configured to transport theengagement plate410 along ahorizontal plane465 between a pick-upposition468 at one end A of therail460 and arelease position469 at the opposite end B of therail460. In an embodiment, thedriver462 includes a conveyor chain driven by a motor. At the pick-upposition468, the engagement plate is configured to engage atray200 delivered by theconveyance system180, and thedriver462 is configured to transport thetray200 in a forward direction along a fixedlinear path465 defined by therail460 to therelease position469, where thetray200 is released back to themain conveyance system180. After delivering thetray200 back to themain conveyance system180, theengagement plate410 is driven, by thedriver462, back along thelinear path465 to the pick-upposition465 to be ready to pick up anothertray200. Thedriver462 thus drives in a forward direction and a reverse direction.

Theengagement plate410 includes an engagement mechanism for fixing thetray200 in static position with respect to theplate410. In an embodiment, the engagement mechanism comprises one or more positioning pins412. Thetray200 includes positioning sockets or holes202 in thebase plate210 of thetray200. When themain conveyor181 delivers thetray200 to theprinter system170, the tray is automatically transported to and stopped at a position over theengagement plate410 such that the engagement pins412 align with the positioning sockets or holes202 in the bottom of thebase plate210 of the tray. In an embodiment, atray sensor450 is mounted on the rail460 (or alternatively a position on theframe171 or other mounting substrate within the printing system150). Thetray sensor450 detects the presence of atray200 at the pick-upposition468. The tray is stopped in the pick-up position by astopper440, preferably mounted along therail460. Thestopper460 stops the tray in a position of alignment such that the positioning pins412 of theengagement plate410 align with the sockets/holes202 of thebase plate210 of the stoppedtray200. Alift controller430 monitors the sensor signal to properly control the timing of alift420. Thelift420 operates to lift theengagement plate410 to simultaneously engage the bottom of thebase plate210 of thetray200 and center the engagement pins412 in the positioning sockets/holes of thebase plate210 of the tray, thereby fixing the tray in place on theengagement tray410.

Thelift controller430 further receives information, directly or indirectly through one or more additional controllers and transmitters and/or receivers, from theheight adjustment sensor402 of theprinter system170. The received sensor information is used by thelift controller430 to control thelift420 to set the height of theengagement plate410 to a vertical position such that the print surface(s) of the article(s) of manufacture on the engagedtray200 within a predetermined distance (plus or minus a predetermined tolerance) of the print head nozzles of the print heads70 of theprinter system150.

FIG. 11 depicts an exemplary embodiment of a method for adjusting the height of a tray to align the print surfaces of the article of manufacture to be printed to with a pre-determined distance of the print head nozzles when thetray200 on which the articles are carried is printed. As illustrated, a tray approaches the height sensor402 (step611), where the height sensor takes a measurement (step612). The tray is conveyed such that it is stopped in a pre-determined position ready to be lifted (step613). The lift engages the tray (step614). The lift height is determined based on the height sensor measurement (step615). The lift is then controlled to set the height of the lift to the determined lift height (step616). The tray is then conveyed for printing, maintaining the lifted height during the printing process (step617), and in particular as the print surface(s) of the articles of manufacture are printed by the print head(s)70.

Returning toFIGS. 9A,9B,10A and10B, when an engagedtray200 is to be released from theengagement plate410, thelift420 is instructed to lower sufficiently to disengage the positioning pins412 from the sockets/holes of thebase plate210 of thetray200. Themain conveyance system180 may therefore engage the releasedtray200 and transport it out of theprinting system170.

Referring again toFIG. 9A, theprinter system170 may also include acuring unit176, such as an ultra-violet (UV) curing system. Thetrays200 pass into theUV curing unit176 immediately upon passing under the printhead(s)70, and then out of theprint system170. At the exit, thetray200 is transferred back to themain conveyor181 and routed by theconveyance system180 to the unloadingstation140.

