Crescent Sustainability Initiatives
Partnerships for the Goals (SDG 17)
EDUCATION FOR SUSTAINABLE DEVELOPMENT: INTEGRATING SUSTAINABILITY INTO CURRICULUM
In today’s rapidly changing world, the pursuit of sustainable development has become imperative, necessitating educational institutions to play a crucial role in equipping students with the knowledge and skills needed to address complex sustainability challenges. To meet this demand, many academic institutions have introduced dedicated courses that focus on sustainability, ranging from full degree programs to elective offerings. These courses are specifically designed to align with the Sustainable Development Goals (SDGs), encouraging students to engage with key sustainability concepts and apply their learning to real-world issues.
A prime example of such integration can be found in the civil engineering department, which offers courses like “Environmental Studies” and “Water and Wastewater Engineering.” These courses are mapped to SDG 6, which emphasizes clean water and sanitation as a fundamental human right. By studying these subjects, students gain a comprehensive understanding of water management principles and engineering practices that aim to tackle urgent issues such as water scarcity and pollution. This practical education not only enhances their academic background but also prepares them for careers focused on addressing environmental challenges.
In addition to engineering, courses like “Social Entrepreneurship” within the management studies framework contribute significantly to achieving SDG 8, which focuses on decent work and economic growth. This course empowers students to create sustainable business models aimed at addressing social issues, fostering economic empowerment, and promoting social change. By integrating sustainability into the curriculum, educational institutions cultivate innovative thinkers who can align economic growth with principles of equity and social responsibility, ultimately inspiring future leaders.
Furthermore, the introduction of courses such as “Industrial Waste Water Treatment” and “Hazardous Waste Management” highlights the urgency of sustainability literacy within engineering disciplines. These courses are aligned with SDG 12, which focuses on ensuring sustainable consumption and production patterns. Through education in these critical areas, students learn the significance of effective waste management and the environmental implications of industrial practices. This knowledge instills a sense of responsibility in students, equipping them with the tools needed to tackle global waste challenges in their future careers.
Interdisciplinary courses such as “Green Design and Sustainability” and “Smart Cities” emphasize the collaborative nature of addressing sustainability challenges. By encouraging students from various departments to work together, these programs foster a culture of sustainability across the institution. They ensure that future professionals are well-prepared to approach environmental, social, and technological challenges holistically. This collaborative learning environment not only enriches students’ educational experiences but also empowers them to craft innovative solutions that contribute to a more sustainable future.
In conclusion, the integration of sustainability-focused courses across diverse academic disciplines is vital for preparing a generation capable of meeting the challenges posed by the SDGs. By providing a robust foundation in sustainability principles, educational institutions contribute significantly to fostering a sustainable future. Through these dedicated courses, students not only develop academic expertise but also emerge as empowered individuals ready to make meaningful contributions to their communities and the world at large.
S. No. | Name of the Course | Course Code | Mapped with SDGs | Offering Department |
