Photographic negative storage system and method and apparatus for the manufacture thereof

Abstract: When photographic film has been processed and printed, the photographer receives a set of prints and negatives in an envelope. However, because negatives are susceptible to scratching and contamination from dust, dirt and/or fingerprints, the quality of reprints and/or enlargements made from damaged negatives is reduced. Described herein is a method and apparatus which uses heat to bond a polyethylene sleeve (9, 21, 22) having pockets (21, 22) which contain negative strips (13, 14) to the non-image bearing surface (11) of a photographic paper (10) coated with a layer of polyethylene (12). A positive image or index print of the information stored on each negative strip (13, 14) appears on the image bearing surface (24) of the photographic pape (10) aligned with the correct negative strip (13, 14). Each pocket (21, 22) is formed by heating portions (15, 16, 17) of the sleeve material (9) to bond it to the non-image bearing surface (11, 12) with the negative strip (13, 14) in place.

Description: This invention relates generally to the field of photofinishing and particularly to a system and method for storing photographic negatives on the back surface of a photographic index print. Most photographs are produced by: exposing a film to light; developing the film to produce a negative; and processing (printing) the negative to produce a photographic print. The dark areas in the negative allow little light to pass so that the tones in the print appear light as they did in the original scene. Also the negatives from most color films have an overall orange color, and are smaller than the print. Thus, even when the negatives and prints for one or more processed rolls of film are together, it is difficult for an amateur photographer who is not trained to view photographic negatives to determine the negative which was used to produce a specific print. An amateur photographer may receive the negatives and prints for one or more rolls of processed film in an envelope having two compartments. The negatives are usually placed in one compartment and the prints are usually placed in the other compartment. Some of the prints may be: given away; placed in a photo album; framed; or become separated from the negatives. The envelopes maybe haphazardly thrown in a box and mixed with other envelopes in the box. Thus, when someone wants to order reprints or enlargements of one or more prints it may be difficult to locate the negatives which correspond to the prints that they want to order. When the prints and negatives are packaged together in an envelope, the negatives are susceptible to scratching and contamination from dust, dirt and/or fingerprints because the envelope does not provide a damage-free environment for the negatives. The various forms of negative damage mentioned above will reduce the quality of the reprints and enlargements which are made from the negatives. Sometimes an amateur photographer places the negatives in wax or plastic sleeves to protect and store the negatives and accidentally damages the negatives as they are inserted into the sleeves. Furthermore, the above procedure is time consuming. US-A-5 031 773 discloses a photographic image set which includes an index print which is integrally stored with the associated negative strips to provide a convenient single storage and retrieval system. A translucent layer of glue, double stick tape, or any conventional adhesive is used for laminating a sleeve or holder for the negatives to the index print. While the disclosed holder for storing a photographic image set has proved to be highly satisfactory, the tape or adhesive increases the cost of the sleeving material and conventional cutting and sleeving equipment cannot be used with the adhesive backed sleeves without significant modifications. In addition, after use, the clear plastic adhesive cover sheet must be disposed of. In accordance with one aspect of the present invention, there is provided a method of manufacturing a photographic negative storage device comprising the steps of:- a) inserting one or more negative strips in clear sleeving material; b) producing a positive image of each negative Strip on an image-bearing surface of photographic paper; and c) placing the sleeving material on the non-image bearing surface of the photographic paper; characterized in that the non-image bearing surface of the photographic paper is coated with a layer of polyethylene, the sleeving material being heat-bondable, and in that portions of the sleeving material are heated to bond them to the non-image bearing surface of the photographic paper. In accordance with a second aspect of the present invention, there is provided a photographic negative storage device for storing at least one negative strip, the device comprising a photographic paper having an