Preferably, theprinting system150 includes one or more tray identifier reader(s)177 positioned and configured to read thetray identifier230 on eachtray200 as it enters theprinting system150. In an embodiment, thetray identifier230 is an RFID tag and thetray identifier reader177 is an RFID read head. The signal from theRFID reader177 is sent to thesystem controller105 or theproduction server101, or an alternative remote control system, which translates the signal into a corresponding tray identifier from which the print job(s) currently associated with the tray can be identified and used to derive information needed to process the articles of manufacture at each station. For example, in an embodiment, information which can be derived from thetray identifier230 includes the type of articles ofmanufacture99 present on the tray. The information about the type of article ofmanufacture99 can be used to selectively turn on or off one or more of the following functions: application of the wetting agent in thepre-treatment station160, application of the cleaning solution in thepre-treatment station160, activation of the cleaning brush in thepre-treatment station160, activation of ionization in theprinting system170, application of plasma treatment in theprinting system170, printing or not printing by the print heads70, and curing or not curing by thecuring unit176. In alternative embodiments, theprinter system150 is a multi-functional unit that is configured not only to print articles ofmanufacture99, but also to engrave, etch, embroider, label, stamping, affix, or otherwise embed or imprint content information on an article ofmanufacture99 which is conveyed by a tray passing therethrough. Each tray passing into the system can therefore be identified using the tray identifier, and one or more of the printing, engraving, etching, embroidering, labeling, stamping, affixing or other functionally embedding functions can be enabled to print, engrave, etch, embroider, label, affix, or otherwise embed the content contained in the print job (or “job”, generally) onto the articles ofmanufacture99. Once a tray has been used to process a job and the job is complete and articles of manufacture unloaded, thetray identifier230 can be disassociated from the completed job. The tray and its identifier can then be reused and associated with a new and different job. Thetray inlay210 may even be switched out with aninlay210 configured to hold a different type or types of articles of manufacture than the replaced inlay.

System Control

Theprinting system150 includessystem controller105. In an embodiment, the system controller comprises a computing environment500, illustrated inFIG. 5, for controlling and managing the operations of the printing system. The computing environment500 includes a general-purpose computing device in the form of acomputer510, which may comprise any electronic device with computing and/or processing capabilities. The components ofcomputer510 may include, but are not limited to, one or more processors orprocessing units520, asystem memory530, and asystem bus521 that couples various system components including processing unit(s)520 tosystem memory530.

System bus

521 represents one or more of any of several types of bus structures, including a memory bus or memory controller, a peripheral bus, an accelerated graphics port, and a processor or local bus using any of a variety of bus architectures. By way of example, such architectures may include an Industry Standard Architecture (ISA) bus, a Micro Channel Architecture (MCA) bus, an Enhanced ISA (EISA) bus, a Video Electronics Standards Association (VESA) local bus, and a Peripheral Component Interconnects (PCI) bus also known as a Mezzanine bus.

Computer

510 typically includes a variety of electronically-accessible media. Such media may be any available media that is accessible bycomputer510 or another electronic device, and it includes both volatile and non-volatile media, removable and non-removable media, and storage and transmission media.

System memory

530 includes electronically-accessible media in the form of volatile memory, such as random access memory (RAM)532, and/or non-volatile memory, such as read only memory (ROM)531. A basic input/output system (BIOS)533, containing the basic routines that help to transfer information between elements withincomputer510, such as during start-up, is stored inROM531.RAM532 typically contains data and/or program modules/instructions that are immediately accessible to and/or being presently operated on by processing unit(s)510.

Computer

510 may also include other removable/non-removable and/or volatile/non-volatile electronic storage media. By way of example,FIG. 5 illustrates ahard disk drive541 for reading from and writing to a (typically) non-removable, non-volatile magnetic media (not separately shown); amagnetic disk drive551 for reading from and writing to a (typically) removable, non-volatile magnetic disk552 (e.g., a “floppy disk”); and anoptical disk drive555 for reading from and/or writing to a (typically) removable, non-volatileoptical disk556 such as a CD-ROM, DVD-ROM, or other optical media.Hard disk drive541,magnetic disk drive551, andoptical disk drive555 are each connected tosystem bus521 by one or more

data media interfaces

540,550. Alternatively,hard disk drive541,magnetic disk drive551, andoptical disk drive555 may be connected tosystem bus521 by one or more other separate or combined interfaces (not shown).

The disk drives and their associated electronically-accessible media provide non-volatile storage of electronically-executable instructions, such as data structures, program modules, and other data forcomputer510. Althoughexemplary computer510 illustrates ahard disk541, a removablemagnetic disk552, and a removableoptical disk556, it is to be appreciated that other types of electronically-accessible media may store instructions that are accessible by an electronic device, such as magnetic cassettes or other magnetic storage devices, flash memory cards, CD-ROM, digital versatile disks (DVD) or other optical storage, random access memories (RAM), read only memories (ROM), electrically erasable programmable read-only memories (EEPROM), and so forth. In other words, any electronically-accessible media may be utilized to realize the storage media of the exemplary computing system and environment500.

