Designing of a Dimension-Weigh-Scan System
Yrjölä, Jarkko Albert (2016)
2016
Konetekniikan koulutusohjelma
Teknisten tieteiden tiedekunta - Faculty of Engineering Sciences
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Hyväksymispäivämäärä
2016-04-06
Julkaisun pysyvä osoite on
https://urn.fi/URN:NBN:fi:tty-201603223732
https://urn.fi/URN:NBN:fi:tty-201603223732
Tiivistelmä
A new Dimension-Weigh-Scan –system (DWS system) is needed to measure the dimensions and weight of unknown products, and to read their barcodes in a new distribution center of daily products. The goal for this assignment is to create the necessary documents to manufacture the DWS system and to verify its capabilities..
At the beginning of this work the literature is examined. This review serves the design process and supports the upcoming system integration.
Next, the background of the assignment is presented, the problems are defined, and system requirements are set based on the problems. After the system requirements are set, the DWS process is designed. After the process is designed, the necessary hardware is designed and chosen.
Now, the system is integrated and refined with the presented methods. Also, the level of integration is investigated until no further integrational possibilities can be found.
The dynamic capabilities of the system are examined with a mathematical model to evaluate its performance and to establish a hypothesis for the upcoming tests.The system is tested to create a functional control model for the alignment process. Further, its ability to meet the system requirements are verified.
At the beginning of this work the literature is examined. This review serves the design process and supports the upcoming system integration.
Next, the background of the assignment is presented, the problems are defined, and system requirements are set based on the problems. After the system requirements are set, the DWS process is designed. After the process is designed, the necessary hardware is designed and chosen.
Now, the system is integrated and refined with the presented methods. Also, the level of integration is investigated until no further integrational possibilities can be found.
The dynamic capabilities of the system are examined with a mathematical model to evaluate its performance and to establish a hypothesis for the upcoming tests.The system is tested to create a functional control model for the alignment process. Further, its ability to meet the system requirements are verified.