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Applied Chemistry for Emerging Electronics 1BCHEE102

Module-wise notes, PYQs, and a built-in resource explorer — everything you need to crack 1BCHEE102 in one focused page.

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Code1BCHEE102
Credits03
CIE / SEE50 / 50
TypeTheory
Exam3 Hours
Hours / Week2:2:2:0
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Last Updated:  15 March 2026

Syllabus Overview

M1

Module 1: Materials for Energy Devices Semiconductors

Introduction, n-type and p -type semiconductor materials (organic and inorganic), difference between organic and inorganic semiconductors . Organic photovoltaics - working principle and applications of Poly (3-hexylthiophene) (P3HT) as a donor and Phenyl C61-butyric acid methyl ester (PCBM) as an acceptor. Energy Storage Devices: Introduction, classification of batteries -primary, secondary and reserve battery, characteristics - capacity, power density, shelf life & cycle life. Construction and working of lithium -ion battery and its advantages in EV applications. Construction and working of ultra -small asymmetric super capacitor and its applications in IoT/wearable devices. Energy Conversion Devices : Introduction, construction, working principal, advantages and limitations of solar photovoltaic cell (PV cell). Working principle and applications of Micro electromechanical systems (MEMS)-based energy harvesters.

M2

Module 2: Nano and Quantum Dot Materials Nano materials

Introduction, size dependent properties of nanomaterials - surface area, catalytic, optical properties and electrical conductivity. Synthesis of TiO 2 nanoparticles by solgel method and its uses in sensor applications. Quantum Dot Materials: Introduction, types, optical and electronic properties of quantum dots (QDs). Inorganic Quantum Dot Materials (IQDMs): Introduction, synthesis and properties of silicon based QDs by sol gel method and Cd -Se Quantum Dots by hot injection method and applications in optoelectronic devices. Organic Quantum Dot Materials (OQDMs): Introduction, synthesis and properties of chitosan-carbon quantum dots hydrogel and its applications in next -generation flexible and wearable electronics . Synthesis and properties of Graphene Quantum Dots using citric acid method and its applications in emerging electronics.

M3

Module 3: Detailed Syllabus

Functional Polymers and Hybrid Composites in Flexible Electronics Stretchable and Wearable Microelectronics: Introduction, basic principle and working of lithography for micro -patterned copper deposition . Synthesis, properties and applications of PDMS (Polydimethylsiloxane) and its uses in e-skin (electronic skin) and RFID applications. Polymers: Introduction, synthesis, conduction mechanism of polyaniline and its electronic devices applications. Molecular weight of polymers: Number average and weight average molecular weight of polymers -numerical problems . Synthesis and properties of Polyvinylidene Fluoride (PVDF) and its applications in E-nose devices. Polymer Composites: Introduction, synthesis and properties of epoxy resin -magnetite (Fe₃O₄) composite (ultrasonication method) for sensors applications. Synthesis and properties of Kevlar Fiber Reinforced Polymer (KFRP) for smart electronic devices applications.

M4

Module 4: Electrode System and Electrochemical Sensors Electrode System

Introduction, types of electrodes, overview of Nernst equation,

M5

Module 5: Corrosion Science and E-waste Management Corrosion Chemistry

Introduction, electrochemical theory of corrosion, types of corrosion, differential metal corrosion in electronic circuits and differential aeration corrosion - waterline and pitting corrosion. Corrosion control - galvanization, anodization, cathodic protection and impressed current method. Corrosion penetration rate (CPR) - definition, importance and weight loss method-numerical problems. Metal Finishing: Introduction, technological importance of metal finishing, difference between electroplating & electroless plating, electroplating of chromium for hard and decorative coatings, electroless plating of copper on PCBs. E-waste: Introduction, sources of e -waste, need of e -waste management & effects of e -waste on environment and human health. Extraction of gold from e-waste from bioleaching method.

Textbooks & Resources

  • Engineering Chemistry, Suba Ramesh, Vairam, Ananda Murthy, 2011, Wiley India, ISBN: 19880.
  • A Textbook of Engineering Chemistry, R.V. Gadag and Nityananda Shetty, I. K. International Publishing house. 2nd Edition, 2016.
  • Engineering Chemistry: Jain & Jain, Publisher: Dhanpat Rai Publishing Company, ISBN: 978-8.

Resource Explorer

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Frequently Asked Questions

What is 1BCHEE102 (Applied Chemistry for Emerging Electronics)?

Applied Chemistry for Emerging Electronics (1BCHEE102) is a VTU course covered through module-wise syllabus, notes, and PYQ-driven exam practice available on this page.

How many credits is 1BCHEE102?

Credits for 1BCHEE102: 04.

Are notes and previous year question papers available for 1BCHEE102?

Yes. You can access organized notes, PDFs, and PYQ material from the file explorer/resources section on this page.

How should I prepare Mathematics-I 1BCHEE102 for VTU exams?

Start with module summaries, solve recent PYQs unit-wise, and finish with complete paper practice under time constraints for SEE readiness.

Is this 1BCHEE102 page updated for current VTU scheme?

Yes, this page is maintained with current scheme-oriented materials and practical exam-focused resource curation.

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About Mathematics-I (1BCHEE102)

Mathematics-I (1BCHEE102) is a critical course in the VTU curriculum, essential for any student looking to master the foundations of engineering. It covers key theoretical frameworks and practical concepts that are widely used in the industry today, ensuring students are well-prepared for both exams and their future careers.

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📘 Detailed Syllabus & Topic Breakdown

Detailed Subject Overview

Mathematics-I (1BCHEE102) is designed to provide a comprehensive look into the core methodologies and advanced theories that define this field. Understanding this subject is fundamental for anyone looking to excel in modern technical domains and industrial engineering.

By studying this course, you will learn how to approach complex problems with a structured mindset, optimizing systems for better performance and reliability—skills that are highly valued in both AI research and software architecture.

Module-by-Module Breakdown

Module 1
Core

Materials for Energy Devices Semiconductors: Introduction, n-type and p -type semiconductor materials (organic and inorganic), difference between organic and inorganic semiconductors . Organic photovoltaics - working principl...

Module 2
Core

Nano and Quantum Dot Materials Nano materials: Introduction, size dependent properties of nanomaterials - surface area, catalytic, optical properties and electrical conductivity. Synthesis of TiO 2 nanoparticles by solgel metho...

Module 3
Core

Detailed Syllabus: Functional Polymers and Hybrid Composites in Flexible Electronics Stretchable and Wearable Microelectronics: Introduction, basic principle and working of lithography for micro -pat...

Module 4
Core

Electrode System and Electrochemical Sensors Electrode System: Introduction, types of electrodes, overview of Nernst equation,

Module 5
Core

Corrosion Science and E-waste Management Corrosion Chemistry: Introduction, electrochemical theory of corrosion, types of corrosion, differential metal corrosion in electronic circuits and differential aeration corrosion - waterline and pitti...

Professional Career Relevance

This subject provides a strong foundation for various technical roles, emphasizing analytical thinking, system design, and the practical application of engineering principles in the modern industry. Mastering these concepts prepares you for high-demand roles in Data Science, System Architecture, and Technical Leadership in top-tier tech companies.

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