Any number of program modules (or other units or sets of instructions) may be stored onhard disk541,magnetic disk552,optical disk556,ROM531, and/orRAM532, including by way of example, anoperating system544, one ormore application programs545,other program modules546, andprogram data547. By way of example only,operating system544 may comprise file system component(s),application programs545 may comprise program and/or applications, andprogram data547 may comprise files and/or the content thereof.

A user may enter commands and information intocomputer510 via input devices such as akeyboard562 and a pointing device561 (e.g., a “mouse”). Other input devices (not shown specifically) may include a microphone, joystick, satellite dish, serial port, scanner, and/or the like. These and other input devices are connected to processing unit(s)520 via input/

output interfaces

595 and560 that are coupled tosystem bus521. However, they may instead be connected by other interface and bus structures, such as a parallel port, a universal serial bus (USB) port, an IEEE 1394 interface, an IEEE 802.11 interface, and so forth.

Amonitor591 or other type of display device may also be connected tosystem bus521 via an interface, such as avideo adapter590. In addition to monitor591, other output peripheral devices may include components such as speakers (not shown) and aprinter596, which may be connected tocomputer510 via network input/output interfaces570.

Networked Environment

Computer

510 may operate in a networked environment using logical connections to one or more remote computers, such as aremote computing device580. By way of example,remote computing device580 may be a personal computer, a portable computer (e.g., laptop computer, tablet computer, PDA, mobile station, etc.), a server, a router, a network computer, a peer device, other common network node, or other computer type as listed above, and so forth. In a particular example, theremote computing device580 may be theproduction server101 shown inFIGS. 1A and 1B.Remote computing device580 is illustrated as a computer that may include many or all of the elements and features described herein relative tocomputer510. Logical connections betweencomputer510 andremote computer580 may be implemented as any one or more of a local area network (LAN)571, a general wide area network (WAN)573, a wireless network, etc. Such networking environments are commonplace in offices, enterprise-wide computer networks, intranets, the Internet, fixed and mobile telephone networks, other wireless networks, and so forth.

When implemented in a LAN networking environment,computer510 is connected to alocal area network571 via a network interface oradapter570. When implemented in a WAN networking environment,computer510 typically includes amodem572 or other means for establishing communications overwide area network573.Modem572, which may be internal or external tocomputer510, may be connected tosystem bus521 via input/output interfaces560 or any other appropriate mechanism(s). It is to be appreciated that the illustrated network connections are exemplary and that other means of establishing communication link(s) between

computers

510 and580 may be employed.

In a networked environment, such as that illustrated with computing environment500, program modules or other instructions that are depicted relative tocomputer510, or portions thereof, may be fully or partially stored in a remote memory storage device. By way of example,remote application programs535 reside on amemory device581 ofremote computer580. Also, for purposes of illustration, application programs528 and other executable instructions such as operating system527 are illustrated herein as discrete blocks, but it is recognized that such programs, components, and other instructions reside at various times in different storage components of computing device510 (and/or remote computing device580) and are executed by data processor(s)504 of computer510 (and/or those of remote computing device580).

Overview of Workflow Operations

As discussed previously, each production

loop operations area

120a,120bincludes at least one workstation which allows operators on each production loop to work independently yet share asingle printing system150. Each

operations area

120a,120bcan be operated by one or

more operators

2a,2b, depending on the workload. In an embodiment, when two

operators

2a,2bare present on a

production loop

110a,110b, afirst operator2ahandles the loading oftrays200 and the sort & pack operations where as asecond operator2bhandles the unloading and bagging operations. Of course, it will be appreciated that the workload could be partitioned in various other ways, including through the use of additional or fewer operators, and/or through the automation of one or more of the loading and unloading functions.

The various types of unprinted articles in their original packaging (e.g. carton boxes) are stored inracks132 and are placed by theloading operator2aintotrays200 which hold the corresponding type of article of manufacture. Different types oftrays200, which are customized to carry a particular type of article ofmanufacture99, are stored in tray racks135. The green/yellow light Pick-to-Light system190 visually guides theoperator2ato pick and place thecorrect articles99 into the correct type oftray200 and release it to theconveyor system180 for further processing by theprinting system150.