---|---|---|---|---|
1 | Environmental Studies | GEC 1212 | 11,12 | Civil Engineering |
2 | Computer Programming II | GEC 1213 | 4 | |
3 | Building Construction and Practices | CEC 1212 | 7 | |
4 | Water and Wastewater Engineering | CED 2104 | 6 | |
5 | Social Entrepreneurship | MSC 3182 | 8 | Management Studies |
6 | Communication and soft skill I – Career Choice | ENC 3181 | 4 | English |
7 | Design of Reinforced Concrete Structures | CEC 3102 | 7 | Civil Engineering |
8 | Structural Analysis – II | CEC 3211 | 4 | |
9 | Industrial Internship | CEC 4105 | 9 | |
10 | Safety in Construction | CECX 04 | 7,12 | |
11 | Air & Noise Pollution and Control | CECX 11 | 11 | |
12 | Industrial Waste Water Treatment | CECX 16 | 6 | |
13 | Hazardous Waste Management | CECX 17 | 6 | |
14 | Industrial health and Safety | CECX 20 | 3 | |
15 | Urban Design | CECX 21 | 11 | |
16 | Water proofing of RCC structures | CECX 22 | 6 | |
17 | Advanced Concrete Design | CECX 31 | 7 | |
18 | Repair and Rehabilitation of Structures | CECX 32 | 7,11,12 | |
19 | Housing, Planning and Management | CECX 35 | 9,11 | |
20 | Building Services | CECX 36 | 7 | |
21 | Environmental Risk Assessment | CECX 38 | 13 | |
22 | Earthquake Engineering | CECX 46 | 13 | |
23 | Ground Water Engineering | CECX 51 | 6 | |
24 | Environmental Impact Assessment | CECX 52 | 15 | |
25 | Building Information Modeling | CECX 56 | 7 | |
26 | Storm Water and Flood Management | CECX 59 | 13 | |
27 | Urban & Indoor Air Quality Management | CECX 60 | 11 | |
28 | Contract laws and Regulations | CECX 61 | 16 | |
29 | Smart Cities | CECX 62 | 11 | |
30 | Electrical materials and batteries | CHCX 03 | 7 | Chemistry |
31 | Fuels and combustion | CHCX 05 | 7 | Chemistry |
32 | Green technology | CHCX 07 | 7,11 | |
33 | Polymer science and technology | CHCX 09 | 4 | |
34 | Discrete Mathematics and Graph Theory | MACX 01 | 4 | Maths |
35 | Law for Engineers | SSCX 06 | 16 | Social Science |
36 | Disaster Management | GECX 101 | 13 | Civil Engineering |
37 | Energy Studies | GECX 103 | 7, 13 | |
38 | Knowledge management | GECX 110 | 4 | |
39 | Vehicle Maintenance | GECX 116 | 7 | |
40 | Green Design and Sustainability | GECX 201 | 11 | |
41 | Industrial Safety | GECX 205 | 9 | |
42 | Advanced Materials | GECX 212 | 7 | |
43 | National Service Scheme | GECX 213 | 16 | |
44 | Automotive Pollution and Control | GECX 214 | 7 | |
45 | Advanced Entrepreneurship | GECX 219 | 8 | |
46 | Electric Vehicles | GECX 220 | 7 | |
47 | Introduction to Aeronautical Engineering | AEC 1211 | 4 | Aeronautical Engineering |
48 | Aircraft Component Modeling & Drafting Laboratory | AEC 1212 | 4, 8 | |
49 | Aircraft Structure Repair Laboratory | AEC 1213 | 4, 8 | |
50 | Solid Mechanics | AEC 2101 | 4 | |
51 | Engineering Thermodynamics | AEC 2102 | 4 | |
52 | Fluid Mechanics | AEC 2103 | 6 | |
53 | Basic Electrical and Electronics Engineering | EIC 2181 | 4 | Electronics & Instrumentation |
54 | Air Breathing Propulsion | AEC 2213 | 11 | Aeronautical Engineering |
55 | Aircraft Systems and Instruments | AEC 2214 | 11 | |
56 | Solid Mechanics Laboratory | AEC 2215 | 4, 8 | |
57 | Propulsion Laboratory | AEC 2217 | 4, 8 | |
58 | Compressors and Turbines | AEC 3101 | 4, 8 | |
59 | Aircraft Structural Design and Analysis | AEC 3102 | 4, 8 | |
60 | High Speed Aerodynamics | AEC 3103 | 4, 8 | |
61 | Aerodynamics Laboratory | AEC 3104 | 4, 8 | |
62 | Aircraft Structural Analysis Laboratory | AEC 3105 | 4, 8 | |
63 | Rocket Propulsion | AEC 3211 | 4, 8 | |
64 | Flight Dynamics | AEC 3212 | 4, 8 | |
65 | Aircraft Materials and Processes | AEC 3213 | 4, 8 | |
66 | Aircraft Design Project – I | AEC 3214 | 4, 8 | |
67 | Avionics | AEC 4101 | 4, 8 | |
68 | Finite Element Method | AEC 4102 | 4, 8 | |
69 | UAV and MAV Systems | AEC 4103 | 4, 8 | Aeronautical Engineering |
