Thursday, 30 October 2025

ANU Bachlor of Fine Arts 2nd, 3rd, 4th Year Reg/Supply Exams Nov 2025 Revised Time Tables

 ANU Bachlor of Fine Arts 2nd, 3rd, 4th Year Reg/Supply Exams Nov 2025 Revised Time Tables are now available, the candidates who are looking for official time tables can download from here

ANU BFA Revised Time-Table November 2025 Released | Download PDF | 1st, 2nd, 3rd & 4th Year Exams

Acharya Nagarjuna University (ANU), Guntur has officially released the Revised Time-Table for Bachelor of Fine Arts (BFA) Examinations – November 2025 for Regular & Supply students.
Students pursuing BFA under R-22 & R-23 regulations can now check their updated exam dates and schedule.

These exams are for I/IV, II/IV, III/IV & IV/IV BFA semesters and include Art History, Aesthetics, Psychology, Culture & Research-based papers

Exam Details

Category Details
University Acharya Nagarjuna University (ANU)
Course BFA – Bachelor of Fine Arts
Exam Session November 2025
Year / Semester 1st, 2nd, 3rd & 4th Year
Regulations R-22 / R-23
Mode Offline
Timing FN: 10:00 AM – 1:00 PM SAN: 02:00 PM – 05:00 PM


ANU BFA 1st Year – Revised Time-Table (I Sem – Regular) R-23

Date Day Subject
03-11-2025 Monday Art History – 3
05-11-2025 Wednesday Colour Theory
07-11-2025 Friday Ethics & Self-Awareness


ANU BFA 2nd Year – Revised Time-Table (II Sem – Supply) R-23

Date Day Subject
03-11-2025 Monday Art History – 4
05-11-2025 Wednesday Indian Aesthetics
07-11-2025 Friday Psychology


ANU BFA 3rd Year – Revised Time-Table (I Sem – Regular) R-23

Date Day Subject
04-11-2025 Tuesday Art History – 5
06-11-2025 Thursday Western Aesthetics
10-11-2025 Monday Indian Heritage & Culture

ANU BFA 3rd Year – Revised Time-Table (II Sem – Supply) R-22

Date Day Subject
04-11-2025 Tuesday Art History – 6
06-11-2025 Thursday Folk Arts & Crafts of India
10-11-2025 Monday Iconography of Semiotics

ANU BFA 4th Year – Revised Time-Table (I Sem – Regular) R-22

Date Day Subject
11-11-2025 Tuesday Art History – 7
12-11-2025 Wednesday Art Criticism
13-11-2025 Thursday Research Methodology

 ANU Bachlor of Fine Arts 2nd, 3rd, 4th Year Reg/Supply Exams Nov 2025 Revised Time Tables

Wednesday, 29 October 2025

Challenges in Building Intelligent Systems – Data, Ethics, and Resources

Developing intelligent systems faces substantial challenges in three areas: Data; Resources; Ethics. The quality, quantity, and legal compliance of data used to train an artificial intelligence (AI) greatly influence its effectiveness and efficiency; considerable resources are also required to develop and deploy AI systems.

Challenges related to Data

The better the data the AI has been trained upon the more effective the AI will be. Poorly constructed data may result in either inaccurately formed or distorted data-driven results which could cost millions in potential losses.

Data Quality Issues: Data errors, noisy data, and inconsistent data can cause an AI model to produce results that are not reliable. In many cases, low data quality could cause an AI model to lose up to 40% of its accuracy.

Data Quantity: While many AI models can utilize smaller amounts of data, more advanced AI models such as deep learning models typically require substantial amounts of data to learn and operate properly. This creates substantial barriers for start-ups and/or start-up businesses who have limited access to high-quality and well-labeled large quantities of data.

Data Fragmentation & Silos: Many companies possess valuable data that is located across multiple departmental/organizational systems and therefore, is difficult to gather into one dataset to allow for developing and training of robust AI models.

Data Privacy Concerns & Security Risks: AI systems frequently rely on user data that is highly sensitive and therefore create serious concerns regarding users' privacy and/or possible security breaches. Therefore, developers need to develop secure infrastructures and comply with emerging regulatory frameworks that govern how to protect users' data (i.e., GDPR).

Data Lifecycle Management: The time-consuming and resource intensive processes involved in cleaning, verifying, and standardizing data are estimated to consume approximately 60-80 percent of the total time and resources of an AI project. Furthermore, if no governing policies are developed and enforced, data problems can compound over time.