image-bearing surface carrying a positive image of each negative strip, and a non-image bearing surface, each negative Strip being stored in clear sleeving material affixed to the non-image bearing surface, characterized in that the non-image bearing surface of the photographic paper is coated with a layer of polyethylene, the sleeving material being heat-bondable, and in that portions of the sleeving material are adapted to be heated to bond them to the non-image bearing surface of the photographic paper. In accordance with a third aspect of the present invention, there is provided apparatus for producing a photographic negative storage device comprising photographic paper having a non-image bearing surface to which is attached sleeving material containing one or more negative strips and an image bearing surface on which an index print image corresponding to each of the negative strips is produced, the apparatus comprising:- a housing; and holding means connected to the housing for holding the sleeving material against the non-image bearing surface of the photographic paper; characterized in that said non-image bearing surface is coated with a layer of polyethylene and the sleeving material is heat-bondable, and in that the apparatus further includes heating means for heating portions of the sleeving material to bond it to the non-image bearing surface of the photographic paper, and in that said portions are not over or in close proximity to the index print image. For a better understanding of the present invention, reference will now be made, by way of example only, to the accompanying drawings in which:- Figure 1 is a perspective diagram showing negative strips in negative sleeving material which is affixed to the back surface of a piece of photographic paper; Figure 2 is a front view of an index print on the front surface of the photographic paper depicted in Figure 2; Figure 3 is a perspective representation of the apparatus of this invention; Figure 4 is a perspective representation of heating means for the apparatus shown in Figure 3; Figure 5 is an enlarged perspective representation of a portion of the apparatus shown in Figure 3; and Figure 6 is a diagram of a pneumatic system and control unit for the apparatus according to the present invention. Referring now to the drawings in detail and more particularly to Figure 1, the reference character 10 represents a piece of conventional color photographic paper, such as Ektacolor Edge. Ektacolor Edge is manufactured by Eastman Kodak Company and during the manufacturing of Ektacolor Edge, the back side of paper 10 which is surface 11 was coated with a clear layer of polyethylene 12. Negative strip 13 contains frames 1 to 4 of a conventional 35mm filmstrip and negative strip 14 contains frames 5 to 8 of a conventional 35mm filmstrip. Negative strips 13 and 14 are placed in pockets 21 and 22 of negative sleeving material 9 via openings 26 and 27. Wall 23 prevents negative strips 13 and 14 from being removed from one end of pockets 21 and 22. Sleeving 9 may be any clear, heat bondable material i.e. polyethylene. Negative sleeving material 9 and negative strips 13 and 14 are placed over layer 12 in such a manner that seams 15, 16 and 17 of sleeve pockets 21 and 22 whose location may respectively be easily determined on the clear negative sleeving material 9 by indicators 18, 19 and 20 will not be over or in close proximity to the area taken by positive image or index prints 30. Index prints 30 appear on surface 24 of photographic paper 10 and will be more fully described with reference to Figure 2. Seams 15, 16 and 17 are affixed to surface 11 by applying heat having a temperature between 138°C and 160°C (280°F and 320°F) for approximately 1 to 3s to seams 15, 16 and 17. The heat will cause seams 15, 16 and 17 to bond to polyethylene layer 12 of surface 11 without damaging negative strips 13 and 14 and index prints 30. Negative strips 13 and 14 will be contained within pockets 21 and 22 of sleeving 9 and sleeving 9 will be affixed to layer 12 of paper 10 so that negative strips 13 and 14, sleeving 9, and index prints 30 will form a carrier and negative storage device which is capable of being moved from one location to another. Figure 2 is a front view of surface 24 of photographic paper 10. Various amateur photographer specific information which represents subject, title, date, photographer name, file no., etc., may be printed by the photofinisher in space 29 and/or the photographer may write all or part of the above information in space 29. A plurality of images 31 to 38 which comprises index print 30 are printed on surface 24. Images 31 to 34 respectively are positives of frames 1 to 4 of negative strip 13 (shown in Figure 1) and images 35 to 38 are positives of frames 5 to 8 of negative strip 14 (shown in Figure 1). Index print 30 is printed in a manner that it will be easy to ascertain