WO2011069254A1 - Procédé et appareil permettant de former des contenants avec un matériau ondulé - Google Patents

Procédé et appareil permettant de former des contenants avec un matériau ondulé Download PDF

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Publication number
WO2011069254A1
WO2011069254A1 PCT/CA2010/001948 CA2010001948W WO2011069254A1 WO 2011069254 A1 WO2011069254 A1 WO 2011069254A1 CA 2010001948 W CA2010001948 W CA 2010001948W WO 2011069254 A1 WO2011069254 A1 WO 2011069254A1
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WO
WIPO (PCT)
Prior art keywords
case
blank
panel
panels
mandrel
Prior art date
Application number
PCT/CA2010/001948
Other languages
English (en)
Inventor
H. J. Paul Langen
Original Assignee
Langen H J Paul
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Langen H J Paul filed Critical Langen H J Paul
Publication of WO2011069254A1 publication Critical patent/WO2011069254A1/fr

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Classifications

    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B31—MAKING ARTICLES OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER; WORKING PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B—MAKING CONTAINERS OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B50/00—Making rigid or semi-rigid containers, e.g. boxes or cartons
    • B31B50/02—Feeding or positioning sheets, blanks or webs
    • B31B50/022—Holders for feeding or positioning blanks or webs
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
    • B65D—CONTAINERS FOR STORAGE OR TRANSPORT OF ARTICLES OR MATERIALS, e.g. BAGS, BARRELS, BOTTLES, BOXES, CANS, CARTONS, CRATES, DRUMS, JARS, TANKS, HOPPERS, FORWARDING CONTAINERS; ACCESSORIES, CLOSURES, OR FITTINGS THEREFOR; PACKAGING ELEMENTS; PACKAGES
    • B65D5/00—Rigid or semi-rigid containers of polygonal cross-section, e.g. boxes, cartons or trays, formed by folding or erecting one or more blanks made of paper
    • B65D5/02—Rigid or semi-rigid containers of polygonal cross-section, e.g. boxes, cartons or trays, formed by folding or erecting one or more blanks made of paper by folding or erecting a single blank to form a tubular body with or without subsequent folding operations, or the addition of separate elements, to close the ends of the body
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B31—MAKING ARTICLES OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER; WORKING PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B—MAKING CONTAINERS OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B50/00—Making rigid or semi-rigid containers, e.g. boxes or cartons
    • B31B50/26—Folding sheets, blanks or webs
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B31—MAKING ARTICLES OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER; WORKING PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B—MAKING CONTAINERS OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B50/00—Making rigid or semi-rigid containers, e.g. boxes or cartons
    • B31B50/74—Auxiliary operations
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B31—MAKING ARTICLES OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER; WORKING PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B—MAKING CONTAINERS OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B50/00—Making rigid or semi-rigid containers, e.g. boxes or cartons
    • B31B50/74—Auxiliary operations
    • B31B50/76—Opening and distending flattened articles
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
    • B65D—CONTAINERS FOR STORAGE OR TRANSPORT OF ARTICLES OR MATERIALS, e.g. BAGS, BARRELS, BOTTLES, BOXES, CANS, CARTONS, CRATES, DRUMS, JARS, TANKS, HOPPERS, FORWARDING CONTAINERS; ACCESSORIES, CLOSURES, OR FITTINGS THEREFOR; PACKAGING ELEMENTS; PACKAGES
    • B65D5/00—Rigid or semi-rigid containers of polygonal cross-section, e.g. boxes, cartons or trays, formed by folding or erecting one or more blanks made of paper
    • B65D5/20—Rigid or semi-rigid containers of polygonal cross-section, e.g. boxes, cartons or trays, formed by folding or erecting one or more blanks made of paper by folding-up portions connected to a central panel from all sides to form a container body, e.g. of tray-like form
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
    • B65D—CONTAINERS FOR STORAGE OR TRANSPORT OF ARTICLES OR MATERIALS, e.g. BAGS, BARRELS, BOTTLES, BOXES, CANS, CARTONS, CRATES, DRUMS, JARS, TANKS, HOPPERS, FORWARDING CONTAINERS; ACCESSORIES, CLOSURES, OR FITTINGS THEREFOR; PACKAGING ELEMENTS; PACKAGES
    • B65D5/00—Rigid or semi-rigid containers of polygonal cross-section, e.g. boxes, cartons or trays, formed by folding or erecting one or more blanks made of paper
    • B65D5/42—Details of containers or of foldable or erectable container blanks
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B31—MAKING ARTICLES OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER; WORKING PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B—MAKING CONTAINERS OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B2100/00—Rigid or semi-rigid containers made by folding single-piece sheets, blanks or webs
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B31—MAKING ARTICLES OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER; WORKING PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B—MAKING CONTAINERS OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B2120/00—Construction of rigid or semi-rigid containers
    • B31B2120/30—Construction of rigid or semi-rigid containers collapsible; temporarily collapsed during manufacturing
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B31—MAKING ARTICLES OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER; WORKING PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B—MAKING CONTAINERS OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B50/00—Making rigid or semi-rigid containers, e.g. boxes or cartons
    • B31B50/02—Feeding or positioning sheets, blanks or webs
    • B31B50/04—Feeding sheets or blanks
    • B31B50/06—Feeding sheets or blanks from stacks
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B31—MAKING ARTICLES OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER; WORKING PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B—MAKING CONTAINERS OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B50/00—Making rigid or semi-rigid containers, e.g. boxes or cartons
    • B31B50/26—Folding sheets, blanks or webs
    • B31B50/44—Folding sheets, blanks or webs by plungers moving through folding dies
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B31—MAKING ARTICLES OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER; WORKING PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B—MAKING CONTAINERS OF PAPER, CARDBOARD OR MATERIAL WORKED IN A MANNER ANALOGOUS TO PAPER
    • B31B50/00—Making rigid or semi-rigid containers, e.g. boxes or cartons
    • B31B50/26—Folding sheets, blanks or webs
    • B31B50/44—Folding sheets, blanks or webs by plungers moving through folding dies
    • B31B50/46—Folding sheets, blanks or webs by plungers moving through folding dies and interconnecting side walls

Definitions

  • the present invention relates generally to methods and systems for forming containers made from corrugated material, including corrugated fibreboard.
  • Containers are used to package many different kinds of items.
  • One form of container used in the packaging industry is a case that is used for shipping items / products.
  • the term "case” is used to refer to such containers.
  • Cases come in many different configurations and are made from a wide variety of materials. However, many cases are foldable and are formed from a flattened state (commonly called a case blank). Cases may be made from an assortment of foldable materials, including cardboard, paperboard, plastic materials, composite materials, and the like and possibly even combinations thereof.
  • case made from a corrugated material, such as corrugated fibreboard.
  • the process for making an RSC begins with the formation of a piece of plain corrugated sheet material that can be formed by a corrugator machine.
  • a corrugator machine is the BHS Corrugator machine made by BHS Corrugated Maschinen- und Anlagenbau GmbH.
  • the corrugator machine may produce a length of corrugated material of a given width that can be used immediately or stored in a roll until it is ready to be utilized.
  • the next step in forming an RSC is to take a roll or sheet of such corrugated material that may have an approximate width that may be the same as the width of the desired blank that may be used to form the RSC.
  • the roll or sheet is also cut transversely such as to create sections of cardboard generally rectangular in shape.
  • the corrugated material is then fed through what is known as a flexo-folder gluer machine. In passing through such a machine, the corrugated sheet passes through a printer, which prints words or pictures on one or both sides of the sheet.
  • the material is creased both across and along the sheet material such that when the RSC is folded / erected it may easily bend along the crease lines to form the desired shape.
  • the creased and printed sheet is then "slotted" with a slotting device which cuts thin transversely oriented "slots" in the board in intervals along the top and bottom. These slots create the panels that may be folded over the top and bottom openings of the RSC when it is erected.
  • the sheet material goes through a rotary die cutter to remove excess corrugated material along one end of the board and crush down a portion along a fold line, to create a thin "hinge".
  • the purpose of the hinge is to later allow the board to be doubled back on itself (i.e. glue one end of the board to the other to create a tube) and glued.
  • the result of the flexo-folder gluer up to this point is to create a flat RSC blank such as, by way of example only, the blank 900 shown in Figure 27. Thereafter the flexo-folder gluer may apply glue to the hinge portion of the blank. The panels on either end of the blank are then folded over by a folding mechanism such that one end of the blank is now glued to the other in a flattened tube-shaped orientation to create a flat "knock down" RSC.
  • the knock down RSC After the knock down RSC has been created, it is typically grouped with other RSCs and shipped to the factory of the customer where the knock-down RSCs are to be erected and packed.
  • RSC case erector is the WF 20 model distributed by Wexxar Packaging.
  • the second step is placing of the product into the formed case, either by hand or using a "case packer" machine as in U.S. Pat. No. 4,644,734.
  • a "case packer” machine as in U.S. Pat. No. 4,644,734.
  • An example of a commercial case packer is the VCP-25 Vertical Case Packer by Schneider Packaging.
  • the pre-folded and pre-glued blanks are not well adapted to shipping in bulk from the location where the knock-downs are formed to the premises where the knock-downs are erected and packed, due to their asymmetric shape - being three layers thick on the glued seam area and only two layers thick elsewhere.
  • Unstable stacking characteristic of such blanks requires the use of secondary containers and also reduces the number of blanks that can be shipped per unit volume. These factors result in a significant increase in shipping costs compared to blanks that can be shipped in a completely flat arrangement.
  • RSC cases in alternative arrangements that are not folded over and glued into a "knock down" state prior to shipment to the place where the case is to be erected and/or packed).
  • RSC cases can be easily set up and sealed by hand without a machine. So in situations where case erecting and packing is done by hand, the RSC case is preferred. RSC cases may be preferred because hand packing can be easily done if problems with machinery arise; (2) The machinery traditionally used to form and pack die cut cases from flat, die cut blanks has been more expensive, complex, and inflexible when compared to RSC erectors and packers. Thus, at a location where the packing of the items into a case is accomplished, it is desirable to have relatively technically
  • a new blank design designated by the applicant as a dual side seam-regular slotted container blank (the "DSS-RSC" (TradeMark) blank) has been devised along with new forming processes and systems suited to forming cases from DSS-RSC blanks.
  • the DSS-RSC blank that has been conceived can be formed into a DSS-RSC case that is functionally equivalent to an RSC case, but may be both cheaper to manufacture than an RSC, and may provide equivalent or better strength than an RSC.
  • a case made from a corrugated material the case comprising: i. a generally flat transversely extending base panel; ii.
  • third and fourth upstanding end panels positioned at opposed ends of second side wall panel and oriented generally orthogonal to the second side wall panel and the base panel, each of the third and fourth end panels joined with and extending from opposed end edges of the second side wall panel; wherein the first and third end wall panels meet at a first vertically extending seam extending upwards from one end of the base panel and the second and fourth end wall panels meet at a second vertically extending seam extending upwards from an opposite end of the base panel.
  • a case comprising: i. a generally flat transversely extending base panel; ii. first and second transversely extending, generally parallel, side wall panels upstanding from, and being oriented generally orthogonal to, the base panel, each of the first and second side wall panels having respective first transverse edges extending along and joined with respective opposite transverse edges of the base panel; iii. first and second upstanding end panels positioned at opposed ends of the first side wall panel and oriented generally orthogonal to both the first side wall panel and the base panel, each the first and second ends panel having edges joined with and extending from opposed end edges of the first side wall panel; iv.
  • third and fourth upstanding end panels positioned at opposed ends of second side wall panel and oriented generally orthogonal to the second side wall panel and the base panel, each of the third and fourth end panels joined with and extending from opposed end edges of the second side wall panel; wherein the first and third end wall panels meet at a first vertically extending seam extending upwards from one end of the base panel and the second and fourth end wall panels meet at a second vertically extending seam extending upwards from an opposite end of the base panel, and wherein the first and third end wall panels overlap to form the first vertically extending seam and the second and fourth end wall panels overlap to form the second vertically extending seam.
  • a case made from a corrugated material comprising: i. a generally flat transversely extending base panel; ii. first and second transversely extending, generally parallel, side wall panels upstanding from, and being oriented generally orthogonal to, the base panel, each of the first and second side wall panels joined with and extending from the base panel; iii. first and second upstanding end panels positioned at opposed ends of the first side wall panel and oriented generally orthogonal to both the first side wall panel and the base panel, each the first and second ends panel joined with and extending from the first side wall panel; iv.
  • third and fourth upstanding end panels positioned at opposed ends of second side wall panel and oriented generally orthogonal to the second side wall panel and the base panel, each of the third and fourth end panels joined with and extending from the second side wall panel; wherein the first and third end wall panels meet at a first vertically extending seam extending upwards from one end of the base panel and the second and fourth end wall panels meet at a second vertically extending seam extending upwards from an opposite end of the base panel.
  • a single piece blank for forming a case comprising a continuous piece of generally flat corrugated material comprising: i. a base panel; ii. first and second side wall panels meeting either side of the base panel meeting either side of the base panel along respective opposite fold lines; iii. first and second end panels meeting at opposed ends of the first side wall panel along respective opposite fold lines; iv. third and fourth side end panels meeting at opposed ends of second side wall panel along respective opposite fold lines.
  • a width of aid base and a length of the first and third side end wall panels being selected such that when blank is erected to form the case, the first and third side end walls will meet at a first vertically extending seam at one end of the base panel and the second and fourth side end wall panels meet at a second vertically extending seam at an opposite end of the base panel.
  • a method of forming and loading a case the case made from a corrugated material and comprising: i. a generally flat transversely extending base panel; ii. first and second transversely extending, generally parallel, side wall panels upstanding from, and being oriented generally orthogonal to, the base panel, each of the first and second side wall panels having respective first transverse edges extending along and joined with respective opposite transverse edges of the base panel; iii.
  • first and second upstanding end panels positioned at opposed ends of the first side wall panel and oriented generally orthogonal to both the first side wall panel and the base panel, each the first and second ends panel having edges joined with and extending from opposed end edges of the first side wall panel; iv.
  • third and fourth upstanding end panels positioned at opposed ends of second side wall panel and oriented generally orthogonal to the second side wall panel and the base panel, each of the third and fourth end panels joined with and extending from opposed end edges of the second side wall panel; wherein the first and third end wall panels meet at a first vertically extending seam extending upwards from one end of the base panel and the second and fourth end wall panels meet at a second vertically extending seam extending upwards from an opposite end of the base panel; the method comprising: i. forming a sheet of corrugated fiberboard; ii. operating a die cutting apparatus to form a generally flat case blank from the sheet of corrugated fiberboard at a first location; iii.
  • a system for forming and loading a case the case made from corrugated fibreboard, the case comprising: i. a generally flat transversely extending base panel; ii. first and second transversely extending, generally parallel, side wall panels upstanding from, and being oriented generally orthogonal to, the base panel, each of the first and second side wall panels having respective first transverse edges extending along and joined with respective opposite transverse edges of the base panel; iii.
  • first and second upstanding end panels positioned at opposed ends of the first side wall panel and oriented generally orthogonal to both the first side wall panel and the base panel, each the first and second ends panel having edges joined with and extending from opposed end edges of the first side wall panel; iv.
  • third and fourth upstanding end panels positioned at opposed ends of second side wall panel and oriented generally orthogonal to the second side wall panel and the base panel, each of the third and fourth end panels joined with and extending from opposed end edges of the second side wall panel; wherein the first and third end wall panels meet at a first vertically extending seam extending upwards from one end of the base panel and the second and fourth end wall panels meet at a second vertically extending seam extending upwards from an opposite end of the base panel; and wherein the system comprises: i. a corrugator for forming a sheet of corrugated fiberboard; ii.