70 | Aircraft Design Project – II | AEC 4104 | 4, 8 | |
71 | CFD-Structural Analysis Laboratory | AEC 4105 | 4, 8 | |
72 | Internship | AEC 4106 | 9 | |
73 | Project Work | AEC 4211 | 4, 8 | |
74 | Optical Flow Diagnostics | AECX 01 | 4, 8 | |
75 | Hypersonic Aerodynamics | AECX 02 | 4, 8 | |
76 | Industrial Aerodynamics | AECX 03 | 4, 8, 9 | |
77 | Grid Generation | AECX 04 | 4, 8, 9 | |
78 | Wind Tunnel Model Design | AECX 05 | 7 | |
79 | Theory of Elasticity | AECX 06 | 4, 8, 9 | |
80 | Fatigue and Fracture Mechanics | AECX 07 | 4, 8, 9 | |
81 | Structural Analysis Tools (NASTRAN and PATRAN) | AECX 08 | 4, 8, 9 | |
82 | Smart Structures | AECX 09 | 4, 8, 9 | |
83 | Aircraft Structural Testing and Qualification | AECX 10 | 4, 8, 9 | |
84 | Measurement Systems | AECX 11 | 4, 8, 9 | |
85 | NDT techniques for Aircraft Structures | AECX 12 | 4, 8, 9 | |
86 | Airframe Repair and Maintenance | AECX 13 | 11 | |
87 | Behavior of Materials at High Temperatures | AECX 14 | 4, 8, 9 | |
88 | Heat Transfer | AECX 15 | 4, 8, 9 | |
89 | Advanced Propulsion Systems | AECX 16 | 4, 8, 9 | |
90 | Micro Propulsion | AECX 17 | 4, 8, 9 | |
91 | Cryogenics | AECX 18 | 4, 8, 9 | |
92 | Air Traffic Control and Aerodrome Design | AECX 19 | 4, 8, 9 | |
93 | Aviation Rules and Regulation | AECX 20 | 4, 8, 9 | |
94 | Experimental Aerodynamics | AECX 21 | 4, 8, 9 | |
95 | Computational Fluid Dynamics | AECX 22 | 4, 8, 9 | |
96 | Viscous Flows | AECX 23 | 4, 8, 9 | |
97 | Aero-acoustics | AECX 24 | 4, 8, 9 | |
98 | Wind Engineering | AECX 25 | 13 | |
99 | Composite Materials and Structures | AECX 26 | 4, 8, 9 | |
100 | Experimental Techniques For Aircraft Structures | AECX 27 | 4, 8, 9 | |
101 | Vibration and Aero Elasticity | AECX 28 | 4, 8, 9 | |
102 | Hyper Mesh | AECX 29 | 4, 8, 9 | |
103 | Combustion | AECX 30 | 4, 8, 9 | |
104 | Rockets and Missiles | AECX 31 | 4, 8, 9 | |
105 | Aircraft Cooling Systems | AECX 33 | 4, 8, 9 |
Sample Syllabus denoting the specific courses on sustainability
GECX101 | DISASTER MANAGEMENT | L | T | P | C |
SDG 13 | 3 | 0 | 0 | 3 | |
OBJECTIVES: | |||||
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MODULE I | ENVIRONMENTAL HAZARDS | 7 | |||
Environmental hazards, Environmental Disasters and Environmental stress- Meaning and concepts. Vulnerability and disaster preparedness. | |||||
MODULE II | NATURAL DISASTERS | 7 | |||
Natural hazards and Disasters – Volcanic Eruption, Earthquakes, Tsunamis, Landslides, Cyclones, Lightning, Hailstorms, Floods, Droughts, Cold waves, Heat waves and Fire. | |||||
MODULE III | MAN-MADE DISASTERS | 7 | |||
Man induced hazards & Disasters – Soil Erosion, Chemical hazards, Population Explosion | |||||
MODULE IV | DISASTER MANAGEMENT | 8 | |||
Emerging approaches in Disaster Management- Preparing hazard zonation maps, Predictability / forecasting & warning, Preparing disaster preparedness plan, Land use zoning, Communication. Disaster resistant house construction, Population reduction in vulnerable areas, Awareness – Rescue training for search & operation at national & regional level – Immediate relief, Assessment surveys, Political, Administrative, Social, Economic, Environmental Aspects. | |||||
MODULE V | NATURAL DISASTER REDUCTION & MANAGEMENT | 8 | |||
Provision of Immediate relief measures to disaster affected people, Prediction of Hazards & Disasters, Measures of adjustment to natural hazards | |||||
MODULE VI | ENVIRONMENTAL POLICIES & PROGRAMMES IN INDIA | 8 | |||
Regional survey of Land Subsidence, Coastal Disaster, Cyclonic Disaster & Disaster in Hills with particular reference to India. Ecological planning for sustainability & sustainable development in India, Sustainable rural development: A Remedy to Disasters, Role of Panchayats in Disaster mitigations, Environmental policies & programmes in India- Institutions & National Centers for Natural Disaster reduction, Environmental Legislations in India, Awareness, Conservation Movement, Education & training. | |||||