that images 31 to 34 are positives of frames 1 to 4 of negative strip 13 and images 35 to 38 are positives of frames 5 to 8 of negative strip 14. Index prints 30 and negative strips 13 and 14 may be stored together as a single unit. Thus, if an amateur photographer wanted reprints or enlargements of one or more of images 35 to 38, the amateur photographer would have to locate paper 10. From index print 30, the amateur photographer would note the frame number of images 31 to 38 which he wanted reprinted or enlarged. Thereupon, the amateur photographer would be able to transmit paper 10 to a photofinisher and request specific reprints and/or enlargements without viewing any negatives. Figure 3 is a perspective representation of the apparatus constructed in accordance with the present invention. Nest 45 is connected to side covers 46 and mounting plate 47 by any conventional fastening means ie. bolts, screws, rivets, (not shown) etc. Nest 45 comprises a translucent stripping actuator 48, which has orifices 49 running from top surface 50 to bottom surface 51 of actuator 48; an actuator 80 which has orifices 81 running from top surface 82 to bottom surface 83 of actuator 80; upper stop 58; lower stop 59; and silicone adhesive bonded polytetrafluoroethylene coated fiberglass tape (PTFE) 52 which is used to insulate nichrome ribbon 70 (which is shown in Figure 4 and described with reference thereto). Negative chute 53 has a lip 54 at one of its ends and a flat surface at its other end. The flat surface of chute 53 is connected to nest 45 by any conventional fastening means (not shown). Hinge arms 55 and silicone foam pad 57 are connected to clamp 56 by conventional fastening means not shown. Pin 60 is connected to hinge arms 55, side plates 61 and bearings 62 so that pad 57 may rotate about pin 60. Back plate 63 and cover 64 are connected to plates 61 by any conventional fastening means not shown. Start actuator assembly buttons 65 are connected to mounting plate 47 by any conventional fastening means (not shown). Foot switch 66 is coupled to control unit 67 which in turn is coupled to the apparatus according to the present invention. Control unit 67 will be more fully described with reference to Figure 6. In the operation of the apparatus of this invention the negative strips 13 and 14 which were placed in pockets 21 and 22 of negative sleeving material 9 (described previously with reference to Figure 1) are positioned by an operator on nest 45 against upper stop 58 and secured in the aforementioned location by the operator's actuation of foot switch 66. The actuation of foot switch 66 causes a vacuum to appear in orifices 49 and 81 which causes sleeving material 9 to be held against upper stop 58. The operation of foot switch 66 will be more fully described with reference to Figure 6. Illumination means 90 ie. light bulbs etc. (described with reference to Figure 6) is positioned below actuator 48 and actuator 80 to illuminate negative strips 13 and 14 so that the operator may determine the information contained in the frames of negative strips 13 and 14. The operator will now compare the images appearing on index print 30 (Figure 2) to the information contained in the frames of negative strips 13 and 14 and check the alignment of the negative. If index print 30 is a correct positive of the information contained in the frames of negative strips 13 and 14, it is positioned by the operator over upper stop 58 and against lower stop 59. Surface 11 of paper 10 will be facing negative strips 13 and 14 and surface 24 of paper 10 ie. the side having index prints 30 will face the operator. If index print 30 is not a correct positive of the information contained in the frames of negative strips 13 and 14, index print 30 will not be positioned over upper stop 58 and against lower stop 59. The operator will try and find the correct print 30. Once the correct index print 30 is positioned over stop 58 and against lower stop 59, the operator depresses start actuator assembly buttons 65. Thereupon, upper clamp 56 rotates about pin 60 until it hits upper stop 58. Clamp 56 causes stop 58 to retract into nest 45. After stop 58 retracts into nest 45, clamp 56 continues to move towards nest 45 until pad 57 of clamp 56 presses index print 30 into negative sleeve 9. At this time control unit 67 will transmit approximately a current of 20A (having a duration of approximately 1 to 3s) to nichrome ribbon 70. At this point the operator may release buttons 65. This current will cause nichrome ribbon 70 to have a temperature between 138°C and 160°C (280°F and 320°F) which will cause polyethylene sleeving 9 to melt into layer 12 of paper 10. After the above current is removed from ribbon 70, pad 57 will remain in contact with index print 30 for approximately 2 to 4s so that the melted portions of sleeving 9 and the melted portions of polyethylene layer 12 will reform into