Identifiers

230, such as RFID tags, embedded on or in thetrays200, are used to tag each tray with process information (e.g. name of the image file to be printed, process parameters, workstation number etc.). This assures that the right content is printed onto each article of manufacture. Thetrays200 are automatically routed to the infeed of theprinting system150 by themain conveyor system180.

In addition to the actual ink-jet printing process, theprinting system150 also preferably applies several pre-treatment and post-treatment processes to the articles of manufacture. The different processes, in preferred order of application, are as follows:

- 1. Pre-Treatment: Selected application of one or more wetting agents followed by selected cleaning.
- 2. Ionized Air Wash: Naturalizes the surface electric charge on the promo items
- 3. Plasma Jet: Increases the surface energy of the articles of manufacture to allow better wetting by the ink
- 4. Ink-jet: Actual printing with four color (CMYK) digital ink jetting print head with adjustable printhead-to-substrate distance.
- 5. UV-Pinning: An initial curing (for example using an LED light source) to fix the ink onto the print surface of the articles of manufacture immediately after the printing.
- 6. Final UV-Curing: Final curing by a strong mercury arc-lamp UV source.

Depending on the type of article ofmanufacture99 on thetray200, as determined by the information associated with theidentifier230 on thetray200, each available process (pre-treatment, ionization, plasma jet, printing, UV pinning, UV-curing) can be automatically level adjusted (e.g., to set the intensity, amount of treatment of fluid, processing time, etc.) or altogether skipped, based on the information associated with thetray identifier230.

After the articles ofmanufacture99 on thetray200 have been fully processed (as determined from the information associated with the tray identifier230), thetray200 is routed back to the

original operations area

120a,120bfor unloading. A scanner is used by theunloading operator2bto identify eacharticle99 removed from thetray200. The unloaded articles are then placed into the bagging machine and bagged into individual packages. The packages, or alternatively the individual articles themselves, are labeled for identification.

The bagged items are conveyed to the sort & pack table via a secondary ground conveyor system. They are sorted, packed and forwarded to the platform outbound logistics process of the plant.

FIG. 12 is an operational flowchart illustrating anexemplary method620 of operation of a printing system implemented in accordance with principles of the invention. As illustrated, material to be printed such as blank (as-yet unprinted) articles of manufacture are loaded into the materials staging rack (article of manufacture rack131) for easy access by a loading operator (step621). It will be appreciated that as used herein, the term “blank” article of manufacture refers merely to an article of manufacture which has at least one area intended to be printed on by the printing system and which has yet to be printed. An article of manufacture may, for example, have no printed material on it. Alternatively, an article of manufacture may include pre-printed material and may be submitted to the printing system for printing of additional material which is not yet printed thereon. In this case, the article of manufacture which still has one or more areas still intended to be printed would still, for purposes of this particular pass through the printing system, be considered a “blank” article of manufacture.

A print job is selected (step622). In an embodiment, the print job is selected automatically by theproduction server101 and communicated to thesystem controller105, which signals the Pick-To-Light system190 to indicate what type of tray to load. In an alternative embodiment, the operator selects a print job from a queue of pending print jobs. The print job may be an individual print job associated with a single article of manufacture to be printed, or may be an aggregated gang of individual print jobs (an “aggregate” print job) for trays containing multiple articles of manufacture to be sent through the printer simultaneously. Upon selection of a print job, the operator selects one or more articles of manufacture of the type associated with the selected print job (step623) and a tray configured to hold articles of manufacture of the type associated with the print job (step624). The operator then loads the selected tray with the selected articles of manufacture (step625). The individual print job and/or the aggregate print job is associated to an identifier on the tray (for example, thetray identifier230 and/or individual slot identifiers in the tray) from which the production server and/or other devices can extract the information necessary to identify and associate each printed item with the order information (such as customer information, shipping address, etc.). The identifier indicating the individual print job(s) and/or aggregate print job is attached to or embedded in the loaded tray. Thetray200 is then released to theconveyance system180 for transport to theprinting system170.