Total Hours –45 | |||||
REFERENCES: | |||||
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OUTCOMES: | |||||
At the end of the course, the students will be able to
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SDG 13 : Climate change is a crisis that will affect every part of society, and every country. Universities need to be at the forefront of action to reduce the impact of climate change, especially amongst the poorest who will be the most affected. |
CED 2104 | WATER AND WASTEWATER ENGINEERING | L | T | P | C |
SDG: 6 | 3 | 0 | 2 | 4 | |
COURSE OBJECTIVES: The objectives of the course are to impart knowledge on | |||||
COB1: The population forecasting, water sources, intake structures, water quality and its treatment | |||||
COB2: The advanced water treatment methods, water storage facilities and distribution network | |||||
COB3: The sewerage systems, estimation of wastewater flows & storm runoff, wastewater characterization and its primary treatment | |||||
COB4: The secondary treatment of wastewater | |||||
COB5: The methods for wastewater disposal & sludge handling. | |||||
MODULE I | WATER TREATMENT | 9 | |||
Design Period – Population forecasting – Types of water demand -Sources of water – Intakes – Characteristics of water – Standards for drinking water – Principle, function and design of water treatment units – sedimentation, coagulation & flocculation, Filtration – theory & principle of disinfection methods. | |||||
MODULE II | ADVANCED WATERTREATMENT, STORAGE & DISTRIBUTION | 9 | |||
Water softening – Iron, Manganese and Phosphorus removal, Defluoridation – Desalination – Membrane filtration – Water storage facilities – Distribution networks & analysis. | |||||
MODULE III | PRIMARY TREATMENT OF WASTEWATER | 9 | |||
Sewerage systems – Sewage flow estimation – Storm runoff estimation – Sewer materials – Hydraulics of flow in sewer – Sewer appurtenances – Characteristics of sewage – Unit operations and processes – Primary treatment – Principles, functions and design of sewage treatment units – Screens – Grit chamber. | |||||
MODULE IV | SECONDARY TREATMENT OF WASTEWATER | 9 | |||
Introduction to Aerobic and Anaerobic treatment process – Functions and design of Activated sludge process and trickling filter – Principles and functions of Membrane Bioreactor, Sequential batch reactor, Waste stabilisation pond, UASB reactor – Onsite sanitation – septic tanks | |||||
MODULE V | WASTEWATER DISPOSAL & SLUDGE TREATMENT | 9 | |||
Standards for disposal into water bodies – Self-purification of river – Oxygen sag curve – Sewage farming and methods – Sludge thickening & Digestion – Biogas recovery – Sludge conditioning and Dewatering – Sludge drying bed. | |||||
PRACTICALS | |||||
List of experiments
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L – 45; P – 30; Total Hours – 75 | |||||
TEXT BOOKS: | |||||
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COURSE OUTCOMES: At the end of the course the student will be able to | |||||
CO1: forecast population, estimate quantity of water demand, characterize water quality and design treatment units | |||||
CO2: describe advanced treatments for water, water storage facilities and analyze distribution network | |||||
CO3: explain the sewerage systems, estimate wastewater flows & storm runoff, characterize quality of wastewater and design the primary wastewater treatment units | |||||
CO4:describe the secondary treatment of wastewater | |||||
CO5: describe the methods for wastewater disposal & sludge handling. | |||||
Board of Studies (BoS) : 16th BoS of Civil held on 05.01.2022. | Academic Council: 18th Academic Council held on 24.02.2022 |
PO1 | PO2 | PO3 | PO4 | PO5 | PO6 | PO7 | PO8 | PO9 | PO 10 | PO 11 | PO 12 | PSO1 | PSO2 | PSO3 | |