seams 15, 16 and 17 (described with reference to Figure 1). After seams 15, 16 and 17 have formed: upper clamp 56 rotates to an open position about pin 60; the vacuum in orifices 49 and 81 is removed; actuator 48 and actuator 80 pushes sleeving 9 away from tape 52; and paper 10 will fall into chute 53 against chute lip 54. Index prints 30 will be on surface 24 of photographic paper 10 and negative sleeving material 9 (containing respectively negative strips 13 and 14 in pockets 21 and 22) will be bonded to layer 12 of paper 10. Figure 4 is a perspective representation of one of the three nichrome ribbons 70 showing the removal of a portion of PTFE tape 52 from ribbon 70. One end of ribbon 70 is placed in wedge 71 of conductive block 72 and the other end of ribbon 70 is placed in wedge 73 of conductive block 74. The tightening of nuts 75 and 76 respectively couple ribbon 70 to blocks 72 and 74. Wire 77 is connected to block 72 and wire 78 is connected to block 74. Blocks 72 and 74 rest on plate 47 and are covered by side covers 46 as shown in Figure 3. Figure 5 illustrates actuators 48 and 80 in a open position, PTFE tape 52, lower stop 59, covers 46 and illuminating means 90 (negative chute 53 has been removed). Shaft 92 connects air cylinder 91 to actuator 80 and shaft 93 connects actuator 48 to air cylinder 94. When an air stream having a pressure of 414kPa (approximately 60 psi) is transmitted to air cylinders 91 and 94 shafts 92 and 93 will move in the direction indicated by arrow A. Shafts 92 and 93 will respectively move actuators 80 and 48 in the direction indicated by arrow A (from the closed position illustrated in Figure 3 to the open position illustrated in Figure 5). This movement of actuators 80 and 48 will separate negative sleeving 9 (shown in Figure 1) from PTFE tape 52 and cause sleeving 9 (containing respectively negative strips 13 and 14 in pockets 21 and 22) which is bonded to paper 10 and index print 30 (which is on surface 24 of paper 10) to fall into chute 53 (shown in Figure 3). Actuators 48 and 80 are made of a translucent material. Illuminating means 90 illuminates the negative strips 13 and 14 which are contained in sleeving 9 (shown in Figure 1). Thus, when actuators 48 and 80 are in a closed position and before an index print 30 is placed over negative sleeving 9, the operator may view the negative strips contained in sleeving 9 and compare them with index print 30. Figure 6 is a diagram of control unit 67 and pneumatic system 119 of the apparatus according to the present invention. Control unit 67 comprises: programmable logic control (PLC) 103 (PLC 103 is the SLC 150 integrated circuit manufactured by the Allen Bradley Company of Rockwell International); solid state relay 104; triac power control 105; transformer 106; manually adjustable solid state timers 100 and 101; and D.C. power supply 107. One terminal of main power switch 109 is coupled to A.C. power source 108 and the other terminal of switch 109 is connected to illuminating means 90 and D.C. power supply 107. Start buttons 65, foot switch 66 and D.C. power supply 107 are coupled to the inputs of PLC 103. One of the outputs of PLC 103 is connected to the input of solid state timer 100 and the output of timer 100 is coupled to one of the inputs of PLC 103. One of the outputs of PLC 103 is connected to the input of solid state timer 101 and the output of timer 101 is coupled to one of the inputs of PLC 103. One of the outputs of PLC 103 is connected to the input of solid state relay 104 and the output of relay 104 is coupled to the input of triac power control 105. The output of triac 105 is connected to the input of transformer 106. The output of transformer 106 is connected to wire 78 of the first ribbon 70 and wire 77 of the first ribbon 70 is connected to wire 77 of the second ribbon 70. Wire 78 of the second ribbon 70 is connected to wire 78 of the third ribbon 70 and wire 77 of the third ribbon 70 is connected to transformer 106. After the operator places index print 30 over negative sleeving 9 the operator simultaneously depresses start buttons 65. The closing of buttons 65 transmits a new cycle signal to PLC 103. Thereupon, PLC 103: transmits a signal to timer 100 requesting that timer 100 begin its timing cycle; transmits a signal to relay 104; and transmits a signal to pneumatic system 119 requesting that pneumatic system close clamp 56. Relay 104 transmits a signal to triac 105 and triac 105 transmits a current to transformer 106. Transformer 106 adjusts its voltage to supply the correct output current to nichrome ribbons 70 so that ribbons 70 will be at the correct temperature. After timer 100 finishes timing, timer 100 transmits a completed timing signal to PLC 103. Then, PLC 103 transmits a signal to timer 101 requesting that timer 101 begin its timing cycle. PLC 103 also turns off relay 104 so that no current will be supplied to nichrome