  • a die cutting apparatus located at a first location operable to form a generally flat case blank from the sheet of corrugated fiberboard at a first location; iii. a case forming apparatus located at a second location to fold the generally flat case blank to form the case, iv. a loading apparatus to load at least one item into the case; v. a sealing apparatus for sealing the opposed top panels of the case with the at least one item held in the case.
  • a method for forming a case from a case blank comprising: i. a base panel; ii. first and second side wall panels meeting either side of the base panel meeting either side of the base panel along respective opposite fold lines; iii. first and second end panels meeting at opposed ends of the first side wall panel along respective opposite fold lines; iv.
  • third and fourth side end panels meeting at opposed ends of second side wall panel along respective opposite fold lines; a width of aid base and a length of the first and third side end wall panels being selected such that when blank is erected to form the case, the first and third side end walls will meet at a first vertically extending seam at one end of the base panel and the second and fourth side end wall panels meet at a second vertically extending seam at an opposite end of the base panel; the method comprising: (a) orienting a case blank in a generally flat first orientation; (b) rotating a first portion of the blank from the first orientation to a second orientation that is generally orthogonal to a second portion of the case blank.
  • a method of forming a case from a case blank comprising: i. a base panel; ii. first and second side wall panels meeting either side of the base panel meeting either side of the base panel along respective opposite fold lines; iii. first and second end panels meeting at opposed ends of the first side wall panel along respective opposite fold lines; iv. third and fourth side end panels meeting at opposed ends of second side wall panel along respective opposite fold lines.
  • a width of the base and a length of the first and third side end wall panels being selected such that when blank is erected to form the case, the first and third side end walls will meet at a first vertically extending seam at one end of the base panel and the second and fourth side end wall panels meet at a second vertically extending seam at an opposite end of the base panel; the method comprising: (a) providing a case blank in a first generally flat orientation, the case blank having first and second portions, the first portion of blank being generally adjacent and parallel to a first portion of a mandrel; (b) rotating the second portion of the case blank about the mandrel so the second portion is positioned at a second orientation that is generally orthogonal to the first portion.
  • each of the plurality of blanks comprising: i. a base panel; ii. first and second side wall panels meeting either side of the base panel meeting either side of the base panel along respective opposite fold lines; iii. first and second end panels meeting at opposed ends of the first side wall panel along respective opposite fold lines; iv. third and fourth side end panels meeting at opposed ends of second side wall panel along respective opposite fold lines.
  • a width of the base and a length of the first and third side end wall panels being selected such that when blank is erected to form the case, the first and third side end walls will meet at a first vertically extending seam at one end of the base panel and the second and fourth side end wall panels meet at a second vertically extending seam at an opposite end of the base panel; the method comprising: i. forming a sheet of corrugated fiberboard; ii. cutting a plurality of the blanks from the sheet such that a plurality of blanks are cut both laterally and longitudinally from the sheet of corrugated fiberboard.
  • a plurality of blanks made from a single continuous sheet of generally flat corrugated material, a plurality of blanks being cut from a single sheet in both a lateral and longitudinal direction, each the blank comprising: i. a base panel; ii. first and second side wall panels meeting either side of the base panel meeting either side of the base panel along respective opposite fold lines; iii. first and second end panels meeting at opposed ends of the first side wall panel along respective opposite fold lines; iv. third and fourth side end panels meeting at opposed ends of second side wall panel along respective opposite fold lines.
  • a width of the base and a length of the first and third side end wall panels being selected such that when blank is erected to form the case, the first and third side end walls will meet at a first vertically extending seam at one end of the base panel and the second and fourth side end wall panels meet at a second vertically extending seam at an opposite end of the base panel.
  • a method of forming and loading a plurality of cases each of the plurality of case made from a corrugated material and comprising: i. a generally flat transversely extending base panel; ii. first and second transversely extending, generally parallel, side wall panels upstanding from, and being oriented generally orthogonal to, the base panel, each of the first and second side wall panels having respective first transverse edges extending along and joined with respective opposite transverse edges of the base panel; iii.
  • first and second upstanding end panels positioned at opposed ends of the first side wall panel and oriented generally orthogonal to both the first side wall panel and the base panel, each the first and second ends panel having edges joined with and extending from opposed end edges of the first side wall panel; iv.
  • third and fourth upstanding end panels positioned at opposed ends of second side wall panel and oriented generally orthogonal to the second side wall panel and the base panel, each of the third and fourth end panels joined with and extending from opposed end edges of the second side wall panel; wherein the first and third end wall panels meet at a first vertically extending seam extending upwards from one end of the base panel and the second and fourth end wall panels meet at a second vertically extending seam extending upwards from an opposite end of the base panel; the method comprising: i. forming a sheet of corrugated fiberboard; ii.
  • a die cutting apparatus to cut a plurality of generally flat case blank from the sheet of corrugated fiberboard in both a longitudinal and transverse direction on the sheet, the die cutting apparatus located at a first location; iii. transporting the plurality of flat case blanks to a second location; iv. operating a case forming apparatus at the second location to fold the plurality of case blanks to form the case, v. after the plurality of cases has been formed by the case forming apparatus, operating a loading apparatus to load at least one item into each of the plurality of cases; vi. sealing the opposed top panels of the case with the at least one item held in the case.
  • a system for forming a case the case made from a case blank made from a corrugated material, the case comprising: i. a generally flat transversely extending base panel; ii. first and second transversely extending, generally parallel, side wall panels upstanding from, and being oriented generally orthogonal to, the base panel, each of the first and second side wall panels having respective first transverse edges extending along and joined with respective opposite transverse edges of the base panel; iii.
  • first and second upstanding end panels positioned at opposed ends of the first side wall panel and oriented generally orthogonal to both the first side wall panel and the base panel, each the first and second ends panel having edges joined with and extending from opposed end edges of the first side wall panel; iv.
  • the system comprises a case forming apparatus to fold and glue the generally flat case blank to form the case
  • the case forming apparatus comprises: (a) a mandrel, and wherein the case blank has a first portion that can be positioned proximate a first surface of the mandrel; (b) a folding and guide apparatus; (c) a movement apparatus operable for moving the mandrel towards and through the folding and guide apparatus while the first portion of the case blank is positioned proximate the first surface of the mandrel
  • a carton former that comprises a mandrel mounted for reciprocating movement along a vertical path between an upper position and a lower position, the mandrel having a split head with head portions spaced so as to leave an aisle while the mandrel reciprocates; a rotating suction arm mounted within the aisle to a support, the rotating suction arm for rotation between a first position in line with the vertical path and a second position transverse to the vertical path, a pivot axis of the arm being proximate a lower edge of the mandrel when the mandrel is in the upper position; and a carton blank magazine extending transversely of the vertical path for presenting a vertically disposed carton blank adjacent the mandrel while the mandrel is in the upper position, with a fold line of the blank at the lower edge of the mandrel.
  • a method of forming a carton comprises: presenting a carton blank in a vertical orientation at a pick-up location; rotating a rotating suction arm to a position adjacent the vertical carton blank and applying suction to hold a lower portion of the carton blank; moving a split mandrel head with opposed mandrel portions along a vertical path to an upper position, the head portions spaced so as to allow the rotating suction arm to pass through the mandrel during the moving; rotating the rotating suction arm so that the blank has an L-shaped configuration with the lower portion of the blank against a lower portion of the mandrel; applying suction at the mandrel to hold the lower portion of the blank and releasing suction from the rotating suction arm; and moving the mandrel downwardly along the vertical path through folding members to form a carton from the blank.
  • a method for presenting a carton blank having opposed notches at a pick-up location in a vertical orientation comprises: hanging carton blanks from opposed pairs of beams utilizing the opposed notches of each carton blank; walking one beam of each pair of the opposed pairs of beams to step- wise move hung carton blanks toward the pick-up location; and positioning a backstop at the pick-up location such that a lower edge of the backstop is aligned with a transverse fold line of a carton blank reaching the pick-up location.
  • a method of forming a carton comprising: continuously conveying a carton blank downstream through a series of folding members to progressively fold the carton blank into a carton; and while continuously conveying the carton blank, applying glue on the fly to a first panel of the carton blank upstream of members that fold one of the first panel and a second panel against the other of the first panel and the second panel and hold the first panel and the second panel together.
  • Figure 1 is a top, left front perspective view of a case forming system in accordance with an example embodiment of the present invention
  • Figure 2 is a top, right rear side perspective view of the system of Figure l ;
  • Figure 3 is a top, right front perspective view of the system of Figure 1 ;
  • Figure 4 is a top, left rear perspective view of the system of Figure 1 ;
  • Figure 5 is a bottom, right rear perspective view of the system of Figure 1 ;
  • Figures 6 to 18 are various additional perspective views of the system of Figure 1, illustrating the sequential forming of a case from a blank using the system of Figures 1 to 5;
  • Figures 19 to 20 are perspective views of a first alternate system
  • Figures 21 to 22 are perspective views of a second alternate system
  • Figures 23 to 26 are perspective views of a third alternate system
  • Figure 27 is a plan view of a known type of blank that may be used to form a known type of Regular Slotted Case
  • Figure 28 is a schematic flow chart of a method of forming a case in accordance with an embodiment of the present invention.
  • Figure 29 is a perspective view of part of a typical press and cutting die portion of a die cutting apparatus to form part of a system for forming a DSS-RSC case (as hereinafter defined and described) in accordance with an embodiment of the invention
  • Figure 30 is a plan view of an example of a blank for a DSS-RSC case in accordance with an embodiment of the present invention.
  • Figure 31 is a plan view of a sheet of corrugated material from which can produce a plurality of the blanks of the type shown in Figure 30;
  • Figure 32 is a schematic perspective view illustrating an example process by which a DSS-RSC blank such as the blank in Figure 30 can be erected into DSS-RSC case;
  • Figures 33 to 35 are a series of perspective views of a DSS-RSC blank such as a blank in Figure 30 shown in isolation as it progresses through the process of Figure 32;
  • Figure 36 is a plan view of a blank for a DSS-RSC case in accordance with an alternate embodiment of the present invention.
  • Figure 37 is a plan view of a sheet of corrugated material that can be used to produce a plurality of the blanks such as the blanks of Figure 36;
  • Figure 38 is a schematic perspective view illustrating an example process by which a DSS-RSC blank such as the blank in Figure 36 can be erected into a case;
  • Figures 39 to 42 are a series of perspective views of a blank such as a blank in Figure 36 as it progresses through the process of Figure 38;
  • Figure 43 is a schematic view of a system for forming, erecting and packing a DSS-RSC case
  • Figure 44 is a front right side perspective view of a fourth alternate system
  • Figure 45 is a rear right side perspective view of the system of Figure 44;
  • Figures 46A to 46C are a series of front right side perspectives views of the system of Figure 44 illustrating the sequential folding of a first fold of a blank such as the blank of Figure 36;
  • Figure 47 is a bottom perspective view of a part of the system of Figure 44;
  • Figures 48A and 48B are isolated detailed perspective views of another part of the system of Figure 44;
  • Figure 49A is a rear perspective view of a part of the system of Figure 44 for forming a blank such as the blank of Figure 36 into a case;
  • Figure 49B is an isolated detailed view of a part of the system of Figure 44 shown in Figure 49A;
  • Figure 49C is a view of the opposite side of the part of the system of Figure 44 illustrated in Figure 49A;
  • Figures 50A to 50D are a series of perspective views of the system of Figure 44 illustrating an example process by which a DSS-RSC blank such as the blank in Figure 36 can be erected into a case;
  • Figure 51 is a top left side perspective view of the magazine rail assembly of the system of Figure 44;
  • Figures 52A, 52C and 52E are a series of rear elevation views of part of the magazine assembly of Figure 51 illustrating an example process by which flat DSS- RSC blanks such as the blank in Figure 36 may be held and fed through the system of Figure 44;
  • Figures 52B, 52D and 52F are a series of side elevation views of part of the magazine assembly of Figure 51 corresponding to Figures 57A, 57C and 57E, respectively;
  • Figure 53 is more detailed view of a part of the magazine assembly of Figure 51;
  • Figures 54A and 54B are isolated detailed perspectives view of yet another part of the system of Figure 44;
  • Figure 55 is an isolated detailed perspective view of yet another part of the system of Figure 44.
  • Figure 56 is an isolated detailed perspective view of yet another part of the system of Figure 44.
  • the first step 1000 is the formation of a corrugated sheet of material (that may be formed into a roll of material) from which the DSS-RSC blank will be made.
  • the roll or sheet of corrugated material does not have to be of the specific width or length of the desired width and length of the DSS-RSC blank such as blank 400 as illustrated in Figure 30.
  • the corrugated roll or sheet of fibreboard can be formed using a known type of corrugator machine such as the BHS Corrugator machine made by BHS Corrugated Maschinen- und Anlagenbau GmbH.
  • An example of the type of corrugated sheet of material that may be produced is described in US patent no. 150,588 the entire contents of which are hereby incorporated herein by reference.
  • Step 1000 will typically take place in a plant location that is dedicated to manufacturing sheets / rolls of corrugated materials.
  • the next step 1010 is the formation of the DSS-RSC blanks.
  • This step 1010 may or may not take place at the same general geographic location and the same physical building as step 1000. However, in many situations the DSS-RSC blanks will be formed at the same location as where the corrugated material is formed in step 1000.
  • the DSS-RSC blank (such as by way of example only blank 400 in Figure 30) may be formed from the sheet or rolled sheet of corrugated material (eg. corrugated fibreboard) by using a die cutting machine.
  • a die cutting machine may comprise a preliminary printing portion such that when the corrugated sheet is fed into the machine, appropriate text and / or images can be printed onto one or possibly both sides of the corrugated sheet in appropriate positions. Thus, when the DSS-RSC case is eventually erected, the printed material may be appropriately displayed.
  • the corrugated sheet can then be fed to the actual die cutting portion of the machine where one or more blanks are cut from the sheet of corrugated material.
  • this process involves the sheet being fed through and between a press and rotating cutting die.
  • An example of a press and die cutting machine that might be adapted to form a suitable DSS- SC blank is illustrated in U.S. Patent Number 4,466,320.
  • An example of a part of a typical press and cutting die portion 800 of such a machine is also illustrated schematically in Figure 29.
  • Cutting die 800 may have raised portions 810 that have outer cutting edges having a perimeter shape that corresponds with the shape of the desired blank.
  • the press and die cutting portion can thus cut out shapes, make perforations or creases, and may even cut the sheet into smaller parts to create a desired shaped blank.
  • the die cutting apparatus may be appropriately configured to cut out a single DSS-RSC blank at a time from the sheet of material, such as the blank 400 illustrated in Figure 30 or the blank 500 in Figure 36.
  • blanks 400 or blanks 500 can be cut across the width of the sheet of material simultaneously.
  • sheets of corrugated material showing the outlines of where the die cutting apparatus can cut from the sheet a plurality of blanks is illustrated in Figure 31 with blanks 400a-400h, and in Figure 37 with a plurality of blanks 500a-500h.
  • very long rolls or sheets of corrugated material may be provided with a width that may be approximately the same as the die cutting device.
  • a cookie cutter like action cuts and scores the material to generate blanks such as the DSS-RSC blank 400 shown in
  • Figure 30 Depending on the size of the blank and the size of the particular die, multiple blanks can be cut across the die simultaneously.
  • Figure 31 shows how several DSS-RSC blanks can be cut from a sheet of corrugated fibreboard using a rotary die cutter.
  • Figure 37 shows how several of DSS-RSC blanks 500 of Figure 36 can be cut from a sheet of corrugated fibreboard using a rotary die cutter.
  • blanks 400 or blanks 500 may be placed into stacks of blanks that may be conveniently loaded onto pallets. Once loaded onto pallets, as indicated in step 1020 of Figure 28, the blanks can be shipped to a location where the DSS-RSC blanks 400 or 500 may be erected and filled with product(s) pursuant to steps 1030 and 1040.