Ethical challenges

As intelligent systems become more capable and autonomous, the ethical implications of their decisions and societal impact become more pressing. 

Algorithmic bias: If training data reflects historical or societal biases, the AI system will learn and perpetuate them. This can result in unfair discrimination in critical areas like hiring, loan approvals, or criminal justice decisions. 

Lack of transparency and explainability: The complex nature of advanced AI models often creates a "black box" where it is difficult to understand how a decision was reached. This lack of interpretability erodes trust and makes it challenging to hold the system accountable for errors.

Accountability and responsibility: Assigning legal and moral responsibility when an AI system causes harm is complex, especially as systems become more autonomous. It is often unclear whether the blame lies with developers, owners, or the system itself.

Misinformation and manipulation: AI can be exploited to generate convincing deepfakes and spread disinformation at scale, posing risks to media credibility and democratic processes.

Data privacy vs. personalization: Developers must balance the need to protect personal data with the use of that data for personalization and behavioral nudging. This requires clear consent and robust security to prevent data misuse.

Resource-related challenges

Intelligent systems are resource-intensive, requiring specialized technology, skilled personnel, and large-scale investment.

High costs: Developing and deploying sophisticated AI models demands significant financial investment in computing infrastructure, talent acquisition, and data processing. These high upfront and ongoing costs create a divide between tech leaders and smaller businesses.

Computational power: Training and running large AI models require immense computational power, consuming vast amounts of electricity and contributing to carbon emissions. The energy consumption of data centers and the environmental impact of e-waste are growing concerns.

Talent shortage: There is a significant global shortage of qualified AI and machine learning professionals. This talent gap hinders innovation and makes it difficult for many organizations to build and scale their intelligent systems effectively.

Integration with legacy systems: Many companies rely on outdated IT infrastructure that is not compatible with modern AI solutions. Integrating new AI models with existing legacy systems can be complex, time-consuming, and expensive.

Real-time processing: For applications like self-driving cars or medical monitoring, real-time decision-making is critical but difficult to achieve due to latency and computational limits

Industry Applications of AI – Healthcare, Agriculture, Education & Beyond

Here’s a clear, structured overview of the Industry Applications of Artificial Intelligence (AI) — spanning Healthcare, Agriculture, Education, and other major sectors (“Beyond”):

1. Healthcare

AI has revolutionized the medical sector by improving diagnosis, treatment, and patient management.
Key applications:

  • Medical Imaging & Diagnostics: CNN and Transformer-based models detect diseases from X-rays, MRIs, and CT scans (e.g., cancer, pneumonia, COVID-19).

  • Predictive Analytics: ML models predict patient readmissions, disease outbreaks, or treatment outcomes.

  • Drug Discovery: Deep learning accelerates molecular design and drug-target interaction prediction.

  • Personalized Medicine: AI tailors treatments based on genetic data and patient history.

  • Virtual Assistants: Chatbots help patients schedule visits, track medications, and get mental health support.

2. Agriculture

AI is powering precision farming, enabling farmers to increase yield while reducing costs.
Key applications:

  • Crop Disease Detection: CNN-based systems (like your research on ensemble deep learning) identify leaf diseases in real-time.

  • Smart Irrigation: AI-driven IoT systems optimize water use based on soil moisture and weather data.

  • Yield Prediction: Regression and ML models estimate yield and recommend fertilizers.

  • Weed and Pest Control: Drones and computer vision detect weeds and pests for targeted pesticide use.

  • Supply Chain Optimization: AI enhances logistics and pricing decisions using predictive analytics.

3. Education

AI enhances both teaching and learning through adaptive, data-driven systems.
Key applications:

  • Personalized Learning: AI adjusts lesson plans based on student performance and learning style.

  • Automated Grading: NLP-based systems evaluate essays and assignments efficiently.

  • AI Tutors & Chatbots: Provide 24/7 academic support and instant answers to student queries.

  • Administrative Automation: Scheduling, attendance, and record-keeping handled by AI tools.

  • Learning Analytics: Predict student dropout risks and recommend interventions.

4. Beyond (Other Sectors)

AI’s influence extends across almost every industry:

  • Finance: Fraud detection, algorithmic trading, credit scoring.

  • Manufacturing: Predictive maintenance, quality inspection, robotic automation.

  • Transportation: Self-driving vehicles, route optimization, smart traffic systems.

  • Retail: Demand forecasting, customer segmentation, recommendation systems.

  • Energy: Smart grids, power consumption forecasting, and renewable energy optimization.

  • Security: Facial recognition, intrusion detection, and cybersecurity analytics.

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