Thetray200 is then conveyed by theconveyance system180 to the entrance of theprinting system150. Prior to or upon entry into theprinting system150, a scanner reads the tray and/or slot identifier(s) from the tray200 (step628). The scanned identifier is matched to the print job to which the identifier is associated (step629), from which a set of job processing instructions may be determined (step630). The tray then passes through one or more of the print processing functions. For ease of explanation, the term “selectively applied” means a function referred to therewith is applied if the job processing instructions associated with the identifier of the tray indicate that the particular function should be applied, and is not applied if the job processing instructions indicate that the function should not be applied. Likewise, the term “selectively performed” means a function referred to therewith is performed if the job processing instructions associated with the identifier of the tray indicate that the particular function should be performed, and is not performed if the job processing instructions indicate that the function should not be performed.

In an exemplary embodiment, one or more wetting agent(s) are selectively applied (step631), followed by a selectively performed cleaning process (step632). An ionization wash may be selectively applied (step633), as well as selective application of a plasma jet treatment (step634). Further, the tray conveyance height may be selectively adjusted (step635) prior to actual printing of the print job (step636). Post-printing, the selective operations may include selectively performing one or more curing processes (step637). It will be appreciated that all, fewer, or additional pre- and/or post-printing processes may be implemented and selectively applied using the selective indication in the job processing instructions associated with the tray identifier.

As described in connection withFIGS. 8A-8D, the system may include apre-treatment system160. For example, the pre-treatment system may include a wetting agent application and/or cleaning system. Thepre-treatment system160 may be integrated into the printing system or may be a separate system along the conveyance system and to and from or through which the conveyance system conveys a tray along the conveyance path. The tray enters the pre-treatment system, conveyed by the conveyance system, where the articles of manufacture are pre-treated. In an embodiment, a cleaning fluid is applied to the print surfaces of the articles of manufacture held on the tray which enters the pre-treatment system. The print surfaces may be brushed with the cleaning fluid and then the cleaning fluid may then be brushed, wiped, or otherwise removed from the print surface(s) of the articles of manufacture. In an embodiment, a wetting agent may be applied to the print surface(s) of the articles of manufacture to reduce ink reticulation and to encourage sticking of ink to the print surface(s) of the articles of manufacture. Whether and what type of cleaning fluid and/or wetting agent to apply will depend on the material and surface characteristics of the article of manufacture and is accordingly represented by way of the processing instructions associated with the identifier of the tray on which such articles are loaded.

As further described in connection withFIGS. 9A and 9B, upon exit of thepre-treatment system160, if utilized, thetray200 of pre-treated articles of manufacture is advanced to theprinter system170. In an embodiment, an identifier reader such as an RFID reader scans/reads the tray identifier, which is matched up by thesystem controller105 and/orproduction server101 to an associated print job including a print file to be printed onto the print area(s) of the articles of manufacture on the tray and preferably an associated set of print processing instructions. In an embodiment, the print file includes individual print content to be printed on each of the respective articles of manufacture loaded on the tray. Potentially, the individual print content to be printed onto each of the individual articles of manufacture may be different for each article of manufacture. In an embodiment, the print file associated with the tray is a single aggregate print file comprising the individual print content for each of the individual articles of manufacture on the tray. The printing system treats the aggregate print file as a single print job and prints the file as if it is printing a single article of manufacture.

As further described in connection withFIGS. 9A,9B,10A and10B, in an embodiment, theprinter system170 includes a trayheight adjustment system400, including a tray height ordistance sensor402 and a tray

height adjustment mechanism

410,420,430. In such an embodiment, upon or prior to entering theprinter system170, the height ordistance sensor402 detects the height or distance to the print surface(s) of the articles of manufacture loaded on the tray. The distance adjustment mechanism translates the sensed height/distance into an adjustment amount and selectively raises or lowers the tray to achieve the adjustment amount. Alternatively, the distance adjustment mechanism raises or lowers the printhead(s) to achieve the adjustment amount.

To print the file associated with the tray, the printer (optionally adjusting the tray height or print head position to achieve optimal print-surface-to-print head distance) prints the print file content onto the print surface(s) of the articles of manufacture. In an embodiment, theprinter system170 includes a curing system such as a dryer or ultraviolet light. Referring again toFIG. 12, upon exit from the printing system, the tray is conveyed to the unloading area, where the individual articles of manufacture are unloaded from the tray (step639), identified (step641), and packaged (step642). The tray itself is stored for use for processing another print job (step640).