ribbons 70. Thus, ribbons 70 will not generate any additional heat. After timer 101 finishes timing, timer 101 transmits a completed timing signal to PLC 103. Then, PLC 103 informs pneumatic system 119 that clamp 56 may be opened, since the melted portions of sleeving 9 and the melted portions of layer 12 had enough time to cool and reform into seams 15, 16 and 17. Pneumatic system 119 comprises: Pneumatic valves 120; compressed air source 121; tubes 118, 126, 129, and 130; shafts 92 and 93; air cylinder 125; orifices 49 and 81; and venturi vacuum generator 128. Source 121 supplies compressed air to valves 120. Valves 120 include valves a, b, and c. Wire 110 electrically couples valve a with PLC 103 and wire 111 electrically couples valve b with PLC 103. Wire 112 electrically couples valve c with PLC 103. Tube 118 connects valve a to shafts 92 and 93 and tube 126 connects air cylinder 125 to valve b. Cylinder 125 is coupled to toggle link mechanism 127 and toggle link mechanism 127 is coupled to hinge arms 46. After the operator positions negative sleeving material 9 against upper stop 58, foot switch 66 is depressed. The closing of switch 66 transmits a signal to PLC 103. Then, PLC 103 transmits a open valve signal to valve c via wire 112. The opening of valve c causes compressed air from air source 121 to be transmitted to venturi vacuum generator 128 via tube 129. Generator 128 establishes a vacuum in tubes 130 and in orifices 49 and 81. The aforementioned vacuum causes sleeving material 9 to be held against upper stop 58 (Figure 3). Once PLC 103 receives its new cycle signal, PLC 103 transmits a open valve signal to valve b via wire 111. The opening of valve b causes compressed air from air source 121 to be transmitted to air cylinder 125 via tube 126. Cylinder 126 activates toggle link mechanism 127 and toggle link mechanism 127 causes hinge arm 46 to rotate about pin 60 and bearings 62 closing clamp 56. After PLC 103 receives the completed timing signal from timer 101, PLC 103 transmits a close valve signal to valve b via wire 111. The closing of valve b prevents the transmission of compressed air from source 121 to cylinder 125, which causes clamp 56 to open. At this juncture PLC 103 transmits a open valve signal to valve a via wire 110. The opening of valve a causes compressed air from air source 121 to be transmitted to shafts 92 and 93 via tube 118. Shafts 92 and 93 will respectively move actuators 80 and 48 (Figure 5) to an open position causing negative sleeving material 9 to separate from PTFE tape 52. Tube 129 connects valve c to venturi vacuum generator 128 and tubes 130 connect generator 128 to orifices 130. The above specification describes a new and improved photographic negative storage device. It is intended that this invention be limited only by the scope of the appended claims.

Claims: A method of manufacturing a photographic negative storage device comprising the steps of:- a) inserting one or more negative strips (13, 14) in clear sleeving material (9, 21, 22); b) producing a positive image (30, 31, 32, 33, 34, 35, 36, 37, 38) of each negative strip (13, 14) on an image-bearing surface (24) of photographic paper (10); and c) placing the sleeving material (9, 21, 22) on the non-image bearing surface (11, 12) of the photographic paper (10); characterized in that the non-image bearing surface (11) of the photographic paper (10) is coated with a layer (12) of polyethylene, the sleeving material (9, 21, 22) being heat-bondable, and in that portions (15, 16, 17) of the sleeving material (9, 21, 22) are heated to bond them to the non-image bearing surface (11, 12) of the photographic paper (10). A method according to claim 1, wherein the heat-bondable sleeving material (9, 21, 22) is made from polyethylene. A method according to claim 1 or 2, wherein the sleeving material (9, 21, 22) is placed on the non-image bearing surface (11, 12) of the photographic paper (10) such that areas (15, 16, 17) of the sleeving material (9) to be heated are not over or in close proximity to the positive image (30, 31, 32, 33, 34, 35, 36, 37, 38). A method according to any one of the preceding claims, wherein other information (29) is printed on the image bearing surface (24) of the photographic paper (10). A photographic negative storage device for storing at least one negative strip (13, 14), the device comprising a photographic paper (10) having an image-bearing surface (24) carrying a positive image (30, 31, 32, 33, 34, 35, 36, 37, 38) of each negative strip (13, 14), and a non-image bearing surface (11, 12), each negative Strip (13, 14) being stored in clear sleeving material (9, 21, 22) affixed to the non-image bearing surface (11, 12), characterized in that the non-image bearing surface (11) of the photographic paper (10) is coated with a layer (12) of polyethylene, the sleeving material (9, 21, 22) being heat-bondable, and in that