  • the shipping can occur by any known type of transportation such as by way of example only, truck, and/or plane, and/or train and/or by ship.
  • the location where steps 1030 and 1040 occurs may conveniently be at the customer premises, where for example a manufacturer of a product wishes to load the product it has manufactured into a case.
  • a manufacturer of soft drinks may produce bottles of soft drinks that need to be loaded into cardboard cases for shipping to their customer.
  • the manufacturer can instead employ a case former apparatus.
  • the case formers illustrated in Figures 1 to 26 can be utilized to transform the generally flat configured DSS-RSC blanks into DSS-RSC open- topped cases in step 1030.
  • the dimensions of such DSS-RSC cases may be substantially identical to the RSC case, and may meet or exceed the desired functional qualities of the typical prior art RSC case.
  • step 1050 may typically take place, at the same location, or proximate to, the location where step 1040 takes place. Examples of known machines that can be employed to fill and seal such cases include the DPI Drop Packer by Combi Packaging Systems LLC.
  • the erection of the DSS-RSC blanks into cases and the subsequent loading and sealing of the cases may take place on a single apparatus.
  • System 7000 may include a corrugator machine (as referenced above) 7010, and a die cutting machine 7020 (also as referenced above).
  • Corrugator machine 7010 and die cutting machine 7020 may in some applications be co-located at the same plant and building or be otherwise located near to each other in close geographic proximity.
  • Corrugator machine 7010 and die cutting machine 7020 may in other applications be remotely located from each other.
  • System 7000 may also include a case forming apparatus 7030 which may be located remotely from corrugator 7010 and die cutting machine 7020. Case forming apparatus 7030 may be located at the premises of a manufacturer of products that need to be packed into a case. System 7000 may also include a case filling apparatus 7040 and a case sealing apparatus 7050 and these may be co-located with the case forming apparatus 7030.
  • FIG. 30 illustrated is an example DSS- RSC blank 400 in various stages of configuration progressing from the generally flat blank 400 in Figure 30 to the erected DSS-RSC in Figure 35.
  • a typical formed DSS-RSC case used to hold smaller cartons of various consumer products would have dimensions of 24 inches in length, 12 inches in width and 18 inches in height.
  • panels 410, 420, 430, 440 and 450 may thus have a common length of 24 inches.
  • Panels 430, 431, 432, 420, 421, and 422 may have a common height of 18 inches.
  • Panels 410, 411, and 412 may have a common width of 12 inches.
  • panels 421, 422, 431, 432, 441, 442, 451, and 452 may extend out approximately 7 inches from panels 410, 420, and 430.
  • Panels 440, 441, 442, 450, 451, and 452 may extend out approximately 6 inches or less from panels 430, 431, 432, 420, 421 , and 422 to create the top flaps of the case.
  • panels 411 and 412 may extend out from panel 410 to a distance of approximately 6 inches.
  • Blank 400 may be made of creased corrugated fibreboard that may have been produced by the steps 1000 and 1010 as described above using known types of machines.
  • Corrugated fiberboard is a paper-based material consisting of two or three paper layers glued or otherwise fused together: a fluted corrugated sheet and one or two flat linerboards. The fluted material is bent in wave-like orientation and is glued to a single flat linerboard or sandwiched between two flat linerboards.
  • Blank 400 may be scored and cut to form a bottom panel 410, side wall panels 420 and 430, and major top cover panels 440 and 450. Panels 440, 430, 410, 420 and 450 are arranged in series along the direction of corrugation.
  • Panels 440, 430, 410, 420 and 450 have transverse edges that are oriented generally orthogonally to the direction of corrugation. Where the edge of one panel is joined to another panel at adjacent transverse edges (eg. the right edge of panel 440 is joined to the left edge of panel 430) there are fold lines about which the panels may be folded / rotated relative to each other. It will be noted that each panel 440, 430, 410, 420, and 450 also extends transversely (in the case of blank 400, this is also orthogonal to the direction of corrugation).
  • Each of the bottom and side wall panels 410, 420 and 430 is provided with a side end panel extending from each longitudinal side edge of the bottom and side wall panels (see panels 411, 412, 421, 422, 431 and 432). Each of these end panels is foldable about a longitudinal fold line where it is joined to the side edge of the bottom / side wall panels. It will be noted that there are gaps between side end wall panel 411 and side wall end panels 431, 421. There are also gaps between side end wall panel 412 and side end wall panels 432, 422.
  • the side end panels 421, 422, 431 and 432 may be configured to extend out from each side wall 420 and 430 respectively to a distance that is equal to slightly more than 1/2 of the width of the bottom panel 410.
  • This combination of features both individually and particularly in combination provide a co-operative effect to enhance the overall vertical support strength of the DSS-RSC case and thus may provide an enhanced stacking load capacity when DSS-RSC cases filled with products are stacked on top of each other.
  • any vertical gap between them at the seam should be quite small (eg. less than an inch in most if not all applications).
  • providing an overlap may provide advantages including enhancing the strength of the DSS-RSC case.
  • the bottom panels 411 and 412 may also extend out from the bottom panel 410 such that when the DSS-RSC is erected, these bottom panels 41 1, 412 will reinforce their respective end walls and the seams 499a, 499b, at the bottom of the ends.
  • Each of the side panel panels 421, 422, 431 and 432 have a minor top panel extending from the top of the respective side panel. These minor top panel panels are numbered 441, 442, 451, and 452 in Figures 30-35. Gaps are also provided as follows: between panel 450 and minor panels 451 and 452; and between panel 440 and minor panels 441 and 442, all as shown in Figure 30.
  • Minor top minor panels 441, 442, 451, 452 may be used to assist top panels 440, 450 in closing the opening to the case.
  • top minor panels may be positioned underneath or on top of top panels 440, 450 and may be joined to the top panels such as by adhesive or by packing tape to close the opening.
  • the blank 400 may, as discussed above, be oriented on the fibreboard such that the internal columns in the corrugation run vertically up the side wall panels 430 and 420 of the case.
  • FIG 32 the progressive folding of a DSS-RSC blank 400 is shown schematically.
  • the blank 400 progresses from the flat configuration referenced as "30" (referring to Figure “30") to a folded position referenced as “33” (referring to Figure 33) to a further folded position "34" (referring to Figure 34) to an erected configuration referenced as "35” (referring to Figure 35).
  • FIGs 32-35 illustrate the process by which the DSS-RSC case in Figure 30 can be erected.
  • the DSS-RSC case may be erected by formation around a mandrel such as by way of example a mandrel 489.
  • the DSS-RSC blank is placed against a mandrel and commences a process by which the panels of the DSS-RSC blank are folded around the mandrel to form an erected case.
  • the sequence shown here by which the panels are folded and affixed to one another is merely illustrative and of course various other iterations may be chosen to get an identical or similar end result.
  • panel 410 may be rotated / folded - for example by approximately ninety (90) degrees - about a predetermined fold line between panels 410 and 430.
  • panel 410 (and attached panels 411, 412, 420, 421 , 422, 450, 451 and 452) may be rotated /folded relative to panels 430, 431, 432, 440, 441 and 442 from a generally flat orientation to a generally angled orientation, thus forming a generally L-shaped configuration.
  • panel 420 can be rotated / folded - for example by approximately ninety (90) degrees - about a predetermined fold line between panels 420 and 410.
  • panel 420 (and attached panels 421, 422, 450, 451 and 452) is rotated from a generally flat orientation to a generally angled orientation relative to panel 410 such that the panels 410, 420 and 430 will form a generally U-shaped configuration.
  • FIG 34 and reference 34 in Figure 32 illustrate the next step of the process.
  • Bottom panels 411 and 412 may be rotated - for example by approximately ninety (90) degrees - about a pre-determined fold line between panels 411 and 410, and 412 and 410, respectively.
  • bottom panels 411 and 412 may be rotated relative to panel 410 from a generally flat orientation to a generally angled orientation, thus each forming a generally L-shaped configuration with panel 410.
  • the panels 410, 411 and 412 will thus form a generally U-shaped configuration.
  • All four of panels 411, 412, 420 and 430 are to be rotated in the same general direction vis-a-vis panel 410 such that the panels 411, 412, 420 and 430 thus begin to form opposing side walls of a four-sided container.
  • the folding of each of panels 41 1 and 412 may be either simultaneous to one another or with one panel being folded after the other.
  • a suitable type of adhesive such as hot melt adhesive
  • Glue may also or alternatively be applied to the inward facing surface of panel 422 and the outward facing surface of panel 432 in the region of the seam overlap 499a shown in Figure 35.
  • glue may also or alternatively be applied to the inward facing surface of panel 421 and the outward facing surface of panel 431 in the region of the seam overlap 499b shown in Figure 35.
  • side end panels 431 and 432 may be rotated - for example by about approximately ninety (90) degrees - about a pre-determined fold line between panels 431 and 430, and 432 and 430 respectively.
  • side end panels 431 and 432 can be rotated relative to panel 430 from a generally flat orientation to a generally angled orientation, thus each forming a generally L-shaped configuration with panel 430.
  • the folding of each of panels 431 and 432 may be rotated - for example by about approximately ninety (90) degrees - about a pre-determined fold line between panels 431 and 430, and 432 and 430 respectively.
  • side end panels 431 and 432 can be rotated relative to panel 430 from a generally flat orientation to a generally angled orientation, thus each forming a generally L-shaped configuration with panel 430.
  • 432 may be either simultaneous to one another or with one panel being folded subsequently to the other.
  • side end panels 421 and 422 may be rotated / folded - preferably approximately ninety (90) degrees - about a pre-determined fold line between panels 421 and 420, and 422 and 420 respectively.
  • side panels 421 and 422 are rotated / folded relative to panel 420 from a generally flat orientation to a generally angled orientation, thus each forming a generally L-shaped configuration with panel 420.
  • the folding of each of panels 421 and 422 may be either simultaneous to one another or with one panel being folded subsequently to the other.
  • side panels 431 and 432 As side panels 431 and 432 are folded, they may be compressed in such a manner that the inside surface portions ("inside” referring to the direction oriented towards the inside of the case) of side panels 431 and 432 engage outer surfaces portions of bottom panel 411 and 412 respectively.
  • side panels 431 and 432 may be attached to the outside surface portions of bottom panels 41 1 and 412 respectively.
  • side panels 421 and 422 As side panels 421 and 422 are folded, they may be compressed in such a manner that the inside portions of side panels 421 and 422 engage the outer surfaces of bottom panels 411 and 412 respectively.
  • side panels 421 and 422 may also be attached to the outside of bottom panels 411 and 412 respectively. Also with the assistance of appropriately positioned adhesive, side panels 421 and 422 may be also compressed in such a manner that the inside surfaces of side panels 421 and 422 may also engage portions of the outer surfaces of side panels 431 and 432 respectively. With the assistance of adhesive positioned between the respective surfaces, side panels 421 and 422 may thus be attached to portions of the outside of side panels 431 and 432 respectively. Alternatively, side panels 421, 422, 431 and 432 might be folded and compressed in such a sequence that side panels 421 and 422 might be attached to the inside of side panels 431 and 432 respectively.
  • panels 431, 432, 421, 422 may all be folded upwards and may also be glued prior to folding upwards opposite panels 411 and 412 so that panels 411 and 412 are on the outside of the case.
  • panels 41 1, 412 may be more readily susceptible to being dislodged during use.
  • Any suitable type of adhesive may be employed in bonding together panels in the construction of the DSS-RSC case, such as Cool-Lok adhesive made by Nacan Products Limited.
  • This "hot-melt"-type glue is typically applied in a "bead" along a particular first panel. This bead may be applied at a temperature appreciably higher than the ambient room temperature.
  • the glue is spread out over the surfaces of the two panels. As the glue is spread out, it cools down, forming an instant adhesive bond between the panels.
  • Figure 35 and reference 35 in Figure 32 show the DSS-RSC case 400 with the top open after it has been erected, ready to be loaded with product.
  • Minor top panels 441 and 451 overlap and form one end cover panel of the case.
  • minor top panels 442 and 452 overlap to form the other end cover panel.
  • the two end cover panels may be folded over at each end.
  • the two major cover panels 440 and 450 may be folded over and secured to the end cover panels.
  • blank 400 may include lines 498a, 498b that may either be pre-cut lines or perforation lines that provide a modified type of DSS-RSC case such that when the case is formed and sealed with product (eg. Beer bottles), persons seeking to carry the case can push through and in the portion of the case partially encircled by lines 498a and 498b to create an opening in the case at either end in which a hand can be inserted to create a handle.
  • product eg. Beer bottles
  • lines 498a and 498b can be cut or perforated into the corrugated fiberboard at the same time the case is being cut from a larger sheet of fiberboard as described herein.
  • the DSS-RSC case, modified to include the handles, may be formed in the same way as the case without this additional feature.
  • the positioning of the handles over the seam created by the overlap of panels 421 and 431 , and panels 422 and 432 may also provide additional strength to the handle that would otherwise not exist had the handle been placed on a portion of the case that did not have overlapping panels.
  • FIG. 36-41 blank bottom panels 511 and 512 of blank 500 that extend from the bottom of the case are cut into a triangular-shaped "wedge" instead of remaining in a rectangular shape as in Figure 30.
  • Side flaps 531 and 532 have a rectangular portion cut out (a "notch") extending from the bottom of the flap up a distance at least equal to the length that the bottom flaps 511 and 512 extend from the bottom panel 510.
  • FIG. 41 the process is the same in forming the alternative embodiment of Figure 36.
  • FIG 38 the progressive folding of a DSS-RSC blank 500 is shown schematically.
  • the blank 500 progresses from the flat configuration referenced as "36" (referring to Figure “36") to a folded position referenced as "39” (referring to Figure 39) to a further folded position "40" (referring to Figure 40) to a erected configuration referenced as "41” (referring to Figure 41).
  • panels 511, 521 and 531 are to be folded and compressed in such a sequence that the outer facing surface of bottom flap 51 1 is folded and glued to the inside of both side flaps 521 and 531.
  • panels 512, 522 and 532 are may be folded and compressed in such a sequence that bottom flap 512 is folded and glued to the inside of both side flaps 522 and 532.
  • side flaps 521 and 531 may be folded and compressed in such a sequence that side flap 531 is attached to the inside of side flap 521.
  • side flaps 522, and 523 may be folded and compressed in such a sequence that side flap 531 is attached to the inside of side flap 521.
  • the effect of adhesive on the inner surface of flap 522 and /or glue on panel 512 will be to pull and hold panel 512 outwards towards and against outer panel 521 thus drawing the tip of panel 512 into flush relationship with inner surface of panel 522.
  • the tips of panels 511 and 512 have inside surfaces that are generally flush with the inside surfaces of flaps 531 and 532. This makes it easier for product to be inserted inside the case flush with the end walls of the case (i.e. it acts to inhibit product being loaded into the case 500 from being caught on the edge of the bottom flaps 511 and 512).
  • the inside of the case 500 showing the notch and wedge feature can be seen in Figure 42
  • System 100 may include a magazine 110 adapted to hold a plurality of blanks 400 -that may equally be blanks 500- in a substantially flat orientation.
  • System 100 may also include a mandrel apparatus 120, a panel rotating apparatus 124, and a panel folding and guide apparatus 130.
  • the operation of case forming system 100 may be controlled by a programmable logic controller (“PLC") 132 (only shown schematically in Figure 1).
  • PLC 132 may for example be a model from the Micrologix family made by Allen-Bradley.
  • FIG. 30 illustrating a top view of the dual side seam- regular slotted container (“DSS-RSC") blank 400 (which will be marketed in association with the trade-mark DSSCTM), the blank is scored and cut to form the bottom 410, side walls 420 and 430, and major cover panels 440 and 450.
  • Each of the bottom and side walls is provided with a panel extending from each side of the bottom and side walls.