In an embodiment, at the unloading station the identifier (e.g., RFID tag) on thetray200 is read by a scanner as the tray enters the unloading area. The print job currently associated with the scanned RFID is retrieved by the server and the individual orders are identified by position in the tray and sorted by the operator (step641). In an embodiment, the individual orders are designated by position and communicated to an operator via a display screen. Additionally, shipping and/or order labels are automatically generated from order information associated with the individual order derived from the aggregate print job identifier. The operator can positionally and visually identify the printed article of manufacture associated with each individual order and can package and apply the shipping/packaging label to each individual order.

FIG. 13 is a more detailed block diagram of an onlineretail production system700 implementing multiple aspects of the invention. In particular, thesystem700 facilitates and implements the simultaneous mass production of individual orders of various different articles of manufacture printed with various individually-customized printed content. As shown inFIG. 13, an online retailer offering various different types of articles of manufacture individually customizable by individual customers with personalized printed content provisions one or more customer order server(s)720 withweb pages724 which together implement a website723. Product content, such astemplates709, layouts, designs, font schemes, color schemes, images, graphics, available for various different types of articles of manufacture are provisioned into acontent database791 or other computer storage by human or computer designers.

Any number of customers operatingclient computers710 may access the website723 hosted by the customer order server(s)720 to view products (articles of manufacture) and product templates and to select, design, and/or customize various design components of a selected product prior to ordering. For example, multiple templates may be available for customizing or personalizing print content for printing on a product (article of manufacture) such as a drink holder (“koozie”)99a, atape measure99b, aruler99c, a USB flash drive (“memory stick”)99d, amagnetic clip99e, akeychain tag99f, aletter opener99g, a foam cube (e.g., stress toy)99h, a calculator99i, or any other type of article of manufacture of a size suitable for printing in the conveyance printing system.

The various product templates may be selectable by the customer usingclient computer710 for further customization such as adding customer-personalized information such as name, business name, address, phone number, website URL, taglines, etc. Furthermore, the template may include one or more image containers allowing a customer to upload one or more images into a selected design template209. The customer may edit a selected template and make design changes using adesign tool727, and furthermore may preview the design using apreview tool728. Once a customer is satisfied with their selections/customizations, they can place anorder701 through an order andpurchase tool726 at the customer order server(s)720.Orders701 are stored in anorder database792 and/or sent directly to a fulfillment center.

Aproduction server730 at a fulfillment center may retrieveorders701 from theorder database792, extractindividual product documents702 from the retrievedorders792, convert theindividual product documents702 into a set of related individual print files703, aggregate individual orderedproducts701 into a set ofgangs704 containing individual product print files703 associated with ordered articles of manufacture to be printed, and orders printing of a batch of articles of manufacture through the conveyance printing system740 a “gang” at a time. Printed articles of manufacture exiting the printing process are sorted into their individual orders, packaged, and shipped or otherwise delivered to the respective individual customers.

System

700 is configured for mass production of customized printed products or items that may be of differing types, shapes, and construction. In this system, mass production includes the simultaneous printing of multiple articles of manufacture which can be ordered from multiple different customers. The content to be printed on the various ordered articles of manufacture can differ from order to order; thus, each article of manufacture to be printed can potentially be printed with unique content.

In the system shown inFIG. 13, a potentially enormous number (e.g., thousands or even hundreds of thousands or millions) of individual and commercial customers, wishing to place orders for one or more products of various different types, shapes, and construction materials, and which are to be printed with various graphical and customized designs printed or otherwise affixed thereon, access the system over anetwork705. In the illustrative embodiment, customers operatingrespective client computers210 may access the system over the Internet orother network705 via web browsers (or similar interactive communication software) running on personal computers, mobile devices (e.g., smartphones, tablets, or pad computers), or otherelectronic devices710.

