IP Library Granted Patent US 12,319,079
Granted Patent B1
US 12,319,079 · App. 18/670,091 · Granted Jun 3, 2025

Dynamic mismatch correction system and method for book binding machines

Inventors: Zoran Belevski (LaVergne, TN); Joshua Sanders (LaVergne, TN); Danny Howell (LaVergne, TN); John Kwiatkowski (LaVergne, TN); Kenneth McDonald (LaVergne, TN); Joel Brawner (LaVergne, TN); Kevin Smith (LaVergne, TN)
Assignee: Lightning Source LLC
B42C19/08B42C11/02B42C11/04
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Quick Facts
Patent No.
US 12,319,079
App. No.
18/670,091
Granted
Jun 3, 2025
Kind
B1
Abstract

Systems and methods are provided for automatically correcting book portion mismatches in a book binding operation. First sensor outputs relate to a first book portion sequence along a first assembly channel, and second book portion sequence along a second assembly channel, each leading into a book binding stage. A mismatch state between first and second book portions is predicted based on the respective sequences and a defined book assembly batch, responsive to which an intervention event is selected and executed. One such intervention event includes selective routing of the first and/or second book portion associated with predicted mismatch states into a correction channel and reinsertion of the first and/or second book portion into the respective assembly channel corresponding to a modified version of the respective sequence. In some embodiments, a further sensor may be provided at the book binding stage entry for further confirmation/control feedback regarding matched book portions.

Claims (33)

1. A method for automatically correcting book portion mismatches in a book binding operation, the method comprising:

receiving input signals from one or more online sensors corresponding to a sequence of first book portions being conveyed along a first assembly channel leading into a book binding stage and corresponding to a sequence of second book portions being conveyed along a second assembly channel leading into the book binding stage;

predicting a mismatch state between a first book portion and a second book portion based on the respective sequences and with respect to expected first and second sequences dependent on a defined book assembly batch;

determining an intervention event corresponding to the predicted mismatch state, from among a plurality of intervention events each respectively corresponding to one or more of a plurality of mismatch states; and

automatically executing the determined intervention event corresponding to the predicted mismatch state;

at least one of the plurality of intervention events comprising a selective routing of the first book portion and/or the second book portion associated with the predicted mismatch state from the respective assembly channel into a correction channel and reinsertion of the first book portion and/or the second book portion associated with the predicted mismatch state into the respective assembly channel corresponding to a modified version of the respective sequence,

wherein the method further comprises:

a model development stage comprising, for each of a plurality of input data sets received over time and comprising inputs from the one or more online sensors, correlating the input data sets, and any predicted mismatches and/or performed intervention events, with determined outcomes at a corresponding book binding stage; and

for a current book binding operation, predicting the mismatch state between the first book portion and the second book portion, and further determining the intervention event corresponding to the predicted mismatch state, based on the associated inputs from the one or more online sensors and by reference to correlated data sets from the model development stage.

2. The method of claim 1 , further comprising:

receiving, as part of the respective input data sets for the model development stage and for the current book binding operation, one or more input signals from at least one further sensor corresponding to matched first and second book portions at an end of the first and second assembly channels and leading into the book binding stage;

wherein a further intervention event, or lack thereof, is performed based on confirmation or a determined mismatch of the matched first and second book portions via the input signals from the at least one further sensor.

3. The method of claim 2 , wherein the further intervention event, or lack thereof, is performed based on the confirmation or the determined mismatch of the matched first and second book portions via the input signals from the at least one further sensor is provided as a determined outcome with respect to the model development stage.

4. The method of claim 1 , wherein the determined outcomes at least with respect to any predicted mismatch state comprise a determined productivity impact of a corresponding intervention event.

5. The method of claim 1 , wherein the predicted mismatch state comprises a predicted mismatch differential, and the method comprises determining an intervention event or lack thereof based at least in part on a comparison of the predicted mismatch differential to a threshold value.

6. The method of claim 5 , wherein the threshold value is determined at least in part by reference to correlated data sets from the model.

7. A system for automatically correcting book portion mismatches in a book binding operation, the system comprising:

one or more online sensors configured to generate output signals corresponding to a sequence of first book portions being conveyed along a first assembly channel leading into a book binding stage, and corresponding to a sequence of second book portions being conveyed along a second assembly channel leading into the book binding stage; and

a controller functionally linked to the one or more online sensors and configured to:

predict a mismatch state between a first book portion and a second book portion based on the respective sequences and with respect to expected first and second sequences dependent on a defined book assembly batch;

determine an intervention event corresponding to the predicted mismatch state, from among a plurality of intervention events each respectively corresponding to one or more of a plurality of mismatch states; and

automatically execute the determined intervention event corresponding to the predicted mismatch state;

at least one of the plurality of intervention events comprising generating control signals for selective routing of the first book portion and/or the second book portion associated with the predicted mismatch state from the respective assembly channel into a correction channel and reinsertion of the first book portion and/or the second book portion associated with the predicted mismatch state into the respective assembly channel corresponding to a modified version of the respective sequence,

wherein the controller and/or one or more processors independent of the controller are configured during a model development stage, for each of a plurality of input data sets received over time and comprising inputs from the one or more online sensors, to correlate the input data sets, and any predicted mismatches and/or performed intervention events, with determined outcomes at a corresponding book binding stage;

wherein a model corresponding to the model development stage is stored in data storage functionally linked to the controller; and

wherein the controller is configured, for a current book binding operation, to predict the mismatch state between the first book portion and the second book portion, and further determine the intervention event corresponding to the predicted mismatch state, based on the associated inputs from the one or more online sensors and by reference to correlated data sets from the model.

8. The system of claim 7 , further comprising:

at least one further sensor configured to generate output signals, as part of the respective input data sets for the model development stage and for the current book binding operation, corresponding to matched first and second book portions at an end of the first and second assembly channels and leading into the book binding stage;

wherein a further intervention event, or lack thereof, is performed based on confirmation or a determined mismatch of the matched first and second book portions via the input signals from the at least one further sensor.

9. The system of claim 8 , wherein the further intervention event, or lack thereof, as performed based on the confirmation or the determined mismatch of the matched first and second book portions via the input signals from the at least one further sensor is provided as a determined outcome with respect to the model development stage.

10. The system of claim 7 , wherein the determined outcomes at least with respect to any predicted mismatch state comprise a determined productivity impact of a corresponding intervention event.

11. The system of claim 7 , wherein the predicted mismatch state comprises a predicted mismatch differential, and the controller is configured to determine an intervention event or lack thereof based at least in part on a comparison of the predicted mismatch differential to a threshold value.

12. The system of claim 11 , wherein the threshold value is determined at least in part by reference to correlated data sets from the model.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jul 18, 2024
From: BELEVSKI, ZORAN; SANDERS, JOSHUA; HOWELL, DANNY; KWIATKOWSKI, JOHN; MCDONALD, KENNETH; BRAWNER, JOEL; SMITH, KEVIN
To: LIGHTNING SOURCE LLC
Reel/Frame 068024/0312 →
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