portions (15, 16, 17) of the sleeving material (9, 21, 22) are adapted to be heated to bond them to the non-image bearing surface (11, 12) of the photographic paper (10). Apparatus for producing a photographic negative storage device comprising photographic paper (10) having a non-image bearing surface (11) to which is attached sleeving material (9, 21, 22) containing one or more negative strips (13, 14) and an image bearing surface (24) on which an index print image (30, 31, 32, 33, 34, 35, 36, 37, 38) corresponding to each of the negative strips (13, 14) is produced, the apparatus comprising:- a housing (45, 46, 47); and holding means (48, 49, 55, 56, 58, 59, 80, 82) connected to the housing (45, 46, 47) for holding the sleeving material (9, 21, 22) against the non-image bearing surface (11, 12) of the photographic paper (10); characterized in that said non-image bearing surface (11) is coated with a layer (12) of polyethylene and the sleeving material (9, 21, 22) is heat-bondable, and in that the apparatus further includes heating means (52, 70) for heating portions (15, 16, 17) of the sleeving material (9, 21, 22) to bond it to the non-image bearing surface (11, 12) of the photographic paper (10), and in that said portions (15, 16, 17) are not over or in close proximity to the index print image (30, 31, 32, 33, 34, 35, 36, 37, 38). Apparatus according to claim 6, wherein the holding means (48, 49, 55, 56, 58, 59, 80, 82) comprises:- at least one translucent actuator (48, 80) for supporting the sleeving material (9, 21, 22) at its top surface, each actuator (48, 80) having at least one orifice (49, 81) running therethrough; clamping means (56, 57) for clamping the photographic paper (10) in contact with the sleeving material (9, 21, 22); vacuum producing means (91, 92, 93, 94) connected to each orifice (49, 81) for establishing a vacuum at the top surface of each actuator (48, 80) to hold the sleeving material (9, 21, 22) against its top surface and for removing the vacuum to release the bonded sleeving material (9, 21, 22) and photographic paper (10) therefrom; and movement control means (119) for controlling the movement of each actuator (48, 80) from a first position in which the sleeving material (9, 21, 22) and photographic paper (10) is in contact with the heating means (52, 70) to a second position in which the sleeving material (9, 21, 22) and photographic paper (10) is not in contact with the heating means (52, 70). Apparatus according to claim 6 or 7, further including illumination means (90) for illuminating the negative Strips (13, 14) contained in the sleeving material (9, 21, 22) to determine correlation between the negative strips (13, 14) and the index print image (30, 31, 32, 33, 34, 35, 36, 37, 38) on the image bearing surface (24) and correct alignment therewith prior to the application of the heating means (52, 70). Apparatus according to claim 7, wherein the movement control means (119) comprises a controllable gas source (121), and a cylinder (125) coupled to the gas source (121) and each actuator (48, 80), the cylinder (125) moving each actuator (48, 80) as gas is supplied thereto. Apparatus according to any one of claims 6 to 9, wherein the heating means (52, 70) comprises a source of electrical resistance (70) which emits heat when a current is passed therethrough. Apparatus according to claim 10, wherein the source (70) is a nichrome ribbon. Apparatus according to claim 11, wherein the nichrome ribbon (70) is covered by an insulating layer (52) of polytetrafluoroethylene. Apparatus according to claim 7, further including control means (67) for controlling the heat produced by the heating means (52, 70) and duration of operation of each actuator (48, 80) through the movement control means (119). Apparatus according to claim 13, wherein the control means (67) comprises:- a first manually adjustable timer (100) for determining the time that heat is applied to the sleeving material (9) from the heating means (52, 70); a second manually adjustable timer (101) for determining the time that the movement control means (119) operates each actuator (48, 80); and a programmable logic control circuit (103) which is coupled to the first and second timers (100, 101), the heating means (52, 70) and the movement control means (119) for controlling operation thereof.

Inventors: BALDWIN CHARLES L, HARTZ BRUCE E, KOWALSKI JOHN M, MANICO JOSEPH A, SMELKER KATHERINE M, BALDWIN, CHARLES L., HARTZ, BRUCE E., KOWALSKI, JOHN M., MANICO, JOSEPH A., SMELKER, KATHERINE M., Baldwin, Charles L., c/o EASTMAN KODAK COMPANY, Hartz, Bruce E., c/o EASTMAN KODAK COMPANY, Kowalski, John M., c/o EASTMAN KODAK COMPANY, Manico, Joseph A., c/o EASTMAN KODAK COMPANY, Smelker, Katherine M., c/o EASTMAN KODAK COMPANY
Applicants: EASTMAN KODAK CO, EASTMAN KODAK COMPANY
Application year: 1992
Main classification: B42F5
IPC codes: B42F5, B29C65, B65D30, G03D15