  • the side panels 421, 422, 431 and 432 extend out from each side wall to a distance equal to slightly more than 1/2 of the width of the bottom 410.
  • the bottom panels 411 and 412 extend out from the bottom such that when the case is erected, these bottom panels may reinforce the end walls at the bottom.
  • Each of the side panels 421, 422, 431 and 432 have a minor top panel extending from the top of the side panel. These minor top panels are numbered 441, 442, 451, and 452 in Figure 30. However, in other embodiments, containers having other side panel configurations can be formed.
  • predetermined fold / crease lines The effect of the fold line is such that when one panel such as for example panel 410 is folded relative to an adjacent panel such as 420 or 430, the panels may tend to rotate relative to each other along the fold lines separating the two panels.
  • bottom panels 511 and 512 extending from the bottom of the case are cut into a triangular-shaped "wedge" instead of remaining in a rectangular shape as in Figure 30.
  • Side panels 531 and 532 have a portion cut out (a "notch") extending from the bottom of the panel up a distance at least equal to the length that the bottom panels 51 1 and 512 extend from the bottom panel 510.
  • the DSS-RSC blank 400 or 500 may be folded to form the desired case configuration for a top loading case that can be delivered to a case loading conveyor.
  • the various walls and panels provide material that can, in conjunction with a connection mechanism (such as for example with application of an adhesive or a mechanical connection) join or otherwise interconnect walls/panels to adjacent walls/panels, to hold the case in its desired configuration.
  • the DSS-RSC blank may be made of a suitable corrugated material such as a corrugated fibreboard.
  • the blank may be oriented on the fiberboard such that the internal columns in the corrugation run vertically up the walls of the case. This orientation of the corrugation can be seen in Figure 30.
  • magazine 110 may be configured to hold a plurality of case blanks 400 (or blanks 500) in a vertically stacked, flat configuration, and be operable to move the stack of case blanks 400 sequentially upwards under the control of PLC 132, so that single case blanks 400 may be retrieved from the stack for processing by a panel retrieval and rotating apparatus generally designated as 124 that forms part of mandrel apparatus 120.
  • a panel retrieval and rotating apparatus generally designated as 124 that forms part of mandrel apparatus 120.
  • the magazine may comprise a large number of case blanks 400 held in a vertical stack by aluminium rails (the rails are not shown in the drawings).
  • the stack of blanks in the magazine is moved upwards from the bottom by a PLC controlled motor (not shown in drawings).
  • the purpose of moving the stack of blanks upwards as cases are formed is so that the top case is always close against the bottom of the mandrel.
  • the front panels of the top blank are then rotated around the mandrel by the panel rotation apparatus 124.
  • the PLC may move the entire stack up sequentially so that the top case is always maintained close to the mandrel 121.
  • the mandrel apparatus 120 may have several additional components including a mandrel 121, a mandrel support frame 123 and a mandrel movement and support apparatus generally designated 125.
  • mandrel 121 comprises a pair of opposed, spaced, vertically and longitudinally oriented side plates 140a, 140b interconnected to and joined by a horizontally oriented top plate 140c.
  • a mandrel 121 may be generally configured in a variety of different sizes and shapes, each selected for the particular case blank 400 that is being formed into a case.
  • the dimensions of the outer surfaces of mandrel 121 may be selected so that the specific case blank that it is desired to fold has during the forming process, fold / crease lines that are located substantially at or along the opposite side edges and the upper and lower front edges of mandrel 121. Such a selection may improve the performance of system 100 in creating a formed case that is ready for loading with items.
  • System 100 may be configured to permit for the easy interchange of mandrels 121 so that the system can be readily adapted to forming differently sized / shaped cases from differently configured blanks.
  • mandrel 121 may be supported by mandrel support frame 123, which may include a pair of spaced opposed elongated and longitudinally extending side plate members 150a and 1 0b.
  • Side plates 150a, 150b may be interconnected by and joined to a lower horizontally oriented plate 150c.
  • Side plates 150a, 150b and lower plate 150c may be integrally formed together.
  • Side plates 150a, 150b may be interconnected to respective side plates 140a, 140b of mandrel 121, with mandrel mounting brackets 141a and 141b, thus providing support for mandrel 121.
  • Mandrel side plates 140a and 140b may for example contain a groove or channel on their inner surface for receiving mandrel support brackets or rails 141a, 141b respectively (see for example Fig. 18) so that the mandrel 121 can be supported by the mandrel support frame 123 and may be generally restrained from vertical and transverse motion.
  • mandrel top plate 140c may be mounted to and above a mandrel support base 153.
  • Mandrel support frame 123 may be interconnected and supported by a vertical frame support member 152 (see for example Figures 1 and 9).
  • lower support plate 150c may have screw holes 151 which may enable screws (not shown) to pass upwards through plate 150c into threaded holes (not shown) in a lower horizontal surface of vertical support member 152.
  • Vertical support member 152 may be conveniently formed from a light but relatively strong material that can be readily formed into a tube, such as for example aluminium.
  • Vertical support member 152 may be formed as a hollow channel member that has a longitudinally extending cavity that allows for electrical and communication cables and
  • pressurized/vacuum air hoses to pass through from an upper end to a lower end.
  • electrical power/communication cable and air hoses can deliver power, electrical signals and air to the mandrel support frame 123 and the panel rotating apparatus 124.
  • mandrel support base 153 may also be interconnected and supported by vertical frame support member 152, with support base 153 being mounted to a lower, forward facing surface area of support member 152 by for example bolts/screws.
  • Vertical member 152 also has an upper end portion that is interconnected to a horizontal connector member 154 for interconnecting the vertical member 152 (and the mandrel apparatus attached thereto) to the mandrel moving apparatus 125.
  • Connector member 1 4 may be configured as a plate that interconnects to a corresponding slider plate 160 on mandrel moving apparatus 125.
  • Connector member 154 may be bolted to plate 160 and may be interconnected to vertical member 152 with bracket support member(see for example Figures 1 , 4 and 6).
  • mandrel support base 153 is generally L-shaped and has an upper horizontal support member plate 157 and a vertical attachment leg portion 165.
  • a quick release key bolt member 159 is provided for securing leg portion 165 to a generally U-shaped bracket member 161 that is secured to attachment plate 155 located on a forward facing surface of vertical support member 152.
  • Key bolt 159 may pass through apertures in bracket member 161 and leg portion 165 of support base 153.
  • Mandrel top plate 140c may be connected to support plate 157 using bolts or screws (not shown) that may pass through apertures 156 in mandrel top plate 140c (see Figure 2), into longitudinally oriented slots 158 that pass through support plate 157.
  • the longitudinal position of mandrel 121 relative to support frame 123 and rotating apparatus 124 can be selected by the appropriate setting of the screws in slots 158.
  • Quick release key bolt device 159 may be used to provide for the rapid and tool free attachment and release of mandrel 121 to and from vertical frame support member 152.
  • Attachment of the mandrel 121 to vertical support 152 via mandrel support base 153 generally restrains mandrel 121 from movement in the longitudinal direction relative to support frame 123 and rotating apparatus 124.
  • Mandrel support and moving apparatus 125 may be used to support and move in reciprocating forward and rearward longitudinal movement, mandrel 121, rotating apparatus 124, vertical support member 152 and mandrel support frame 123.
  • the mandrel moving apparatus 125 may be mounted to a support frame (not shown) with a plurality of mounting blocks 166 that are connected to a longitudinally extending guide rail support member 172 of moving apparatus 125.
  • guide slide rails 164a, 164b may be mounted to opposite side edge faces 172a, 172b respectively of support member 172.
  • Slider plate 160 may have mounted thereto, opposed sets of slide blocks 162a, 163a, and 162b, 163b (see Figures 1 and 2). Each of the slide blocks 162a, 163a, and 162b, 163b may have inwardly facing arcuate surfaces which may engage portions of their respective guide rails 164a, 164b. Slide blocks 162a and 163a may be supported by and slide along guide rail 164a. Slide blocks 162b and 163b may be supported and slide along guide rail 164b.
  • the slide blocks and guide rails may be made of complimentary materials that allow for smooth and easy sliding of the blocks along the guide rails. For example, slide blocks may be made of aluminium and guide rails 164a, 164b may be made of stainless steel.
  • Moving apparatus 125 also includes a mandrel drive device 174 which may include a continuous horizontally oriented drive belt 178 that extends between and rotates around a pulley 176 and a drive wheel 180.
  • Drive wheel 180 may be driven in both rotational directions and at varying speeds by the drive shaft of a servo drive motor 170.
  • the operation of drive motor 170 may be controlled by PLC 132 in combination with a position sensing apparatus (not shown) so that PLC 132 can determine when and how to operate drive motor 170 to appropriately position the drive belt 178 and thus moving apparatus 125.
  • Drive motor 170 may be mounted at an end portion of support member 172 with a vertically oriented connector plate 171.
  • a clamp can be mounted to plate 160 and the belt 178 can be secured between clamp arms of the clamp.
  • the slide plate 160 and sliding blocks 162a-b, 163a-b can also move in the same direction.
  • the mandrel support frame 152 and thus mandrel 121 can also be moved longitudinally, in parallel longitudinal, vertical and horizontal alignment with rails 164a, 164b.
  • Caterpillar 199 has a hollow cavity extending along its length. Within the cavity of caterpillar 199 hoses carrying pressurized air / vacuum and electrical / communication wires can be housed. Caterpillar 199 allows such hoses and wires to move longitudinally as the mandrel support member 152 and thus mandrel 121 and mandrel support frame 123 are moved longitudinally by moving apparatus 125.
  • the hoses and wires may extend from external sources to enter at an inlet 199a of caterpillar 199 and emerging at an outlet 199b. Once leaving outlet 199b, the hoses and wires may pass into the internal cavity of vertical member 152 (see Figure 2).
  • An example of a suitable caterpillar device that could be employed is the E-Chain Cable Carrier System made by Ignus Inc.
  • Panel rotating apparatus 124 may engage one blank 400 and may be employed to rotate one or more panels of blank 400 relative to one or more other panels. For example, as illustrated in Figures 9-11, panels 410, 411, 412, 430, 431, 432,
  • Panel rotating apparatus 124 may include a panel rotation unit 129.
  • the movement of unit 129 can be controlled by PLC 132 in such a manner that it can rotate so as to move a panel 410 (and attached panels 411, 412, 430, 431, 432, 440, 441 and 442 ) of a case blank 400 through a rotation of approximately 90 degrees, in an aligned manner, at an appropriate time, as is illustrated for example in Figures 9, 10 and 1 1.
  • the unit 129 may include a longitudinally oriented piston device 202 which has piston blocks 21 la, 21 lb that rest on bottom plate 150c. Piston block 21 lb has a vertical attachment leg portion 212.
  • a mounting block 205 with opposed generally vertical longitudinally oriented plates 214a, 214b and generally horizontal transversely oriented plate 215 is positioned at and connected to a rear end of reciprocating piston 202 with a screw (not shown) that passes through an aperture in leg portion 212 (not shown) and apertures 213a, 213b in vertical plates 214a, 214b respectively.
  • Mounting block 205 is also mounted to plate 150c with screws (not shown) that pass through apertures 210 in horizontal plate 215 into the plate 150c.
  • Piston 202 may be a conventional pneumatic reciprocating cylinder 204 and is operable to move in a reciprocal movement between a fully extended position (not shown) and a retracted position (not shown).
  • This reciprocating motion can be achieved in known ways such as for example, by using a double acting cylinder, which can for example, channel compressed air to two different chambers which in turn provides interchanging forward and backward acting forces on the piston 202.
  • Piston 202 may for example be a DSNU made by Festo. Compressed air may be delivered to piston 202 by hoses (not shown) passing from vertical support member 152 out to connect with apertures 203a, 203b.
  • valves can be driven between open and closed positions by solenoids responsive to signals from PLC 132 (FIG. 1).
  • the valves could be located proximate the piston 202 or be disposed elsewhere. Electrical lines carrying signals from PLC 132 could also pass through vertical member 1 2 to operate the valves.
  • a piston rod 206 of piston 202 is provided with an extended arm portion 208 that provides for a hinge connection 207 for pivoting the panel rotating apparatus 124 between a generally horizontal position and a generally vertical position.
  • Panel rotation apparatus 124 also comprises panel rotating plate 219 with outer and inner face 219a and 219b respectively. Panel rotating plate 219 may be attached by way of piano hinge 209 to forward lower extension of lower support plate 150c of mandrel support frame 123. As a result of the movement of piston 202 the cylinder rod 206, may extend or retract allowing the arm 208 to pivot relative to rotating apparatus 124. The movement of piston rod 206 thus causes the panel rotating plate 219 to rotate through a certain angular distance relative to mandrel 121 around piano hinge 209.
  • Air suction cups 220a and 220b may be fixedly mounted to outer or forward facing face 219a of panel rotating apparatus plate 219 with mounting block units 218a, 218b respectively. Air suction cups 220a and 220b may be interconnected through block units 218a, 218b to a source of vacuum by providing for an air channel linked to a manifold unit 225.
  • the manifold unit 225 may in turn may be interconnected by air vacuum supply hose (not shown) to a pressurized air distribution unit generally designated 227.
  • Unit 227 may include a plurality of valves that may be operated by PLC 132 and may also include a vacuum generator apparatus 221. If a vacuum generator is utilized, pressurized air may be delivered from an external source through vertical support member 152 to unit 227. The vacuum generator may then convert the pressurized air to a vacuum that can then be delivered to suction cups 220a, 220b.
  • the air suction force that may be developed at the outer surfaces of suction cups 220a and 220b of unit 124 may be sufficient so that when activated they can engage, hold and rotate panel 410 of a blank 400 from a generally horizontal position to the position shown in Fig. 11.
  • the vacuum generated at suctions cups 220a and 220b can also be de-activated by PLC 132.
  • suction cups 220a and 220b of unit 124 may engage the surface of panel 410.
  • suction cups of rotation units may alternatively, or in combination also, engage panel 430.
  • the particular arrangement of suction cups on rotating plate 219 can be designed based upon the configuration of the case blank and the particular panels that need to be rotated. It may also be appreciated that in the panel rotation apparatus 124, suction cups are used to apply a force to hold and/or move a panel of a case blank. However alternative engagement mechanisms to suction cups could be employed. It should also be noted that a second set of suction cup / suction plates mounted for movement, including pivoting movement, could be deployed to perform additional panel folding or movement and/or holding of the panel and blank.
  • FIG. 1 More generally, other types of apparatus may be employed to transfer a blank 400 to the mandrel apparatus 120, such that one portion of the blank may be rotated, preferably about ninety degrees, relative to another portion of the panel, to set-up the folding process using a folding apparatus.
  • system 100 may also include a panel folding and guide apparatus 130, that may be a rail and plough apparatus generally designated 300.
  • Rail and plough apparatus 300 is configured to cause the appropriate panel and sealing panels of a blank 400 to be appropriately folded and sealed to produce a case configuration that is suitable for delivery to a case conveyor (not shown).
  • Apparatus 300 may, as shown in the figures, include a plurality of rails and plough devices. Each of the rails and plough devices of apparatus 300 may be supported by rods or bars interconnected to a support frame (not shown for simplicity in the figures).
  • Apparatus 300 may include a pair of spaced, longitudinally extending overhead rails 302a, 302b configured and positioned so that as blank 400 is moved longitudinally forward by mandrel apparatus 120, rails 302a, 302b may fold panel 430 and attached panels 431, 432, 440, 441 and 442, from a generally vertical orientation to a generally horizontal orientation.
  • a pair of opposed inner side rails 304a, 304b are configured and positioned to engage bottom panels 411 and 412 respectively and may fold and maintain the panels 411 and 412 in a rearward longitudinal direction, until side end panels 421, 422, 431 and 432 and attached panels 451, 452, 441 and 442 have been brought into an upward vertical and overlapping relationship.