CO1 | – | – | M | – | – | L | H | L | M | M | – | M | L | – | H |
CO2 | – | – | L | – | – | – | H | L | M | M | – | M | L | – | H |
CO3 | – | – | M | – | – | L | H | L | M | M | – | M | L | – | H |
CO4 | – | – | M | – | – | – | H | L | M | M | – | M | L | – | H |
CO5 | – | – | L | – | – | M | H | L | M | M | – | M | L | – | H |
Note: L – Low Correlation M -Medium Correlation H – High Correlation
SDG No.6 : Clean Water and Sanitation |
The understanding of water and wastewater treatment leads to the development of sustainable technologies for treatment and management of water and wastewater. |
CSCX 167 | CYBER LAWS AND ETHICS | L | T | P | C |
SDG 16 | 2 | 0 | 0 | 2 | |
OBJECTIVES : | |||||
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MODULE I | INTRODUCTION | 10 | |||
Cyber crime – Categories – kinds– Internet Security- Computer Security and legal aspects– Copyright – Cyber Space Jurisdiction. | |||||
MODULE II | CYBER LAW | 10 | |||
Internet Governance- IT ACT – Scope and Application – Cyber Contraventions- Adjudication- Appellate Tribunal and Offences -Case laws relating to IT ACT. | |||||
MODULE III | CYBER ETHICS | 10 | |||
Internet and ethical values – Ethics of blogging-Facebook threat– Free speech and content controls in cyber space – Intellectual property in cyber space. | |||||
L – 30;TOTAL HOURS-30 | |||||
REFERENCES : | |||||
1. | Sushma Arora and Raman Arora, ―Cyber Crimes & Laws‖, Taxmann Publications, ISBN: 9789350719879, 2016. | ||||
2. | Richard A. Spinello, ―Cyber Ethics-Morality and Law in cyberspace‖, Jones and Bartlett Learning, 6th Edition, ISBN: 9781284081398, 2017. | ||||
3. | Joan Ruttenberg, Paige von Mehren and Julie Yen ―, The OPIA Insider‘s Guide to Intellectual Property And Cyberlaw‖, Bernard Koteen Office of Public Interest Advising Harvard Law School, 7th Edition, ISBN: 978813170205, 2013. |
OUTCOMES : | |
Students who complete this course will be able to
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SDG 16:The rule of law and development have a significant interrelation and are mutually reinforcing, making it essential for sustainable development at the national and international level. |
AUC X33 | POWER PLANT ENGINEERING | L | T | P | C |
SDG 7 | 3 | 0 | 0 | 3 | |
OBJECTIVES: | |||||
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MODULE I | FUEL COMBUSTION EQUIPMENTS | 8 | |||
Types of combustion, stokers, fuel and ash handling equipments. Draft – forced, induced and balanced drafts. Selection of fans. Heat recovery equipmentseconomisers, air preheaters and reheaters, different types of superheaters and desuperheaters. Emission control, flue gas cleaning, particulate and gaseous emission control methods. | |||||
MODULE II | THERMAL POWER PLANT SYSTEMS | 8 | |||
Steam generators – forced circulation, high-pressure boilers and super critical boilers, fluidized bed boiler, boiler accessories and mountings. Boiler testing. Condensers: Different types, design factors, air removal, performance calculation. Cooling towers – natural and mechanical draft types. | |||||
MODULE III | NUCLEAR POWER PLANTS | 7 | |||
General nuclear fuels used in reactors, elements of nuclear reactor, moderator, control rods, coolants, description of different types of reactors. Radiation hazards, radioactive waste disposal. | |||||
MODULE IV | DIESEL AND GAS TURBINE POWER PLANTS | 7 | |||
Diesel power plant – Classifications, components, selection of engine type. Gas turbine plant – closed and open cycles. Combined power cycles | |||||
MODULE V | RENEWABLE ENERGY SOURCES | 8 | |||
Solar energy – measurement, methods of utilization, flat plate and concentrating collectors, water heater, air driers, photovoltaic cell. Wind energy – Horizontal and vertical axis wind turbines. Geothermal plants, tidal power plant, biomass and biogas plants, OTEC plants. | |||||
MODULE VI | POWER PLANT ECONOMICS | 7 | |||
