UGC NET Questions (Paper – 1)

Norm-referenced assessment interprets an individual’s score relative to the distribution of scores in a defined group. It answers questions such as whether a student scored above or below average compared to peers. The stem clearly mentions comparison with other students,which is characteristic of norm-referenced approaches.

Option A:
Criterion-referenced assessment judges performance against fixed learning standards or objectives,rather than against other students’ scores.

Option B:
Diagnostic assessment is used to identify specific learning difficulties and their causes,not primarily to compare one learner’s performance with others.

Option C:
Norm-referenced interpretation is common in competitive exams where ranks and percentiles are reported,matching the comparison described in the stem.

Option D:
Ipsative assessment compares a learner’s current performance with their own past performance,not with that of others,so it is not appropriate here.

Kevalanvayi inference relies on a vyapti that is confirmed entirely through cases where both hetu and sadhya are present together, with no example of hetu existing without sadhya. The universality of the relation appears from the absence of counter-instances. This pattern is especially clear in cases where the hetu is coextensive with the broader class of the sadhya. Thus the inference in the stem is kevalanvayi.

Option A:
Option A, kevalavyatireki, is based solely on negative instances where both hetu and sadhya are absent together, and has no positive sapaksha examples, making it the opposite configuration.

Option B:
Option B, anvayavyatireki, uses both positive and negative instances and therefore does not restrict itself to only positive evidence.

Option C:
Option C is correct because kevalanvayi literally means "only by affirmative concomitance" and corresponds exactly to the case where there is no locus of hetu without sadhya. It highlights a particularly strong pattern of pervasion.

Option D:
Option D, samanyatodrsta, is a temporal and relational classification dealing with general uniformities rather than the specific structure of evidence for vyapti.

Catuṣkoṭi, or tetralemma, lays out four exhaustive possibilities regarding a statement: affirmation, denial, both and neither. Madhyamaka thinkers like Nāgārjuna use this structure to probe and deconstruct philosophical positions. By showing the difficulties that arise for each alternative, they reveal the emptiness of fixed views. The tetralemma thus functions as a powerful dialectical tool in Buddhist logic.

Option A:
Option A correctly lists the four logical options that define the catuṣkoṭi scheme.

Option B:
Option B reformulates the pattern in terms of scriptural and rational authority, which does not match the classical logical structure.

Option C:
Option C restricts the options to modes of cognition, whereas catuṣkoṭi is framed for general propositions.

Option D:
Option D uses permanence as a specific content area; catuṣkoṭi can be applied to such topics but is not defined by that single contrast.

Statements A, B and D correctly express principles of writing instructional objectives. A is true because action verbs such as “explain”, “classify” or “solve” describe observable behaviours. B is true as conditions (for example, “given a graph…”) clarify the context of performance. D is true because replacing vague verbs with specific ones makes objectives clearer and more assessable. C is wrong since specifying performance criteria helps teachers and learners know what level is expected, and E is wrong because overly broad, non-measurable objectives cannot effectively guide teaching or assessment. Thus C and E only are the wrong statements and form the correct answer.

Option A:
Option A picks C only and overlooks E, even though E also misguides objective writing by favouring unmeasurable statements. Since both C and E are incorrect, C only is not a complete answer.

Option B:
Option B selects E only and ignores C, which downplays the importance of performance standards in objectives. Because two statements are wrong, E only cannot be accepted.

Option C:
Option C groups B, C and E as wrong, but B is actually a correct guideline about including conditions in objectives. Including a true statement among wrong ones makes this option invalid.

Option D:
Option D correctly identifies C and E as the statements that conflict with established principles of behavioural objective writing. It keeps A, B and D separate as accurate statements, so C and E only is the correct option.

Option E adds A to the wrong set, even though A clearly describes a key feature of well-written objectives. Misclassifying A makes A, C and E only unacceptable.

The hexadecimal system has base 16, and 16 equals 2⁴. This means each hex digit corresponds exactly to a group of four bits. This makes hexadecimal a convenient shorthand for binary because each nibble maps to one hex digit.

Option A:
Option A correctly uses the identity 16 = 2⁴ to justify the four-bit groupings. It explains why 4-bit nibbles are natural units when representing binary values in hexadecimal form.

Option B:
Option B, 3, is associated with the octal system, where 8 = 2³ and each digit maps to three bits. It does not apply to base 16.

Option C:
Option C, 2, would yield only four combinations, insufficient to represent 16 different hex symbols (0–9 and A–F).

Option D:
Option D, 8, overestimates the bits per hex digit and would allow 256 combinations, which is far beyond the 16 needed.

Statements A, B, D and E are correct because they capture the core definition and policy tools of a green economy. It links well-being and equity with reduced environmental risks, uses investments in low-carbon and efficient sectors, employs fiscal reforms and supports SMEs and innovation. Statement C is false because employment and decent work are central to just transition debates, and F is false because green economy strategies are explicitly related to SDGs on energy, industry, consumption and more. Thus, the correct combination is A, B, D and E only.

Option A:
Option A is incomplete as it leaves out D and E, thereby ignoring crucial instruments and actors in green transitions. It focuses only on goals and investment directions without mentioning supportive fiscal and enterprise policies.

Option B:
Option B is correct since it groups all the true statements and excludes C and F, which marginalise employment and SDG linkages. It presents a balanced view of green economy as both environmental and socio-economic in orientation.

Option C:
Option C is incorrect because it includes F and omits A. Accepting F would sever the clearly stated connections between green economy and SDGs, while leaving out A removes the foundational definition relating well-being and equity.