  • Apparatus 300 may also include a pair of opposed wedge plough devices 31 la, 31 lb that may be configured and positioned so that as blank 400 is moved longitudinally forward by mandrel apparatus 120, plough devices 31 la, 31 lb can commence the generally inward folding of side end panels 431 and 432 and attached panels 441 and 442 respectively from a generally horizontal orientation towards a generally vertical orientation.
  • apparatus 300 may also include a pair of opposed wedge plough devices 310a, 310b that may be configured and positioned so that as blank 400 is moved longitudinally forward by mandrel apparatus 120, plough devices 310a, 310b can commence the generally inward folding of side end panels 421 and 422 and attached panels 451 and 452 respectively from a generally horizontal orientation towards a generally vertical orientation.
  • Also part of apparatus 300 are a pair of opposed, downwardly and inwardly oriented guide rails 306a, 306b, that are configured and positioned to take over from plough devices 311 a, 311 b, to engage the upper surfaces of panels 431 and 432 and to complete the inward folding of side panels 431 and 432 respectively to a vertical position.
  • a pair of opposed, upwardly and inwardly oriented guide rails 308a, 308b that are configured and positioned to take over from plough devices 310a, 310b, to engage the lower surfaces of panels 421 and 422 and to complete the inward folding of side panels 421 and 422 respectively to a vertical position.
  • a pair of lower support rails 312a and 312b are positioned to assist in supporting blank 400 once it has been removed from the support of the stack of blanks 400 in the magazine 110. It should also be noted that during the forward longitudinal movement of blank 400 as it is pushed by mandrel apparatus 120 through the positions illustrated in Figures. 15-18, opposed adhesive compression rails 314a, 314b which are configured and positioned to apply pressure to the end panels of the formed case, to ensure appropriate sealing of the panels and panels with the adhesive.
  • Adhesive (i.e. glue) applicators such as applicators 600 can be appropriately positioned and their operation may be controlled by PLC 132. Applicators 600 can apply a suitable adhesive such as a hot melt adhesive to various panels so that when the panels are folded as described herein, the panels can be held in the desired case configuration.
  • a suitable applicator that can be employed is the model ProBlue 4 applicator made by Nordson Inc.
  • An example of a suitable adhesive that could be employed with on a case blank 400 made of cardboard is Cool-Lok adhesive made by Nacan Products Limited.
  • one adhesive applicator 600 may be positioned and configured so it can apply adhesive as described above including to an outer surface of panel 432 and inner surface of panel 422 so that the desired overlap seam 499a depicted in Figure 35 can be created. Applicator 600 may also be configured to apply adhesive to the outer surface of panel 412 at a suitable location.
  • a second applicator 600 may be positioned and configured so it can apply adhesive as described above including to an outer surface of panel 431 and inner surface of panel 421 so that the desired overlap seam 499b depicted in Figure 35 can be created. Applicator 600 may also be configured to apply adhesive to the outer surface of panel 411 at a suitable location.
  • latch devices 316a, 316b and lower latch devices 318a, 318b may be gravity driven or spring loaded finger latches which permit one way movement of configured cases.
  • Top plate 140c of mandrel 121 may be inscribed with grooves 319a and 319b, and similarly the lower facing surface of lower support plate 150c, may also be inscribed with corresponding grooves (not shown).
  • the latches are pushed by panels 20 and 30 to positions allowing the case blanks to pass the upper latch devices 316a, 316b and lower latch devices 318a, 318b.
  • latches may fall into the respective grooves. This may then prevent rearward movement of the configured blank 400a and allow for retraction of mandrel 121 without physical impairment by upper latch devices 316a and 316b or lower latch devices 318a, 318b.
  • other known types of mechanisms could be deployed that would restrain the blank from rearward movement, when the mandrel apparatus is starts to move backwards and disengages from the blank to return to its start position where the next blank can be retrieved from magazine 400.
  • additional suction cups could be used that are controlled by valves and PLC 132 and that are positioned to engage and hold the blank (which has become a formed case) in position during disengagement of the mandrel 121 from the formed case.
  • mandrel 121 mandrel moving apparatus 125, panel rotating apparatus 124 and mandrel support frame 123 may be made of suitable materials such as for example mandrel 121 may be made from aluminium.
  • a least some of the various components of system 100 such as mandrel 121 and support frame 123 may be integrally formed or interconnected to each other by known techniques. For example if the components are made of a suitable metal or plastic, welding techniques can be employed. Also, the use of screws and/or bolts may be employed.
  • magazine 110 may be raised so that the upper generally horizontally oriented surface of the upper-most blank 400 (which may be blank 400 from Figure 30 or may be blank 500 from Figure 36) is just in contact with, or is a very short distance spaced from (e.g. within 1 ⁇ 4 inch) the bottom surfaces of mandrel support frame 123 and mandrel 121.
  • magazine 110 and panel rotating apparatus 124 may co-operate so that the single blank 400 from the top of the stack of case blanks may be retrieved from the magazine 110 and be transferred to the mandrel apparatus 120.
  • the panel rotating apparatus 124 may also serve as a transfer mechanism for transferring case blanks in series from the magazine 1 10 to the mandrel 121.
  • a separate transfer mechanism may be provided to retrieve blanks serially from the magazine and transfer them to the mandrel so that a rotating apparatus may rotate a portion of the blank as hereinafter described.
  • panel rotation unit 124 may extend reciprocating piston rod 206 so that the rotating plate 219 and the suction cups 220a, 220b thereon are rotated to be in an orientation that is downward facing.
  • a vacuum may be applied to suction cups 220a, 220b, whereby they engage the upward facing surface of panel 410 of the top blank 400 in the stack.
  • Panels 420 and 450 of the blank 400 are at the same time are maintained generally in position up against or proximate the lower surface of mandrel support frame 123.
  • Suction cups or another additional holding mechanism could also be employed to hold the panels 420 and 450 horizontally against the bottom surfaces of the mandrel. Panels 420 and 450 may also continue to be supported underneath by physical contact with the upper surface of another underlying blank 400 in the stack.
  • panel rotating apparatus 124 may be operated by PLC 132 to rotate rotating plate 219 about hinge 209 so that panel 410 may be rotated - preferably approximately ninety (90) degrees - about a pre-determined fold line between panels 410 and 420.
  • panel 410 (and attached panels 411, 412, 430, 431, 432, 440, 441 and 442) is rotated relative to panels 420, 421, 422, 450, 451 and 452 from a generally flat and horizontal orientation to a generally vertical and angled orientation, thus forming a generally L-shaped configuration. It is this step that makes the rest of the case forming process using system 100 possible.
  • Vacuum may also be applied to suction cups 220a, 220b through operation of PLC 132 during the rotation of the panel 410.
  • the air suction force that may be developed at the outer surfaces of suction cups 220a, 220b of panel rotation apparatus 124 may be sufficient so that panel 410 of a blank 400 can be rotated from the position shown in Fig. 9, through the intermediate position shown in Fig. 10, to the position shown in Fig. 11.
  • the suction cups 220a, 220b associated with panel rotating apparatus plate 124 hold panel 410 against the forward facing surfaces of mandrel side plates 140a, 140b and the outer surface of 219a of panel rotating plate 219.
  • the panel 410 with attached panels 41 1, 412, 430, 431, 432, 440, 441 and 442 generally remain in a vertical orientation. Folding of panel 410 relative to panel 420 takes place about the fold line between panel 410 and panel 420. While there may be a predetermined fold line between the other panels, until one is bent relative to the other, they will tend to remain in the same general plane.
  • the rotation of panel 410 of the top blank 400 may also tend to pull that blank upwards and perhaps a very small distance forward, the effect of which may be to free the top blank from the blank beneath it that is still on the stack. The result is that the top blank 400 is now capable of being moved forward by the mandrel apparatus 120 towards the rail and plough apparatus 300.
  • the system could be configured so that magazine 110 may discharge blanks 400 to a mandrel apparatus like apparatus 120 from the top rather than the bottom. However, discharging blanks from the top may require inverting some or all of the aforementioned components.
  • mandrel support and moving apparatus 125 may be used to move mandrel apparatus 120 and mandrel support frame 123 longitudinally forward towards rail and plough apparatus 300, thus also moving blank 400 that is held to mandrel 121.
  • PLC 132 can operate servo drive motor 170, to move drive belt 178 longitudinally in a direction that causes slider plate 160 to slide forward on guide rails 172a, 172b. With the movement of slide plate 160, the vertical support 152, mandrel support frame 123, and mandrel apparatus 120 that is attached to frame 123, also move longitudinally towards rail and plough apparatus 300.
  • mandrel 121 is moved longitudinally forward, and thus blank 400 which may be held thereto by the connection of panel 410 to the front surface of the plate 219a, also moves longitudinally with the mandrel 121.
  • first rails 302a, 302b may engage a portion of panel 430, so that panel 430 and attached panels 431, 432, 440, 441 and 442, are folded along a fold line between panel 410 and panel 430 downward from a generally vertical orientation to a generally horizontal orientation as shown in Figure 13 whereby panel 430 is held against the upper surface of mandrel plate 140c.
  • opposed inner side rails 304a, 304b may engage panels 411 and 412 respectively and may fold and maintain the panels 411 and 412 in a generally rearwardly extending orientation.
  • a pair of wedge plough devices 31 la, 31 lb may commence the generally inward and downward folding of side end panels 431 and 432 and attached panels 441 and 442 respectively from a generally horizontal orientation towards a generally vertical orientation.
  • a pair of wedge plough devices 310a, 310b may commence the generally inward and upward folding of side panels 421 and 422 and attached panels 451 and 452 respectively from a generally horizontal orientation towards a generally vertical orientation.
  • next opposed, downwardly and inwardly oriented guide rails 306a, 306b may take over from plough devices 31 la, 31 lb, to engage the upper surfaces of panels 431 and 432 and attached panels 441 and 442 and to complete the inward and downward folding of outer panels 431 and 432 respectively to a vertical position as shown in Fig.15.
  • guide rails 306a, 306b may take over from plough devices 311a, 311b, to engage the lower surfaces of panels 421 and 422 and attached panels 451 and 452 and to complete the inward and upward folding of outer panels 421 and 422 respectively to a vertical position as shown in Fig.15.
  • the adhesive applicators 600 can apply appropriate amounts of adhesive in locations as described above.
  • Lower support rails 312a, 312b may assist in supporting blank 400 once it has been removed from the support of the stack of blanks 400 in the magazine 110.
  • the side end panels 431 and 432 are compressed in such a manner that inside portions of side end panel 431 engage outer surfaces of bottom panel 411 and inside portions of side end panel 432 engage outer surfaces of panel 412.
  • the side end panels 421 and 422 are compressed in such a manner that inside portions of side end panel 421 engage outer surfaces of bottom panel 411 and side end panel 431 and inside portions of side end panel 422 engage outer surfaces of bottom panel 412 and side end panel 432.
  • compression rails 314a, 314b may help ensure appropriate sealing of the panels together.
  • adhesive applicators 600 can apply a suitable adhesive at appropriate positions on the panels and/or panels just prior to the folding of the panels, so that when the panels and panels are folded as just described, the panels can be held in the desired case
  • adhesive applicators 600 can apply a suitable adhesive at appropriate positions on the panels just prior to or during the process of folding of the panels, so that when the panels and panels are folded as just described, the panels can be held in the desired case configuration.
  • lines or beads of glue may be applied by stationary glue applicators 600 to the blank 400 as the blank is being moved by mandrel 121 through the rail and plough apparatus 300.
  • the glue can be applied at a particular time during the folding process just prior to engaging two panels with each other to interconnect them.
  • the gluing and folding can be completed in a single in-line process while the blank is being moved longitudinally through the rail and plough apparatus 300, without the need to have a separate gluing stage prior to commencing the folding by the rail and plough apparatus 300.
  • glue may be applied to the outward facing surface of panels 432 and 442 in a bead 601 extending up the walls of the case along the portion of panels 432 and 442 that will overlap with panels 422 and 452.
  • a seam may be formed by the bond between panels 422 and 432, and 452 and 442.
  • a bead may be applied extending up the walls of the case along the portion of panels 422 and 452 that will overlap with panels 421 and 451.
  • panels 421 and 451 are folded and compressed against the outside surface of panels 431 and 441 another seam may created on the opposite side of the case as panel 421 is bonded to panel 431 and panel 441 is bonded to panel 451.
  • the adhesive may be "hot-melt"-type glue such as Cool-Lok adhesive made by Nacan Products Limited.
  • a bead of hot-melt glue may be applied by applicators 600 to the surfaces of the appropriate panels at a temperature appreciably higher than the ambient room temperature.
  • the bead of glue may be approximately cylindrical in shape and as the second panel is folded over the first panel and compressed by the rail and plough apparatus 300, the bead of glue becomes flattened and spreads out over the seam. As the glue is spread out, it cools down, forming an instant adhesive bond between the panels.
  • the glue has little time to cool down between glue application and panel compression. Because there is little time between glue application and compression, the bead of glue is not required to retain heat for a significant amount of time and a bead with a smaller radius (and consequently a reduced amount of glue) may be used as compared to a system where the glue is applied in a separate process prior to folding.
  • the latch devices may restrict the case from moving longitudinally backwards, when the mandrel apparatus 120 is withdrawn.
  • PLC 132 may send a signal to servo motor 170 causing it to reverse its rotational direction, which in turn causes drive belt 178 to move in the opposite direction.
  • This movement of belt 178 causes slider plate 160 and thus mandrel support frame 123 and mandrel apparatus 120 to also move in a reverse or rearward direction (not shown).
  • PLC 132 may send appropriate signals to deactivate the vacuum force provided at suction cups 220a and 220b in panel rotating apparatus plate 219 so that the container is no longer held on the mandrel by the suction cup forces.
  • container 400a may no longer be supported, except possibly at least to some extent by compression rails 314a, 314b.
  • container 400a may be transferred to a case conveyor (not shown) that is configured to receive the container and the container is then carried away by the case conveyor to be loaded and/or processed further.
  • Case conveyors are well known in the art and any suitable known case conveyor may be utilized.
  • a device may be employed to push the container 400a (e.g. the formed DSS-RSC case) out from between rails 314a, 314b.
  • a simple push down cylinder device that may also be controlled by PLC 132 may be used.
  • Other examples of transfer devices that might be employed to transfer the case from the end of guide apparatus 130 to a case conveyor include a "blow-off' system that may use one or more jets of compressed air, a suction cup system, the use of pushing arm or simply allowing for freefall of the formed case.
  • the mandrel apparatus 120 can be returned to its start position (not shown), ready to recommence the process that has just been described above to form another case.
  • cases may be formed at a rate of in the range of about 1 to about 60 cases per minute.
  • one portion of the blank may not have to be rotated from a generally flat configuration with the rest of the case blank, ninety degrees relative to remaining portions of the panel, to set-up the folding process.
  • one portion of the blank may not have to be rotated from a generally flat configuration with the rest of the case blank, ninety degrees relative to remaining portions of the panel, to set-up the folding process.
  • the initial rotation of one portion of the blank from a generally flat configuration of the entire blank may for example be only in the range of from forty-five degrees to ninety degrees.
  • the blank is then more readily capable of being engaged by other mechanisms such that a further rotation of the first portion and other portions of the blank can be carried out to bring the first portion to a vertical position against the front face of the mandrel.
  • a mandrel might be employed which has outer surfaces that are not completely at right angles to each other.
  • a case blank could then be utilized in the system such that when folded, the blank may not form a cuboid shape.
  • the system could, with some other modifications, be provided in other spatial orientations such as in a vertically inverted configuration.
  • a magazine may hold blanks in a stack but be configured to dispense the blanks from the bottom of the stack.