In general, theorders701 submitted by customers are short run manufacturing jobs, i.e., manufacturing jobs of products of a particular type and print design of less than 40,000 units, typically 1-5,000 units). Through thenetwork705, each customer can access the website723 comprising a plurality ofrelated web pages724 configured to allow a customer to select and customize a graphical design ortemplate709 to be printed, etched, engraved, stamped, affixed, or otherwise embodied on a product (e.g.,koozies99a,tape measures99b,rulers99c, memory sticks99d,magnetic clips99e, keychain tags99f,letter openers99g, stress toys99h, calculators99i, etc.). A product may be available in multiple different types and construction materials from which the customer may select. Design tool(s)727 software may execute directly on the customer order server(s)720, or may be downloaded from the customer order server(s)720 as part ofweb pages724 displayed to the user to run in the user's browser on the customer'scomputer710. In an embodiment, the design tool(s)727 enable the customer to perform simple design functions by completing a selected template using a Design Wizard, or more complex design functions using a Design Studio, locally in the browser. In an embodiment, the templates are embodied using an XML format or other appropriate format.

Once the customer has completed customization of the product template design, the customer places an order through the website723 in conjuction with operation of an order andpurchase tool726. At this point the customized product design template is referred to as anindividual product document701. Anindividual product document701 is a document description of an ordered article of manufacture, and in one embodiment is stored in an XML format. Placement of an order results in a collection of information associated with the order. The collection of information is referred to herein as anorder701. Theindividual product document701 is stored in anOrders database792. In an embodiment, theindividual product document701 stored in XML format, and the XML file is then converted byrendering software732 at aproduction server730 into a set of associated PostScript files print-ready such as an Adobe®.pdf or other such PostScript file.

Theproduction server730 may includescheduling software731. Thescheduling software731 operates to schedule the production of printed products based on parameters associated with the receivedorders701, such as shipping time, type of product, etc.

Rendering software

732 convertsindividual product documents702 from the web format (e.g., <XML> or Document Object Model (DOM) descriptions) used in the web browser for displaying the web view of the design as seen by the customer during the design process to an associated print-ready (i.e., manufacturable) file703, such as a Postscript (e.g., .pdf) file ready to print by printing system of the conveyance printing system.

AGanging system733 fills predefined ganging templates containing placeholders for actual individual print-ready files703 according to a schedule determined from theScheduling module731 in conjunction with the printjob management function731. As an example,FIG. 2C depicts anexample tray inlay210cfor holding a plurality of articles ofmanufacture99c. As illustrated, the articles ofmanufacture99care aligned along both the x- and y-axes.

Given atray200 that aligned in the same position in theprinter system170 every time thetray200 passes through the printer, and having aninlay210cconfigured with fixed positions for holding articles of manufacture in aligned position, a gang corresponding to the layout of the articles to be engraved can be constructed.

In an embodiment, and with reference toFIGS. 14A through 14D, individual article print files703 from individual customer orders are arranged in a layout according to apredefined gang template1000. In an embodiment, thegang template1000 is saved as apostscript file704 such as a .pdf file defining a plurality of pre-positionedempty cells1001. Acell1001 is a content container of pre-defined dimensions corresponding to a position and dimensions of a targeted print area of an article mounted on thetray200 and positioned in the gang file layout in a unique pre-defined location in thegang template1000. Eachempty cell1001 may be filled with a single PostScript individualarticle print file703.

In the examples shown inFIGS. 14A-14D, thegang template1000 includes fourcells1001 of identical size arranged in a single row with the target print area aligned down the center of the available printable area. Eachcell1001 corresponds to a target print area on an individual article of manufacture. The cell layout shown inFIGS. 14A-14D is representative only and will vary across different types of articles, different target print areas on the articles, different numbers of articles accommodated by different trays, etc.

Referring back toFIG. 13, thecells1001 in agang template1000 are filled according to an automated ganging algorithm, executed within theganging system733. Theganging system733 selects, from agang template database720, agang template1000 appropriate to a particular article of manufacture and instantiates agang print file704 for that particular article of manufacture. Theganging system733 selects items scheduled for production and begins filling corresponding cells of the instantiatedgang file704 with the corresponding individual article print files703 until the gang is filled. If the ordered quantity of printed articles associated with an individual customer order is greater than one, then additional instances of the individualarticle print file703 may be placed in additional cells of the associatedgang template1000 to cause the ordered quantity of the item to be printed.

The filledgang file704 is sent to theconveyance printing system740, where a tray of the type associated with theparticular gang file704 is loaded with corresponding articles of manufacture. The loaded tray is conveyed to theprinting system150, where the gang file is printed as a single print job onto the articles of manufacture loaded on thetray200. The tray with printed articles is then conveyed to an unloadingstation140, wherein the printed articles are removed from the tray and sorted into individual orders by a human or a computerized sorting system. The sorted orders may then be packaged for shipping by a packaging system.