Plant load factor and utilization factor, cost economics – Tariff rates, demand changes, load distributions. Energy conservation and audit. Maintenance aspects of power plants. | |||||
Total Hours – 45 | |||||
TEXT BOOKS: | |||||
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OUTCOMES: | |||||
The student should be able to
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SDG 7: We are exploring how universities promote and support clean energy, both through research, outreach, and also in their own behaviour and usage. |
BLDX 002 | HEALTH LAW | L | T | P | C |
SDG 3 | 3 | 1 | 0 | 4 | |
OBJECTIVES: | |||||
At the end of this course, the students will be able to :
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MODULE I | INTRODUCTION | 12 | |||
Concept of health – Different Systems of Medicine- – Right to health and Role of State- Healthcare as a state function – Human Rights perspective of health – International human rights documents on Health- WHO- Indian Constitutional perspective on health – Role of Law Reforming Commissions and Committees on health- Role of Indian Judiciary in securing right to health | |||||
MODULE II | RIGHTS AND DUTIES IN HEALTHCARE: ETHICAL AND MORAL CONSIDERATIONS | 12 | |||
Doctor- Patient Relationship- Rights and Duties of Practitioners and Healthcare Service providers- Healthcare Models- Medical Ethical theories: Hedonism, Utilitarianism, Intuitionism, Emotive theory, Moral and non-moral actions – Professional Ethics and standards- Professional Negligence & Abuse- Issues of Confidentiality -Relevance of Consent- Informed Consent – Laws on Healthcare Service Providers- Clinical Establishments Act 2010- Liability under Tort and Contract- Consumer laws on health services- Judicial Expositions |
MODULE III | MEDICAL LAWS IN INDIA | 12 |
General Laws – Medical Profession – National Commissions on all forms of Medicine – All Laws related to Medical Council- Central Council Act- Dental Council- Nursing Council -Pharmacy Council- Rehabilitation Council of India Act, 1992- and other statutory councils in healthcare Other Allied Medical Laws – Drug & Cosmetics- Magic Remedies Act- Narcotics & Psychotropic substances act- – Organ transplantation, Neo-Natal Care Laws- Mental Health – Disabled – old age, geriatric care – Medico- legal perspectives and judicial response- Epidemic Diseases Act | ||
MODULE IV | RIGHT TO HEALTH: LEGAL PERSPECTIVES | 12 |
Criminal Law and health- Relevant provisions of Evidence Act and IPC as applicable to the medical and healthcare professionals Environment Protection Laws and Health- Food laws and health measures- Occupational health Laws- Labour Legislations- Maternity Benefits Act- Health of Women & Children | ||
MODULE V | CONTEMPORARY CHALLENGES IN HEALTH LAW | 12 |
New Dimensions & Challenges in Health- New Drugs & Drug Validation- Clinical Trials- Biotechnology- Use & Abuse- Legal and ethical implications of stem cell research and therapy, cloning and genomic medical interventions, impact of genetic engineering in healthcare, patenting life forms- Patents and medical & surgical procedures- Novel Epidemics Diseases- Surrogacy etc. – Bio medical waste Management- Health insurance L:45; T:15; TOTAL HOURS – 60 | ||
REFERENCES A. ACTS
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OUTCOMES :
On successful completion of this course, the students must be able to :
- Familiarize and understand different areas of health law and related social
- Examine the problems in identifying the legal and ethical obligations of doctors, patients and such other allied professionals and to provide plausible remedies for the same
- To understand related provisions under constitution and other health related laws in framing the jurisprudence of
- Analyse the applicability of medical laws in the day-to-day life
- To familiarize public health and the related attributes of human rights