  • a blank could then be retrieved from the bottom of the stack and the front panels could be rotated ninety degrees downwards (instead of upwards) to engage a mandrel, so that like in the embodiment described above, an L-shaped configuration is formed around the mandrel.
  • a separate rotation device may not be required to rotate the front panels ninety degrees to engage the mandrel. Once released from the magazine, the front panels may rotate and pivot dovmwards.
  • Suction cups or another holding mechanism could then be employed to hold the front panels vertically against the front surface of the mandrel.
  • An additional holding mechanism could also be employed at a top plate of the mandrel so that the L-shaped blank is held to the mandrel before and during its passage through a holding apparatus.
  • Such a holding apparatus may be simply the inverted configuration to the holding apparatus described above. An example of such an embodiment is illustrated in Figures 19 and 20.
  • system 1100 is constructed substantially the same way as system 100 as illustrated in Figures 1 to 18 with generally all the same components. However, the orientation of system 1100 is vertically inverted in its orientation compared to system 100. Therefore, while each blank 4001 of system 1100 (each of which may be like blank 400) is moved longitudinally in a generally horizontal direction, the process and components are vertically inverted about a horizontal longitudinal axis.
  • System 1 100 therefore may have a magazine 4000 holding blanks 4001 (which may be of the type blank 400 of Figure 30 or blank 500 of Figure 36) vertically above mandrel apparatus 1 120, panel rotating apparatus 1124 and mandrel movement and support apparatus 1 125.
  • Mandrel apparatus 1 120 may be constructed like mandrel apparatus 120 with a mandrel 1 121, but may be oriented in a vertically inverted configuration compared to apparatus 120.
  • panel rotating apparatus 1124 and mandrel movement and support apparatus 1 125 may be constructed like panel rotating apparatus 124 and mandrel movement and support apparatus 125 respectively, but each is also oriented, vertically inverted.
  • System 1 100 may also include a panel folding and guide apparatus 1300 that may be a rail and plough constructed like apparatus 300, but again it may be vertically inverted.
  • magazine 4000 may provide blanks 4001 in a stack such that there is a downwardly facing, but generally horizontally oriented surface of panel 20 in the bottom-most blank in the stack that is just in contact with, or is a very short distance spaced from the bottom surfaces of mandrel 1121.
  • magazine 4000 and panel rotating apparatus 1124 may co-operate so that the single blank 4001 from the "bottom" of the stack of blanks may be retrieved from the magazine 4000 and be transferred to the mandrel apparatus 1120.
  • gravity may assist in releasing a blank 4001 from magazine 4000 and securing it to mandrel 1121.
  • a PLC like PLC 132 may cause panel rotation unit 1124 to extend so that a rotating plate 1219 and the suction cups thereon are rotated to be in an orientation that is upward facing.
  • suction cups may engage the downward facing surface of panel 410 of the bottom blank 4001 in the stack.
  • the blank 4001 may also at the same time be supported proximate the upper surface of the mandrel support frame 1123.
  • panel rotating apparatus 1124 may be operated to rotate plate 1219 so that panel 410 may be rotated - preferably approximately ninety (90) degrees - downwards, but otherwise generally as described above, to form a generally L-shaped configuration. Vacuum may also be applied to suction cups through operation of the PLC during the rotation of the panel 410. The air suction force that may be developed at the outer surfaces of suction cups of panel rotation apparatus 1124 may be sufficient so that panel 410 of a blank 4001 can be rotated from the position shown in Fig. 19 to a vertical position.
  • the suction cups associated with panel rotating apparatus plate 1124 hold panel 410 against the forward facing surfaces of mandrel 1 121 with attached panels 411 , 412, 430, 431 , 432, 440, 441 and 442 also generally remaining in a vertically downward orientation.
  • the rotation of panel 410 may also tend to pull that blank downwards and perhaps a very small distance forward direction, the effect of which may be to free the blank from magazine 4000.
  • the result is that the "bottom" blank is now capable of being moved forward by the mandrel apparatus 1120 towards the panel folding and guide apparatus 1300.
  • the magazine may again comprise a stack of blanks held in position by vertical rails (not shown).
  • gravity may bring the cases to the bottom of the magazine.
  • the stack is held up by the tabs against or closely proximate to the top of the mandrel.
  • the panel rotation device 1124 engages the bottom case blank and rotates the front panel downwards, the bottom case blank may be pulled through the tabs and out of the magazine.
  • the tabs themselves may remain stationary, but because the case blank may be flexible, so that the case blank may bend from the force of the rotation device and pull out of the magazine. In this way, the system may prevent more than one blank at a time from being taken.
  • various other embodiments of how a magazine can be set up and how a case can be taken from a magazine are possible.
  • the panel folding and guide apparatus 1300 may cause the blank to be folded in the same manner as described above in relation to rail and plough apparatus 300, but in an orientation that is vertically inverted.
  • system 2100 is also constructed substantially the same way as system 100 with generally all the same components. However, the orientation of system 2100 rotated by about 90 degrees to generally vertically orientation compared to system 100. Therefore, each blank 2400 of system 2100 (each of which may be like blank 400 of Figure 30 or blank 500 of Figure 36) is moved generally longitudinally in a generally vertically downwards direction.
  • System 2100 therefore may have a magazine 2110 holding blanks 2400 that is positioned to hold blanks 2400 in a generally vertical orientation and horizontally spaced from mandrel apparatus 2120, panel rotating apparatus 2124 and mandrel movement and support apparatus 2125.
  • Mandrel apparatus 2120 may thus be constructed like mandrel apparatus 120 with a mandrel 121, but may be oriented in a generally 90 degree rotated configuration compared to mandrel apparatus 120.
  • panel rotating apparatus 2124 and mandrel movement and support apparatus 2125 may be constructed like panel rotating apparatus 124 and mandrel movement and support apparatus 125 respectively, but each is also oriented in a generally 90 degree rotated configuration.
  • System 2100 may also include a panel folding and guide apparatus 2300 that may be a rail and plough constructed like apparatus 300, but again can be oriented in a generally 90 degree rotated position compared to apparatus 300.
  • magazine 2110 may provide blanks in a stack such that there is a vertically oriented outward facing, surface of the "bottom” blank in the stack that is just in contact with, or is a very short distance spaced from, the outward facing surfaces of mandrel 2121.
  • magazine 21 10 and panel rotating apparatus 2124 may co-operate so that the single blank 2400 from the "bottom" of the stack of blanks may be retrieved from the magazine 2110 and be transferred to the mandrel apparatus 2120.
  • a PLC like PLC 132 may cause panel rotation apparatus 2124 to extend so that a rotating plate 2219 and suction cups thereon are rotated to be in an orientation that is generally vertical.
  • suction cups may engage the vertically oriented and outward facing surface of panel 410 of the bottom blank 2400 in the stack.
  • the blank 2400 may also at the same time be supported proximate the vertical surface of the mandrel support frame by the magazine until the blank has been engaged by the panel rotation apparatus 2124.
  • panel rotating apparatus 2124 may be operated by rotating plate 2219 so that panel 410 may be rotated - preferably approximately ninety (90) degrees to a generally horizontal position, but otherwise generally as describe above, to form a generally L-shaped configuration. Vacuum may also be applied to suction cups through operation of the PLC during the rotation of the panel 410. The air suction force that may be developed at the outer surfaces of suction cups of panel rotation apparatus 2124 may be sufficient so that panel 410 of a blank can be rotated approximately 90 degrees.
  • the suction cups associated with panel rotating apparatus plate 2219 hold panel 410 against the forward facing surfaces of mandrel 2121 with attached panels 411, 412, 430, 431, 432, 440, 441 and 442 also generally remaining in a horizontal orientation.
  • the rotation of panel 410 may also tend to pull that blank horizontally and perhaps a very small distance downward direction, the effect of which may be to free the top blank from magazine 2110. The result is that the bottom blank is now capable of being moved forward by the mandrel apparatus 2120 towards the panel folding and guide apparatus 2300.
  • the magazine employed in system 2100 may be just a stack of case blanks held in position by horizontal rails (not shown).
  • the magazine may operate using a combination of the other two types of magazines described above (e.g. the orientations in figures 1 and 19).
  • the stack may utilize a PLC controlled motor to push the whole stack sequentially towards the mandrel as case blanks are taken from the bottom of the stack and formed.
  • a PLC controlled motor to push the whole stack sequentially towards the mandrel as case blanks are taken from the bottom of the stack and formed.
  • the stack may be held up by the tabs against or closely proximate to the top of the mandrel.
  • the bottom case blank When the panel rotation apparatus 2124 engages the bottom case blank and rotates the front panel towards the horizontal, the bottom case blank may be pulled through the tabs and out of the magazine 21 10.
  • the tabs themselves may remain stationary, but because the case blank is slightly flexible, the case blank may bend from the force of the rotation device and pull out of the magazine. In this way, the system 2100 prevents more than one blank at a time from being taken.
  • a magazine set-up could be employed in system 2100.
  • the panel folding and guide apparatus 2300 may cause the blank to be folded in the same manner as described above in relation to rail and plough apparatus 300, but in an orientation that is vertically inverted.
  • a system 3100 is illustrated in which the mandrel may be de-coupled from the panel rotating apparatus and support frame.
  • the panel rotation apparatus and support frame may remain in a fixed position and not move with the mandrel and partially folded blank in a longitudinal direction towards the rail and plough apparatus.
  • System 3100 may for the most part be constructed substantially the same way as system 100 with generally most of the same components.
  • System 3100 therefore may have a magazine 31 10 holding blanks 3400 (which may be of the type of blank 400 or Figure 30 or blank 500 of Figure 36) below a mandrel apparatus 3120, a panel rotating apparatus 3124 and a mandrel movement and support apparatus (not shown).
  • Mandrel apparatus 3120 may be constructed in a similar manner to mandrel apparatus 120 with a mandrel 3121.
  • panel rotating apparatus 3124 and mandrel movement and support apparatus may be constructed like panel rotating apparatus 124 and mandrel movement and support apparatus 125 respectively.
  • panel rotating apparatus 3124 is decoupled from mandrel movement and support apparatus.
  • System 3100 may also include a panel folding and guide apparatus 3300 that may be a rail and plough constructed like apparatus 300.
  • Mandrel 3121 may include a pair of spaced opposed elongated and longitudinally extending side plate members 3140a and 3140b. Side plates 3140a, 3140b may be interconnected by and joined to an upper horizontally oriented plate 3140c. Side plates 3140a, 3140b and upper plate 3140c may be integrally formed together. Mandrel side plates 3140a and 3140b may contain a groove or channel (not shown) on their inner surfaces for receiving mandrel support rails 3141a, 3141b respectively so that the during extraction of a blank 3400 from magazine 31 10, mandrel 3121 can be supported by the support frame 3123 and may be generally restrained from vertical and transverse motion.
  • mandrel side plates 3140a and 3140b may slide longitudinally relative to rails 3141a, 3141b respectively.
  • the result may be that after extraction of a blank 3400 from magazine 31 10, and the initial folding of the blank 3400 on mandrel 3121, mandrel 3121 can move away with the extracted blank 3400 longitudinally from rotating apparatus 3124 and support frame 3123.
  • Mandrel 3121 may be interconnected to and supported by a vertical frame support member 3152 having a connection plate 3153 extending horizontally at the lower surface of vertical member 3152.
  • Plate 3153 may have screw holes 3155 which may enable screws (not shown) to pass down into threaded holes (not shown) in an upper horizontal surface of mandrel plate 3140c.
  • Vertical support member 3152 may be conveniently formed from a light but relatively strong material that can be readily formed into a tube, such as for example aluminium.
  • Vertical support member 3152 may be formed as a hollow channel member that has a longitudinally extending cavity that allows for electrical and communication cables and pressurized/vacuum air hoses to pass through from an upper end to a lower end.
  • electrical power/communication cable and air hoses can deliver power, electrical signals and air to the suction cups 3199a, 3199b that are positioned to face outwards in a generally horizontal orientation.
  • Suction cups can be mounted in the end faces of side plates 3140a, 3140b respectively.
  • the supply of vacuum to suction cups 3199a, 3199b may be controlled by a PLC like PLC 32.
  • Vertical member 3152 also has an upper end portion that is interconnected to the mandrel moving apparatus (not shown).
  • Mandrel support and moving apparatus may be used to support and move in reciprocating forward and rearward longitudinal movement mandrel 3121.
  • Panel rotating apparatus 3124 may engage one blank 3400 and may be employed to rotate a blank 3400 panel 410 relative to one or more other panels.
  • the movement of unit 3124 can be controlled by the PLC in such a manner that it can rotate so as to move a panel 410 (and attached panels 411, 412, 430, 431, 422, 440, 441 and 442) of a case blank 3400 through a rotation of approximately 90 degrees, in an aligned manner, at an appropriate time.
  • Unit 3124 may be described in overview and with particular reference to Figures 24 and 25. Like unit 124 in the previous system 100, unit 3124 may include a longitudinally oriented piston device 3202 which has piston blocks that rest on bottom plate 31 0c of support frame 3123. Piston 3202 may be a conventional pneumatic reciprocating cylinder and is operable to move in a reciprocal movement between a fully extended position (not shown) and a retracted position. To channel the compressed air appropriately, valves (not shown) can be driven between open and closed positions by solenoids responsive to signals from PLC 132. The valves could be located proximate the piston 3202 or be disposed elsewhere. Electrical lines carrying signals from PLC could also pass through vertical member 3152 to operate the valves.
  • a piston rod of piston 3202 is provided with an extended arm portion that provides for a hinge connection for pivoting the panel rotating apparatus 3124 between a generally horizontal position and a generally vertical position.
  • Panel rotation apparatus 3124 also comprises panel rotating plate 3219
  • Panel rotating plate 3219 may be attached by way of piano hinge to forward lower extension of bottom plate 3150cof support frame 3123.
  • the cylinder rod may extend or retract allowing the arm to pivot relative to rotating apparatus 3124. The movement of piston rod thus causes the panel rotating plate 3219 to rotate through a certain angular distance relative to mandrel 3121.
  • Air suction cups 3220a and 3220b may be interconnected through block units to a source of vacuum.
  • a plurality of valves that may be operated by the PLC and may also include a vacuum generator apparatus such as apparatus 221 in the previous system 100. If a vacuum generator is utilized, pressurized air may be delivered from an external source through vertical support member 3152. The vacuum generator may then convert the pressurized air to a vacuum that can then be delivered to suction cups 3220a, 3220b.
  • magazine 3110 may be raised so that the upper generally horizontally oriented surface of the upper-most blank 3400 is just in contact with, or is a very short distance spaced from (e.g. within 1 ⁇ 4 inch) the bottom surfaces of frame 3123 and mandrel 3121.
  • magazine 31 10 and panel rotating apparatus 3124 may co-operate so that the single blank 3400 from the top of the stack of case blanks may be retrieved from the magazine 3110 and be transferred to the mandrel apparatus 3120.
  • the panel rotating apparatus 3124 may also serve as a transfer mechanism for transferring case blanks in series from the magazine 3110 to the mandrel 3121.
  • panel rotation apparatus 3124 may extend reciprocating piston rod so that the rotating plate 3219 and the suction cups 3220a, 3220b thereon are rotated to be in an orientation that is downward facing.
  • suction cups 3220a, 3220b may engage the upward facing surface of panel 410 of the top blank 3400 in the stack.
  • Panels 420 and 450 of the blank 3400 are at the same time are maintained generally in position up against or proximate the lower surface of support frame 3123 and mandrel side plates 3140a, 3140b. Blank 3400 continues to be supported underneath by physical contact with the upper surface of another underlying blank 400 in the stack.
  • Panel rotating apparatus 3124 may be operated by the PLC to rotate rotating plate 3219 about hinge so that panel 410 may be rotated - preferably
  • panel 410 is rotated relative to panels 420 and 450 from a generally flat and horizontal orientation to a generally vertical and angled orientation, thus forming a generally L-shaped configuration.