It will be appreciated that while one pattern may be printed on the multiple articles in a gang, alternatively and potentially each gang cell can contain a different individual print job and therefore individual print jobs corresponding to different customers and/or different print orders can be simultaneously printed onto multiple different articles within the same print job that is sent to theconveyance printing system740. It will be further appreciated that while embodiments of the tray inlay shown herein depict tray inlays configured to hold multiple instances of a single type article of manufacture, alternative tray inlays may be configured to hold articles of manufacture of multiple different types. For example, a tray inlay could hold a one each of articles of

manufacture types

99a,99b,99cand99d. The corresponding gang file would then include a cell for containing an individualarticle print file703 for each type of article of

manufacture

99a,99b,99cand99d.

As will be appreciated from the above detailed description, the conveyance printing system offers multiple advantages to the printing industry. Features include, but are not limited to:

- A continuous-flow printing system—no need to take the printer offline to change out printing pallets;
- Ability to print multiple different types of article of manufacture without taking the system offline to change the pallet configuration;
- Automated detection of article of manufacture to print;
- Automated detection of height of articles of manufacture and adjustment of height of tray to bring print nozzles within specified tolerance of print surface;
- Universal tray frame with removable and switchable article of manufacture specific tray inlay designed for each specific type of article of manufacture—the height of each inlay is adjusted to place the print surface of the loaded article(s) of manufacture at a predetermined height which is standardized across different types of articles of manufacture;
- Automated system indicating to operator which type of tray to load next;
- ergonomic tray handling;
- Ability to easily insert a high-priority print job into the print manufacturing flow without stopping the flow or taking the printing system offline.
- Ability to selectively program which functions to turn on or off based on information associated with the tray/slot identifier(s)

Those of skill in the art will appreciate that many of the control functions utilized in the systems and methods described and illustrated herein may be implemented in software, firmware or hardware, or any suitable combination thereof. For example, many control features may be implemented in software for purposes of low cost and flexibility. Thus, those of skill in the art will appreciate that the method and apparatus of the invention may be implemented by one or more processing devices (such as, but not limited to a computer, microprocessor, programmable logic devices, etc.) by which instructions are executed, the instructions being stored for execution on a computer-readable medium and being executed by any suitable instruction processor. Alternative embodiments are contemplated, however, and are within the spirit and scope of the invention.

Although this preferred embodiment of the present invention has been disclosed for illustrative purposes, those skilled in the art will appreciate that various modifications, additions and substitutions are possible, without departing from the scope and spirit of the invention as disclosed in the accompanying claims.

Claims

What is claimed is:

1. A manufacturing tray system for processing in a manufacturing system of different types of articles of manufacture, comprising:

a tray base configured to interface with a conveyance system for transport through the manufacturing system;

a first interchangeable tray inlay supported by said tray base, and arranged to hold an article of manufacture;

a tray identifier associate with processing information corresponding to the tray and to the article of manufacture, the processing information being indicative of one or more processes to be performed by the manufacturing system, the processing information indicating the article of manufacture held by the tray should be processed according to at least one of the group consisting of: a printing process, a wetting agent application process, a cleaning process, an ionization wash process, a plasma treatment process, a tray height adjustment process, and a curing process.

2. The manufacturing tray system ofclaim 1, further comprising:

a second interchangeable tray inlay arranged to hold at least one different type of article of manufacture.

3. The manufacturing tray system ofclaim 2, wherein the manufacturing tray system is reconfigurable to process a different type of article of manufacture by removing the first interchangeable tray inlay from the tray base, placing the second interchangeable tray inlay on the tray base for support thereon, the second interchangeable tray inlay configured to hold the different type of article of manufacture, loading the second interchangeable tray inlay with the different type of article of manufacture, and associating processing information specific to the article of manufacture held by the second interchangeable tray inlay with the tray identifier.

4. The manufacturing tray system ofclaim 1, wherein the first tray inlay is configured to hold a plurality of articles of manufacture in respective positions on the first tray inlay, the first tray inlay comprising corresponding position identifiers associated with the respective positions on the first tray inlay, and each position identifier is further associated with corresponding individual print content for printing onto the respective individual article of manufacture loaded in the corresponding position of the first tray inlay.