SDG 3: Ensuring healthy lives and promoting well-being at all ages is essential to sustainable development. There is an urgent need to fully eradicate a wide range of diseases and address many different persistent and emerging health issues. |
CAD 8106 | SOCIAL ENTREPRENEURSHIP | L | T | P | C |
SDG 8 | 3 | 0 | 0 | 3 | |
OBJECTIVES: | |||||
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MODULE I | SELF & OPPORTUNITY DISCOVERY | 9 |
Finding the flow, Effectuation, Entrepreneurial Style, Business Opportunities, Problem Identification, Design Thinking, Potential solutions, Presentation of the problem- Case Study | ||
MODULE II | CUSTOMER , SOLUTION AND BUSINESS MODEL | 9 |
Customers and Markets, Identification of Customer Segment, Niche Segment, Customers Jobs, Pain and Gain, Early Adopters, Value Proposition Canvas, Basics of Business Model and Lean Canvas, Risk and Assumptions. | ||
MODULE III | VALIDATION AND MONEY | 9 |
Blue Ocean Strategy, Solution Demo, Problem – Solution Fit, Minimum Viable Product- Product Market Fit, Prototype – Case Study. Cost, Revenues, Pricing, Profitability Checks, Bootstrapping, Initial Financing and Pitching. | ||
MODULE IV | TEAM BUILDING, MARKETING, SALES& SUPPORT | 9 |
Shared Leadership, Hiring, Fitment , Team Role and Responsibilities , collaboration Tools and Techniques, Positioning and Branding, Channels – Sales Planning, Selling Skills, Project Management, Project Tracking, Basic of Business Regulation, Startup. | ||
MODULE V | IMPACT OF SOCIAL ENTREPRENEURSHIP ON SOCIETIES AND CASES | 9 |
Impact of Social Entrepreneurship, NGO vs For-Profit Companies vs. Social Entrepreneurship. Procedures for registration of small scale industry, Overview of venture capital and angel investment, Social entrepreneurship report preparation by students. Case Study of Social Entrepreneurs | ||
Total Periods- 45 |
TEXT BOOKS
- Entrepreneurship Rajeev Roy oxford, 2012
- Learn wise platform – Wadhwani Foundation, 2018
- “Social Entrepreneurship and Social Business” Christine K Volkmann, Springer Gabler 2012
- The Process of social value creation: A multiple case study on Social Entrepreneurship in India, Archana Singh Springer 2016
REFERENCES
- Social Entrepreneurship” Manuel London, Routlege, 2012
- The Process of social value creation: A multiple case study on Social Entrepreneurship in India, Archana Singh Springer 2016
- “Anatomy of Business Plan” – Linda Pinson, OMIM publication, Seventh Edition, 2008
OUTCOMES:
On completion of the course, students will be able to
- Build an entrepreneurial mindset and reach out the customer to identify the problem using design thinking process
- Craft solution to the problem through value proposition canvas and develop a business model using lean canvas
- Provide product solution demo and deliver a minimum viable product
- Work as a team and create brand strategy marketing for product/service
- Prepare, make an outstanding sale pitch for
- Showcase the impact of Social Entrepreneurship on society and
SDG 8: The rise of precarious employment, modern slavery, and uneven growth has created threats to a sustainable future. Universities as employers can lead the way, as teachers can educate for the future, and as innovators can develop new and fairer ways of working. |
Policy for Partnerships for the Goals
Issue: 04; Revised on 2023
Policy Created on | July 2009 |
1st Revision amended on | IQAC Meeting held on 27th October 2017 |
2nd Revision amended on | IQAC Meeting held on 31st March 2021 |
3rd Revision amended on | IQAC Meeting held on 16th June 2023 |
17.1. OBJECTIVE
The primary objective of this policy is to establish and strengthen partnerships among universities, government bodies, NGOs, and the private sector to promote sustainable development through collaborative efforts, knowledge sharing, and resource mobilisation.