  • Vacuum may also be applied to suction cups 3220a, 3220b through operation of PLC 132 during the rotation of the panel 410.
  • the air suction force that may be developed at the outer surfaces of suction cups 3220a, 3220b of panel rotation apparatus 3124 may be sufficient so that panel 410 of a blank 3400 can be rotated from the flat position shown in Figure 23 to an angled configuration.
  • the suction cups 3220a, 3220b associated with panel rotating apparatus plate 3129 may hold panel 410 against the forward facing surfaces of mandrel side plates 3140a, 3140b and the outer surface of 3219a of panel rotating plate 3219 with attached panels 411, 412, 430, 431 , 432, 440, 441 and 442 also generally remaining in a vertical orientation until suction cups 3199a, 3199b of mandrel 3121 are activated by PLC and can then engage panel 410 of blank 3400.
  • suction cups 3199a, 3199b of mandrel 3121 are activated and engage panel 410 of blank 3400, cups 3220a and 3220b of rotation apparatus 3124 can be de-activated.
  • the rotation of panel 410 may also tend to pull that blank upwards and perhaps a very small distance forward, the effect of which may be to free the top blank from the blank beneath it that is still on the stack.
  • the result is that the blank 3400 now held by suction cups 3199a and 3199b, is now capable of being moved forward by the mandrel apparatus 3120 towards the panel folding and guide apparatus 3300.
  • mandrel support and moving apparatus may be used to move mandrel apparatus 3120 longitudinally forward towards panel folding and guide apparatus 3300, thus also moving blank 3400 that is held to mandrel 3121.
  • System 3100 may have the advantage of allowing for faster operation of the case former relative to system 100 shown in Figure 1. This is because as the mandrel apparatus 3120 is being moved longitudinally forward with a first blank to form a case, the panel rotation apparatus 3124 can be rotated to engage the surface of a second blank from the magazine. Once the mandrel apparatus 3120 has moved the first blank through the panel folding and guide apparatus 3300 to form a case and the mandrel apparatus 3120 is reversed to its original position, the panel rotation apparatus 3124 may rotate the front panels of the second blank in an L-shaped configuration around the mandrel 3121. The mandrel 3121 can now move forward longitudinally with the second blank to repeat the process.
  • system 4100 is disclosed.
  • system 4100 is similar in orientation (i.e. vertical) to system 2100, and generally similar in configuration to systems 100, 2100 and 3100.
  • a split head mandrel apparatus 4120 is employed in system 4100.
  • a fixed rotating suction arm may be situated within the head of the mandrel.
  • the panel folding and guide apparatus of system 4100 may include some reciprocating rails so as to, for example, allow for a more compact configuration of the rails. Even further, blanks may be moved in system 4100 towards the folding components by way of a walking rail magazine assembly.
  • system 4100 may include mandrel apparatus 4120, backplate 4700, panel folding and guide apparatus 4300, and magazine rail assembly 4600. Operation of system 4100 may be controlled by a PLC (not shown), similar to PLC 132 ( Figure 1). Magazine rail assembly 4600 may be adapted to suspend a plurality of blanks 4500 (for example, in the form of "DSS-RSC" blanks 500 of Figure 36) in a horizontally stacked and substantially flat orientation. Magazine rail assembly 4600 may, under control of the PLC, move a group 4110 of blanks forwardly towards mandrel apparatus 4120 so that a single case blank 4500 may be retrieved from the group for forming into a case as generally previously described.
  • PLC not shown
  • Magazine rail assembly 4600 may be adapted to suspend a plurality of blanks 4500 (for example, in the form of "DSS-RSC" blanks 500 of Figure 36) in a horizontally stacked and substantially flat orientation. Magazine rail assembly 4600 may, under control of the PLC, move
  • mandrel apparatus 4120 may include components substantially similar to components of mandrel apparatus 120 ( Figure 2), including, mandrel support frame 4125 and mandrel head 4121.
  • mandrel apparatus 4120 may further include horizontal mandrel support member 4152 and vertical mandrel support member 4154 (best seen in Figure 56).
  • Servo drive motor
  • Mandrel apparatus 4120 may also include other components (e.g. a caterpillar device), which components may be substantially similar to components of mandrel apparatus 120 ( Figures 1 and 2) and will therefore not be further described.
  • other components e.g. a caterpillar device
  • Mandrel 4121 may have a split head with spaced portions. As will become apparent, the head portions are spaced so as to leave an aisle within which rotating suction arm 4124 may pass through while mandrel 4121 reciprocates. With reference to Figs. 55 and 56, split mandrel head 4121 has two side members 4121a and 4121b. Each side member has an inwardly directed block 4407a, 4407b with a keyway 4412a, 4412b.
  • Vertical mandrel support member 4154 has two arms: 4154a, 4154b, each provided with a respective key 4146a, 4146b with a quick release pin 4148a, 4148b biased to an extended position in a carrier 4149 and spaced from one end of the key 4146a, 4146b.
  • One end of each block has a corresponding aperture for receiving pins 4148a, 41 8b (not shown).
  • the keyway of each side member 4121a, 4121b of the split mandrel may be slid over the key of a respective arm 4154a, 4154b of the mandrel support member and the quick release pin raised until the aperture of each side member registers with the pin. The pin may then be released so that it engages with the aperture to releasably lock the side member to the support member arm 4154a, 4154b. This arrangement facilitates quick change over of the split mandrel head.
  • the horizontal mandrel support member 4152 terminates in a carriage plate 4133 which is mounted for reciprocal movement to mandrel support frame 4125 (Fig. 45).
  • the carriage plate also supports vacuum fittings 4103 that may be coupled to a vacuum source.
  • Vacuum supply pipes 41 11 connect each vacuum fitting to one of the suction cups 4155a, 4155b.
  • FIG. 46A-46C The process of system 4100 in engaging one blank 4500 of blank group 4110 and rotating a panel of blank 4500 relative to one or more other panels of blank 4500 is explained with reference to Figures 46A-46C.
  • a stationary upper arm 4126 of rotating suction arm 4124 may be fixed to backplate 4700 by passing a screws/bolts through aperture 4130 (Figure 48B) on the backwall 4126c of the arm into corresponding apertures (not shown) in backplate 4700.
  • rotating suction arm 4124 may be translationally fixed relative to support frame 4125, while mandrel head 4121 may travel longitudinally relative to support frame 4125 (as illustrated in Figure 50D).
  • rotating suction arm 4124 may include, in addition to stationary upper arm portion 4126, lower arm portion 4128 and elbow 4132.
  • Lower arm portion 4128 may be fixed to elbow 4132 (by any conventional means).
  • Elbow 4132 in turn may be connected to upper arm portion 4126 by a hinge 4129 to thereby allow lower arm portion 4128 and elbow 4132 to pivot relative to upper arm portion 4126.
  • Lower arm portion may include fixed, outward-facing air suction cups 4220a and 4220b at which a vacuum force may be formed.
  • Elbow 4132 may also include a fixed outward-facing air suction cup 4220c.
  • Air suction cups 4220a, 4220b and 4220c may be connected to a vacuum source in any manner previously described, as, for example, through an air channel or hoses (not shown) within rotating suction arm 4124.
  • upper arm portion 4126 may have a pair of opposed sidewalls 4126a and 4126b joined by a backwall 4126c.
  • the three walls form a channel within which piston device 4202 may be received.
  • Piston device 4202 may be constructed and may operate in a similar fashion to previously described piston device 202 ( Figures 8 and 9).
  • one end of piston device 4202 may be mounted to backwall 4126c by way of piston block 4205 in an identical or substantially similar manner to the mounting of piston device 202 on bottom plate 150c.
  • the opposite end of piston 4202 may be mounted to the inner surface of elbow 4132 by way of a hinge connection 4207.
  • Piston 4202 may include a piston rod 4206 which may be reciprocated between a fully retracted position (shown in Figure 48B) and a fully extended position (shown in Figure 48 A) for pivoting elbow 4132 and attached lower arm 4128 between a generally horizontal (i.e. generally 90 degrees relative to upper arm 4126) and vertical (i.e. generally 180 degrees relative to upper arm 4126) position.
  • the reciprocating motion may be achieved by using a double acting cylinder, which can for example, channel compressed air to two different chambers which in turn provides interchanging extending and retracting forces on piston 4202. Compressed air may be delivered to piston 4202 by hoses (not shown) connected to air inlets 4203a and 4203b.
  • Figure 46 A illustrates system 4100 as it is about to engage the forward-most blank 4500 of blank group 4110.
  • One or more panels of the forward-most blank 4500 may be pressed or held against the back surface of backplate / backstop 4700 (omitted in Figure 46 A for clarity) by the force of the blanks behind it in blank group 4110.
  • mandrel head 4121 is at, or close to, its highest vertical position.
  • Rotating suction arm 4124 may be received within mandrel head 4121 and may be in a fully extended position (i.e.
  • elbow 4132 and lower arm portion 4128 may be rotated 180 degrees relative to upper arm portion 4126); in particular, upper arm portion 4126 may be received between the two sides of the split head of mandrel head 4121 and lower arm portion 4128 may extend downwards from mandrel head 4121.
  • Air suction cups 4220a, 4220b and 4220c may contact lower panel 4510 of blank 4500 (and possibly other panels as well). To create the initial fold, air suction force may be developed and maintained at the outer surfaces of each of suction cups 4220a, 4220b and 4220c so that they engage and hold lower panel 4510 of blank 4500.
  • Elbow 4132 and lower arm portion 4128 of rotating suction arm 4124 may then be rotated, under control of the PLC, from a substantially one hundred eighty (180) degree position to a substantially ninety (90) degree position relative to upper arm portion 4126 ( Figures 46B, 46C), thereby causing lower panel 4510 of blank 4500 to be rotated relative to upper panel 4512.
  • a fold along a fold line in the blank between upper 4512 and lower panel 4510 may be formed as blank 4500 is rotated about the bottom edge of backplate 4700 and mandrel 4121.
  • an air suction cup (4155a and 4155b) may be fixedly mounted on the bottom surface of each side of vertical mandrel support member 4154 (or on the bottom surface of each side of split mandrel head 4121).
  • a vacuum force may be developed at air suction cups 4155a and 4155b to engage and hold panel 4510 against the bottom surface of mandrel head 4121.
  • the vacuum force at air suction cups 4220a, 4220b and 4220c on rotating suction arm 4124 may be discontinued.
  • rotating suction arm 4124 may include a rotary encoder (not shown) which may provide position feedback to the PLC.
  • a signal may be sent to the PLC to trigger the generation of a vacuum force at air suction cups 4155a and 4155b in preparation for engaging panel 4510.
  • a signal may be sent to the PLC to trigger discontinuance of the vacuum force at air suction cups 4220a, 4220b and 4220c in preparation for disengagement of panel 4510 from rotating suction arm 4124.
  • the same signal may initiate downward movement of mandrel head 4121.
  • the endmost panel 4510 of blank 4500 is gripped. This is a consequence of the length of the lower arm 4128 of the rotating suction arm 4124. Because of this, the endmost panels of the blank 4500 are controlled as the blank is folded into the L-shaped configuration of Fig. 50B and therefore are restrained from oscillating.
  • Figure 47 is a bottom perspective view illustrating the position of mandrel head 4121 just prior to its descent.
  • the vacuum force at air suction cups 4155a and 4155b may be maintained to hold panel 4510 against the bottom surface of mandrel head 4121 during its descent.
  • the vacuum force at air suction cups 4220a, 4220b, and 4220c may be discontinued, facilitating disengagement of lower blank panel 4510 from rotating suction arm 4124 as mandrel 4124 is driven downwards towards panel folding and guide apparatus 4300 (not shown in Figure 47).
  • suction cups 4155a and 4155b may be required to maintain engagement between panel 4510 and the bottom surface of mandrel 4124.
  • air suction cups 4155a, 4155b may be omitted.
  • panel folding and guide apparatus includes a plurality of rails that are configured and positioned to engage and fold various panels of a blank 4500. While the particular configuration of the rails of apparatus 4300 may differ from the configuration of the panel folding rails previously described in systems 100, 2100 and 3100, the general operation is similar. Specifically, blank 4500 may be driven by mandrel head 4121 through apparatus 4300 to form blank 4500 into a case. However, advantageously, certain rails of apparatus 4300 may be reciprocated so as to allow for a more compact (in the vertical direction) configuration of the rails, as further explained below.
  • Figure 49A is a perspective view of panel folding and guide apparatus 4300 and Figure 49C is a perspective view of the opposite of side of apparatus 4300.
  • Figure 49B is a more detailed view of reciprocating rail assembly 4310a, 4310b.
  • apparatus 4300 may include a pair of opposed reciprocating rail assemblies 4310a, 4310b.
  • Apparatus 4300 may further include a pair of compression rails 4314a, 4314b, a pair of compression rails 4315a, 4315b, a pair of opposed compression rails 4316a, 4316b and a pair of opposed compression rails 4320a, 4320b.
  • Apparatus 4300 may also include a pair of folding ploughs 4328a, 4328b, which are part of reciprocating rail assembly 4310a, 4310b, and another pair of lower folding ploughs 4324a, 4324b.
  • the folding ploughs of apparatus 4300 may engage a panel of a being-formed blank (e.g.
  • the compression rails of apparatus 4300 may compress certain panels of a being-formed blank, for example, thus applying pressure to the panels to promote adhesion of those panels to each other.
  • the folding ploughs and compression rails may be fixedly (but adjustably) mounted on apparatus 4300.
  • opposed compression rail 4320a may be fixedly mounted to compression rail mounting block 4345 by way of a pair of compression rail mounting rods 4318.
  • each end of each of mounting rods 4318 may be received in a corresponding aperture in compression rail 4320 and mounting block 4345, respectively.
  • a plough may be fixedly mounted to apparatus 4300 in the manner of, for example, plough 4324a.
  • one end of plough mounting rod 4346 may be received in an aperture in plough 4324a and the opposite end in an aperture in plough mounting block 4321a.
  • Other manners of mounting known to those of ordinary skill in the art may also be employed.
  • apparatus 4300 may undergo reciprocating movement, namely, reciprocating rail assembly 4310a, 4310b and the pair of compression rails 4316a, 4316b. Operation of reciprocating rail assembly 4300 will first be described.
  • Reciprocating rail assembly 4310a may be similarly constructed. Specifically, rail assembly 4310a, 4310b may include folding rails 4336b and 4325b and folding plough
  • Rail assembly 4310b may further include components for applying glue/adhesive to certain panels of being-formed blank 4500 as it passes through rail assembly 4310a, 4310b.
  • Rail assembly may include glue gun mounting plate 4335b to which a glue gun 4343b and a glue gun nozzle 4344b may be mounted.
  • High temperature tubing 4342 may be fitted into glue gun 4343a, 4343b using push-in fittings 4305 (e.g. a Festo QSF-F-G1/8-6 #533856 pneumatic connection). The opposite end of tubing 4342 may be fitted into fitting 4309 (e.g.
  • the glue gun has a delivery tube to deliver a flow of heated adhesive/glue to glue applicator nozzle 4344b.
  • the glue delivery tube may be insulated and may contain a heating element to maintain the glue at a certain heated temperature throughout the length of glue delivery tube. In this manner, liquefied glue at the appropriate temperature may be delivered to, and dispensed from, glue applicator nozzle 4344b.
  • An example of a suitable applicator system that can be employed is the NordsonTM ProBlue 4 adhesive system.
  • An example of a suitable adhesive that could be employed is Cool-Lok adhesive made by Nacan Products Limited.
  • rail assembly 4310a, 4310b may be reciprocated transversely relative to the direction of travel of mandrel 4120.
  • rail assembly 4310a and 4310b may be reciprocated in opposed transverse directions - i.e., rail assemblies 4310a and 4310b may travel towards and away from each other.
