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Mechanics of Materials Laboratory Course [electronic resource] / by Ghatu Subhash, Shannon Ridgeway.

By: Subhash, Ghatu [author.].
Contributor(s): Ridgeway, Shannon [author.] | SpringerLink (Online service).
Material type: materialTypeLabelBookSeries: Synthesis / SEM Lectures on Experimental Mechanics: Publisher: Cham : Springer International Publishing : Imprint: Springer, 2018Edition: 1st ed. 2018.Description: XXII, 204 p. online resource.Content type: text Media type: computer Carrier type: online resourceISBN: 9783031797217.Subject(s): Engineering | Mechanical engineering | Technology and Engineering | Mechanical EngineeringAdditional physical formats: Printed edition:: No title; Printed edition:: No title; Printed edition:: No titleDDC classification: 620 Online resources: Click here to access online
Contents:
Preface -- Dynamic Data Acquisition and Uncertainty in Measurements -- Design and Build a Transducer to Measure the Weight of an Object -- Stress--Strain Response of Materials -- Thin-walled Pressure Vessels -- Strength of Adhesive Joints -- Creep Behavior of Metals -- Charpy Impact Testing -- Flexural Loading, Beam Deflections, and Stress Concentration -- Wave Propagation in Elastic Solids and Dynamic Testing of Materials -- Authors' Biographies.
In: Springer Nature eBookSummary: This book is designed to provide lecture notes (theory) and experimental design of major concepts typically taught in most Mechanics of Materials courses in a sophomore- or junior-level Mechanical or Civil Engineering curriculum. Several essential concepts that engineers encounter in practice, such as statistical data treatment, uncertainty analysis, and Monte Carlo simulations, are incorporated into the experiments where applicable, and will become integral to each laboratory assignment. Use of common strain (stress) measurement techniques, such as strain gages, are emphasized. Application of basic electrical circuits, such as Wheatstone bridge for strain measurement, and use of load cells, accelerometers, etc., are employed in experiments. Stress analysis under commonly applied loads such as axial loading (compression and tension), shear loading, flexural loading (cantilever and four-point bending), impact loading, adhesive strength, creep, etc., are covered. LabVIEW software with relevant data acquisition (DAQ) system is used for all experiments. Two final projects each spanning 2-3 weeks are included: (i) flexural loading with stress intensity factor determination and (ii) dynamic stress wave propagation in a slender rod and determination of the stress-strain curves at high strain rates. The book provides theoretical concepts that are pertinent to each laboratory experiment and prelab assignment that a student should complete to prepare for the laboratory. Instructions for securing off-the-shelf components to design each experiment and their assembly (with figures) are provided. Calibration procedure is emphasized whenever students assemble components or design experiments. Detailed instructions for conducting experiments and table format for data gathering are provided. Each lab assignment has a set of questions to be answered upon completion of experiment and data analysis. Lecture notes provide detailed instructions on how to use LabVIEW software for data gathering during the experiment and conduct data analysis.
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Preface -- Dynamic Data Acquisition and Uncertainty in Measurements -- Design and Build a Transducer to Measure the Weight of an Object -- Stress--Strain Response of Materials -- Thin-walled Pressure Vessels -- Strength of Adhesive Joints -- Creep Behavior of Metals -- Charpy Impact Testing -- Flexural Loading, Beam Deflections, and Stress Concentration -- Wave Propagation in Elastic Solids and Dynamic Testing of Materials -- Authors' Biographies.

This book is designed to provide lecture notes (theory) and experimental design of major concepts typically taught in most Mechanics of Materials courses in a sophomore- or junior-level Mechanical or Civil Engineering curriculum. Several essential concepts that engineers encounter in practice, such as statistical data treatment, uncertainty analysis, and Monte Carlo simulations, are incorporated into the experiments where applicable, and will become integral to each laboratory assignment. Use of common strain (stress) measurement techniques, such as strain gages, are emphasized. Application of basic electrical circuits, such as Wheatstone bridge for strain measurement, and use of load cells, accelerometers, etc., are employed in experiments. Stress analysis under commonly applied loads such as axial loading (compression and tension), shear loading, flexural loading (cantilever and four-point bending), impact loading, adhesive strength, creep, etc., are covered. LabVIEW software with relevant data acquisition (DAQ) system is used for all experiments. Two final projects each spanning 2-3 weeks are included: (i) flexural loading with stress intensity factor determination and (ii) dynamic stress wave propagation in a slender rod and determination of the stress-strain curves at high strain rates. The book provides theoretical concepts that are pertinent to each laboratory experiment and prelab assignment that a student should complete to prepare for the laboratory. Instructions for securing off-the-shelf components to design each experiment and their assembly (with figures) are provided. Calibration procedure is emphasized whenever students assemble components or design experiments. Detailed instructions for conducting experiments and table format for data gathering are provided. Each lab assignment has a set of questions to be answered upon completion of experiment and data analysis. Lecture notes provide detailed instructions on how to use LabVIEW software for data gathering during the experiment and conduct data analysis.

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