17.2 STATEMENT OF POLICY
The following metrics and indicators will guide the implementation of this policy.
- Research into Partnerships for the Goals: Increase the proportion of academic publications co-authored with low or lower-middle-income countries to foster global collaboration.
- Relationships to Support the Goals: Develop mechanisms to gather data on SDG progress and promote best practices through cross-sectoral dialogue.
- Publication of SDG Reports: Institutions must commit to publishing data on their performance against each of the 17 SDGs, ensuring transparency and accountability.
- Education for SDGs: Ensure a commitment to meaningful education around the SDGs across all university programs relevant to all students.
- Collaboration for SDG Best Practices: Engage in international collaboration to review and develop best practices for tackling the SDGs.
17.3 RESPONSIBILITIES
- Establish Collaborative Frameworks:
- Create Memoranda of Understanding (MoUs) with local and international organizations, NGOs, and government agencies to formalise partnerships.
- Engage in joint research initiatives that align with SDGs
- Enhance Sustainability Literacy:
- Integrate sustainability concepts into the curriculum across all disciplines, ensuring that students acquire the necessary knowledge, skills, and values to contribute to sustainable development.
- Implement workshops and training sessions for faculty and students to enhance understanding of the SDGs and their interconnections.
- Promote Cross-Sectoral Dialogue:
- Organize annual conferences and seminars that bring together stakeholders from academia, industry, and government to discuss progress, challenges, and innovative solutions related to the SDGs.
- Facilitate platforms for knowledge exchange, such as webinars and collaborative projects, to share best practices and successful case studies.
- Monitor and Evaluate Partnerships:
- Develop a robust monitoring and evaluation framework to assess the effectiveness of partnerships and their contributions to achieving the SDGs.
- Utilize data collected from partnerships to inform policy decisions and improve collaborative efforts.
17.4 IMPLEMENTATION
- Short-term (1-2 years): Establish partnerships, integrate sustainability literacy into the curriculum, and initiate cross-sectoral dialogues.
- Medium-term (3-5 years): Expand collaborative research projects, publish annual SDG reports, and evaluate the impact of partnerships.
- Long-term (5+ years): Foster a culture of sustainability within the institution and the community, ensuring ongoing commitment to the SDGs.
17.5 DISSEMINATION OF POLICY
. A. Signage and Visual Communication
- Campus Signage:
- Display clear and informative signage throughout the campus highlighting key aspects of the Partnerships for the Goals policy, focusing on sustainability practices.
- Utilize engaging visuals and infographics that effectively capture attention and communicate important messages.
B. Awareness Programs
- Regular Workshops and Seminars:
- Conduct awareness programs at regular intervals, including workshops, seminars, and training sessions to educate the campus community about the importance of partnerships for sustainability.
- Use interactive formats to promote engagement, encourage dialogue, and facilitate knowledge sharing among participants.
- Student and Faculty Involvement:
- Involve students and faculty in planning and executing awareness programs, fostering a sense of ownership and responsibility towards the policy’s implementation.
- Encourage student-led initiatives that promote collaboration and sustainability practices across campus.
C. Digital Communication
- Website Updates:
- Post the Partnerships for the Goals policy on the Institute’s official website, ensuring easy access for all stakeholders.
- Regularly update the webpage with new information regarding events, initiatives, and progress related to the policy.
- Social Media Engagement:
- Utilize social media platforms to raise awareness about the policy, share success stories, and promote upcoming events related to partnerships and sustainability.
- Create engaging content, including videos, infographics, and testimonials, to reach a broader audience and enhance visibility.
D . Key Performance Indicators (KPIs)
- Track the effectiveness of dissemination strategies through metrics.
17.6 ENFORCEMENT OF POLICY
a) The Dean of Schools and Head of the Departments monitor compliance and address breaches.
b) Awareness of the policy among students, staff, and visitors is essential.
c) Breaches may lead to disciplinary action per the Institute’s code of conduct.
REGISTRAR