  • Reciprocal motion of rail assemblies 4310a, 4310b may be driven by cylinder 4306 ( Figure 49A) which may be, for example, a Festo DGC-25-175-KF-PPV-A cylinder, by mounting rail assembly 4310a, 4310b to base plate 4327, which may in turn be mounted to the cylinder head of cylinder 4306 in a conventional fashion (shown in Figure 49B).
  • Cylinder 4306 may be driven under the control of the PLC. In this manner, rail assembly 4310a, 4310b may be reciprocated between the two end positions of cylinder 4306. Rail assemblies 4310a, 4310b may be considered to be in a closed configuration when they are in the configuration shown in Figures 49A and in an open configuration when they are at the opposite extreme position of cylinders 4306 (see, for example, Figure 44).
  • Lower compression rails 4316a and 4316b may also be reciprocated transversely relative to the direction of travel of mandrel apparatus 4120. Like rail assembly 4310a, 4310b, compression rails 4316a and 4316b may be reciprocated in opposed transverse directions - i.e., compression rails 4316a and 4316b may travel towards and away from each other. Reciprocal motion of compression rails 4316 may be achieved by mounting each of the rails to a cylinder 4304 (e.g., a Festo DFM-32-20-P-A- GF cylinder) in a conventional fashion.
  • a cylinder 4304 e.g., a Festo DFM-32-20-P-A- GF cylinder
  • stroke length of cylinders 4304 may be much shorter compared to the stroke length of cylinder 4306 as compression rails 4316 may be reciprocated over a lesser distance than rail assemblies 4310a, 4310b. Cylinder 4304 may be driven under control of the PLC.
  • FIG. 50A mandrel apparatus 4120 and rotating suction arm 4124 are shown in ready position to pick up a blank 4500.
  • mandrel head 4121 may be in it uppermost (or close to) raised position and reciprocating rail assemblies 4310a, 4310b may be in an open position.
  • This allows lower panel 4510 of blank 4500 to be rotated upwards unimpeded through the space between rail assemblies 4310a, 4310b, as rails assemblies 4310a, 4310b are outside the outer margins of blank 4500.
  • rail assemblies 4310a, 4310b were placed in a closed configuration (i.e.
  • rotating suction arm 4124 has engaged lower panel 4510 of blank 4500 and has rotated it into a substantially 90 degree position (in the manner previously described).
  • mandrel head 4121 may still remain in a raised position and reciprocating rails 4310a, 4310b may still be in the open position.
  • suction arm 4124 has released lower panel 4510 of blank 4500, and mandrel head 4121 has engaged blank 4500 and has begun driving blank 4500 through reciprocating rail assemblies 4310a, 4310b.
  • rail assemblies 4310a, 4310b have moved into the closed position.
  • folding rails 4325 and folding plough(s) 4328 engage and fold lower panel 4510 of blank 4500.
  • folding rail 4336 may engage and fold side panel 511 of blank 4500.
  • glue guns 4343 may apply adhesive/glue to panels of blank 4500 that are desired to be glued together (adhesive application not shown). Each glue gun applies a line of adhesive to one or more selected panels of the blank as the panels, move past the glue gun.
  • mandrel head 4121 may reciprocate at high speeds; therefore, a degree of precision is required to ensure that adhesive is applied to the proper panels of blank 4500
  • servo drive motor 4170 which drives belt 4178 that in turn controls movement of mandrel head 4121
  • a rotary encoder (not shown) that provides position feedback to the PLC.
  • the PLC may trigger the dispensing of adhesive from glue gun 4343 to apply adhesive to a panel as it passes by. More specifically, since adhesive application may be a time-sensitive function, the adhesive application process may be run by a special independent routine of the PLC.
  • glue may be applied on the fly to selected panels of blank 4500 as blank 4500 is continuously conveyed through rail assemblies 4310a, 4310b. Downstream of the glue guns, ploughs fold each panel to which glue has been applied against another panel (or fold the other panel against the panel to which glue has been applied) and hold the panels together so that the glue has time to at least partially set before the formed carton is dispensed from the panel folding and guide apparatus 4300.
  • mandrel head 4121 has driven blank 4500 all the way through panel folding and guide apparatus 4300 into a formed case 4530.
  • mandrel head 4121 drives blank 4500 through the lower portion of rail apparatus 4300, folding plough 4328, and compression rails 4314 and 4315 may engage, fold and compress panels of blank 4500 in the manner previously described.
  • adhesive may have been previously applied to certain overlapping panels and compression rails 4314 and 4315 may apply pressure to these overlapping panels to promote their adhesion to each other.
  • mandrel head 4121 may have reached its lowest (or close to lowest) position.
  • reciprocating rail assemblies 4310a, 4310b may retract into the open position and rotating suction arm 4124 may be rotated back to a vertical position ready for engaging the next blank 4501 in the magazine.
  • mandrel head 4121 may return to the starting configuration illustrated in Figure 50A. In order to do so, however, mandrel head 4121 must first disengage from formed case 4530.
  • vacuum force at suction cups 41 5 may be discontinued as a result of a signal provided by the rotary encoder on servo motor 4170 to the PLC, and likewise reciprocating compression rails 4316 may be moved slightly towards each other in order to compress the abutting sides of formed case 4316.
  • This allows case 4530 to be gripped (i.e. momentarily held in place) as mandrel head 4121 disengages.
  • compression rails 4316 may be moved away from each other thus releasing formed case 4530 (onto, for example, a case collecting conveyor (not shown)).
  • magazine rail assembly 4600 may hold a group of blanks 4110.
  • the upper panels of forward-most blank 4500 may be proximate to, or may be pressed against the surface of backplate 4700 (backplate 4700 is not shown in Figure 51 for clarity) to be engaged by rotating arm 4124 in the manner previously described.
  • a group of blanks 4110 may be moved towards mandrel apparatus 4120 by magazine rail assembly 4600.
  • Magazine rail assembly 4600 may generally include a pair of stationary rails / beams 4657, a pair of walking rails / beams 4658(each driven by a motor 4667) and side guides 4628.
  • Figures 52A, 52C and 52E are back elevation views of magazine rail assembly 4600 (with some parts omitted for clarity).
  • Figures 52B, 52D and 52F are side elevation views of magazine rail assembly 4600.
  • Figures 52B, 52D and 52F show two groups of blanks 41 10a and 4110b.
  • a group of blanks 4500 (flattened and oriented vertically) 4110 may be hung from stationary rail 4657.
  • a blank 4500 may have a rectangular shaped notch extending from the bottom flap up to the top flap into which triangular flaps 511 may partially extend.
  • Stationary rail 4657 may partially extend into the notch such that the bottom edge of the top panel 4505 of a blank 4500 may rest upon the top surface of stationary rail 4657. In this manner, a group of blanks 4500 may be hung on stationary rails 4657.
  • Walking rails 4658 at all times remain stationary during the walking motion.
  • Walking rails 4658 may remain horizontal but may be moved upward, forward, backward and downward along an elliptical path (under control of , for example, the PLC).
  • walking rails 4658 are raised relative to stationary rails 4657 to engage the blanks of group 4110b. Once raised, walking rails 4658 move forwardly and downwardly along the elliptical path, thus also moving group of blanks 41 10b forwardly and downwardly. However, when walking rail 4658 is lowered to below a height equal to the height of stationary rails 4657, the group of blanks 41 10b may make contact with the top surface of stationary rails 4657 and further travel of blanks 4110b is stopped.
  • walking rails 4658 may continue to complete one revolution of its elliptical path, once group of blanks 41 10b are lowered and make contact with stationary rails 4657, its forward travel is stopped and they again hang from stationary rails 4657, however, now at a closer proximity to group 4110a.
  • walking rails 4658 may be about to engage group of blanks 4110b.
  • group of blanks 41 10a and 4110b are separated by a distance x.
  • FIG 52C and corresponding Figure 52D walking rails 4658 have been raised relative to stationary rails 4657.
  • blanks 41 10b are raised (i.e. lifted) off stationary rails 4657 and are hung only on walking rails 4658.
  • Figure 52D illustrates that group 4110b of blanks are raised relative to group 4110a of blanks.
  • walking rails 4658 have moved forwardly and is moving downwardly. Specifically, walking rails 4657 have been lowered relative to stationary rails 4657 and have disengaged from blanks 41 10b. Blanks 41 10b are again supported only by stationary rails 4657. However, as may be seen in Figure 52F, group of blanks 41 10b have been moved forward, closer to group of blanks 41 10a (a distance which is less than distance x).
  • groups of blanks may be "walked” forwardly towards mandrel apparatus 4120 for formation into cases. It may be appreciated that a continual forward “walking” of blanks may be achieved by continuously driving walking rails 4658 whereas intermittent forward “stepping” of blanks may be achieved by intermittently driving walking rails 4658, as desired.
  • Figure 53 is a partial cutaway view of one side of magazine assembly 4600 showing construction of walking rail 4658 and stationary rail 4657.
  • the rail assemblies may be mounted to magazine side guides 4628 by way of mounting bars 4671.
  • stationary rail 4657 may be formed from a longitudinally extending single piece of thin metal. The single piece may be folded upwards along the longitudinal axis to form an upwardly extending rail sidewall (4657b) that may be substantially orthogonal to the rail base (4657a).
  • a further longitudinal fold may be made to form a ledge (4657c) extending diagonally (about 45 degrees) outwards from the top of sidewall 4657b.
  • a last longitudinal fold may be made to form a lip 4657d at the end of the ledge 4657c. Lip 4657d may form the upper surface of stationary rail 4657 upon which groups of blanks may be hung, as previously described.
  • Longitudinally extending walking rail 4658 may be mounted to the upper surface of a longitudinally extending crank beam 4666 by way of several mounting spacers 4676 (four mounting spacers shown in Figure 53).
  • walking rail 4658 may have a tapered nose 4659 at each end. As best seen in Figure 52F, the tapering of nose 4659 may prevent the forward end of walking rail 4658 from impacting (or may lessen any impact) and possibly deforming the lower edge(s) 4505 of the upper panel(s) of group of blanks 41 10A.
  • Longitudinally extending beam holding bar 4663 may be mounted opposite to and spaced apart from crank beam 4666.
  • Crank assembly 4680 used to drive motion of walking rail 4658, may extend through beam holding bar 4663 and crank beam 4666 (see Figure 53) and may be bolted into sidewall 4657b of stationary rail 4657.
  • Walking rail motor 4667 for driving crank assembly 4680 may be mounted to cover 4670 which may in turn be mounted to beam holding bar 4663, in a conventional manner.
  • Crank assembly 4680 may include a sprocket 4668 (e.g. a 40BS 16 0.625 bore 3/16 KW sprocket made by Brance-Krachy) connected to ball bearing 4661 (e.g. ball bearing 164 IDC lx 2x 0.563 made by Nice SKF) by a shaft (unnumbered).
  • Crank arm 4660 e.g. machined cam surface that produces an elliptical path
  • Ball bearing 4664 may be mounted to sidewall 4657b by shoulder bolt 4674.
  • Sprockets 4668 may be connected by a chain (not shown).
  • Motor 4667 may drive the chain thus causing sprockets 4668 to rotate.
  • Rotational motion of sprocket 4668 may be transmitted to crank arm 4660, which may, in turn, drive walking rail 4657 along an elliptical path defined by the rotation of crank arm 4660, thus imparting reciprocating motion to walking rail 4657.
  • system 4100 has been described as adapted to form DSS-RSC cases, it should be appreciated that system 4100 may be readily adapted to accommodate case blanks other than DSS-RSC blanks.
  • mandrel head 4121 may be specifically adapted to form RSS-DSC cases, it may be appreciated that another mandrel head may be adapted to form a different sized / shaped case from different configured blanks.
  • the quick release pin connection connecting mandrel head 4121 to mandrel support member 4154 may allow for quick interchange of mandrel heads in system 4100.
  • backplate 4700 may be adapted to accommodate different sized
  • Figure 54A is a perspective view of the side of backplate 4700 that contacts the front-most blank in magazine 4110.
  • Figure 54B is a perspective view of the opposite side of backplate 4700, i.e., the side that faces mandrel apparatus 4120.
  • Backplate 4700 may comprise a carton datum plate 4717 (Figure 54B).
  • the shape of carton datum plate 4717 may be specifically adapted to cooperate with a particular mandrel head (see Figure 44) and hence may be specifically adapted to a particular sized and shaped blank.
  • Carton datum plate may thus be interchangeable to accommodate different types of blanks.
  • Backplate 4700 may further include a pair of opposed adjustable blank support blocks 4709 and blank guides 4719. Specifically, the distance between the blank support blocks/guides may be translationally adjustable by way of crank mechanism 4711 to accommodate different sized blanks and secured into position by pinning (or likewise) blank guides 4719 to a corresponding hole in rail 4701.
  • magazine assembly 4600 and in particular, stationary rails 4657 and walking rails 4658 may be transversely and vertically adjustable to accommodate different sized blanks and blank configurations and in particular, to position magazine assembly 4600 in conjunction with backplate 4700 to allow folds to be created along crease lines of differently sized / shaped blanks.
  • the rails and ploughs in panel folding and guide apparatus 4300 may be adjustable to adapt apparatus 4300 to different sized / shaped blanks.
  • some of rails / ploughs of apparatus 4300 may be adjustably connected to a support frame of system 4100 (not shown) by adjustment means known to those of ordinary skill in the art (e.g. slide mechanisms, hydraulic adjustment mechanisms) to allow for gross position adjustments.
  • Certain components may be more finely adjusted.
  • certain rails / ploughs may be adjustably connected to supporting components of apparatus 4300 by way of a ratchet mechanism, e.g. ratchet 430 which may be used to adjust the position of plough 4346.
  • a ratchet mechanism e.g. ratchet 430 which may be used to adjust the position of plough 4346.
  • all above-described manual adjustments may be actuated using servos and like devices pre-programmed for specific carton sizes.

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  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • Making Paper Articles (AREA)

Abstract

L'invention concerne une boîte en carton constituée d'un matériau ondulé, présentant un panneau de base généralement plat s'étendant transversalement et un premier et un second panneau de paroi latérale, généralement parallèles, s'étendant transversalement à la verticale à partir du panneau de base et généralement orientés perpendiculairement audit panneau. Le premier et le troisième panneau de paroi d'extrémité se rejoignent au niveau d'une jointure s'étendant verticalement vers le haut à partir d'une extrémité du panneau de base et le deuxième et le quatrième panneau de paroi d'extrémité se rejoignent au niveau d'une seconde jointure s'étendant verticalement vers le haut à partir de l'extrémité opposée du panneau de base. L'invention concerne également un carton pliant servant à former ladite boîte. L'invention concerne également un procédé qui consiste à : former un panneau de fibres ondulé ; faire fonctionner un appareil emporte-pièce pour former un carton pour boîte généralement plat à partir du panneau de fibres ondulé en un premier emplacement ; transporter le carton pour boîte plat en un second emplacement ; faire fonctionner un appareil de formage de boîtes au second emplacement pour plier le carton pour boîte et former la boîte ; faire fonctionner, une fois la boîte formée par l'appareil de formage de boîtes, un appareil de chargement pour charger au moins un article dans la boîte ; et fermer les côtés supérieurs opposés.
PCT/CA2010/001948 2009-12-08 2010-12-08 Procédé et appareil permettant de former des contenants avec un matériau ondulé WO2011069254A1 (fr)

Applications Claiming Priority (2)

Application Number Priority Date Filing Date Title
US12/633,412 2009-12-08
US12/633,412 US8671654B2 (en) 2008-09-12 2009-12-08 Method and system for forming containers with corrugated material

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WO2011069254A1 true WO2011069254A1 (fr) 2011-06-16

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US20100263333A1 (en) 2010-10-21
US8671654B2 (en) 2014-03-18

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