Option D:
Option D is incorrect as it again includes F and omits B. This removes the important role of renewable energy and sustainable transport from the picture while retaining a false claim about SDG disconnection.

A, C, D and E are correct; B is false. Appeals to authority can be reasonable if the authority is relevant and expert; they become fallacious when irrelevant (e.g., celebrities on technical issues). UGC NET tests spotting relevance and expertise.

Option A:
Option A is correct because it includes the true, nuanced statements and excludes B (the incorrect blanket claim).

Option B:
Option B is incomplete because it omits C (checking expertise), which is true and central.

Option C:
Option C is incomplete because it omits A (proper authority can be reasonable), which is true.

Option D:
Option D is incorrect because it includes B (false).

Horizontal communication occurs between members of the same hierarchical level to coordinate activities and share information. Teachers in the same department generally occupy similar positions. When they discuss internal assessments,the information moves laterally,so it is horizontal communication.

Option A:
Upward communication would flow from teachers to the principal or higher authorities.

Option B:
Horizontal communication is lateral exchange among peers at the same level,so it suits teacher to teacher coordination.

Option C:
Diagonal communication would cut across both levels and units,such as a teacher contacting finance staff directly.

Option D:
External communication refers to messages between the institution and outside stakeholders,which is not the case here.

A base-8 number system uses eight distinct digit symbols, typically 0 through 7. Such a system is called the octal number system. Octal is sometimes used as a compact representation of binary by grouping bits in threes. Hence, the correct alternative name for base 8 is octal.

Option A:
Option A, binary, refers to base 2 and is limited to digits 0 and 1. This does not align with the eight digits used in base 8.

Option B:
Option B is correct because "oct" denotes eight, reflecting the eight symbols 0–7 used in this system. It is a well-established term in digital electronics.

Option C:
Option C, decimal, corresponds to base 10 with digits 0–9. This system is unrelated to base 8 in terms of the number of symbols.

Option D:
Option D, hexadecimal, is base 16 and uses both digits and letters up to F. It uses many more symbols than an octal system.

The policy restructures HEIs into three types based on their functions. Type 1 focuses on research and teaching, Type 2 primarily on high-quality teaching with some research and Type 3 on degree-granting colleges that may evolve into universities. Affiliation is to be phased out over time.

Option A:
This option summarises the three-category model exactly as NEP frames it.

Option B:
Schools and coaching centres fall outside the HEI types described for higher education.

Option C:
Affiliated colleges as a separate category are to be transformed into autonomous degree-granting institutions.

Option D:
Distance centres may exist within these types but are not themselves the basic institutional categories.

Statements A, C, D and E describe key features of three-set Venn diagrams. A is correct because three sets generate 2³ = 8 possible membership combinations. C is true as the triple intersection appears where all three circles overlap. D correctly states that the union collects elements belonging to at least one of the sets. E is also correct in survey contexts where the region outside all circles stands for those having none of the properties. B is false since “A only” must exclude elements that also belong to B or C, so the correct combination is A, C, D and E only.

Option A:
Option A is correct because it gathers all the true statements and excludes B, which misdefines the “A only” region by including members of B and C. It captures the structure and interpretation of three-set Venn diagrams used in survey and counting questions.

Option B:
Option B is incomplete as it omits E, ignoring the important role of the outside region for respondents with none of the attributes. Without E, the account of all regions relevant to survey interpretation is not comprehensive.

Option C:
Option C is incorrect because it includes B along with A, C and D, thereby accepting the wrong description of “A only”. Even one incorrect statement within the combination makes the whole option invalid.

Option D:
Option D is wrong as it features B and therefore carries forward the same misunderstanding of exclusive regions, while also omitting A, which states the basic partitioning into eight regions. This mix of omission and error makes the option unsuitable.

Statements A, B and C correctly explain common ICT abbreviations, while statement D is incorrect. URL, HTML and IP address are standard terms related to web addressing, markup and logical identification of devices. ISP actually stands for Internet Service Provider, not Internet Service Password. Therefore, the set of correct statements consists of A, B and C only.

Option A:
Option A is correct because it includes precisely the three true statements and excludes D. It aligns with widely accepted definitions of URL, HTML and IP address. By not accepting the wrong expansion of ISP in statement D, this option remains factually accurate.

Option B:
Option B is incorrect because it lists only A and B as correct, leaving out C. Statement C is also true, since IP addresses uniquely identify devices at the logical level. Any correct answer must include all three true statements.

Option C:
Option C is incorrect because it groups B, C and D as correct. While B and C are accurate, D is wrong, as ISP does not stand for Internet Service Password. Including a false statement invalidates this combination.

Option D:
Option D is incorrect because it accepts all four statements as correct, thus endorsing the incorrect explanation of ISP in D. A valid answer must exclude that misdefinition.

Each term after the first is obtained by doubling the previous term and subtracting 2. We see 3 × 2 − 2 = 4, 4 × 2 − 2 = 6, 6 × 2 − 2 = 10, 10 × 2 − 2 = 18 and 18 × 2 − 2 = 34. Applying the same rule to 34 yields 34 × 2 − 2 = 68 − 2 = 66. This keeps the recursive structure intact.

Option A:
Option A gives 62, which would correspond to subtracting 6 after doubling 34 and introduces a new constant that does not appear in earlier steps. Thus, 62 is not consistent with the recursive rule.

Option B:
Option B offers 64, equal to 34 × 2 − 4, which again changes the subtractive constant and conflicts with the uniform "minus 2" operation. Therefore, 64 cannot be accepted as correct.

Option C:
Option C yields 66, exactly equal to 34 × 2 − 2, and fits the observed pattern at every stage. The series 3, 4, 6, 10, 18, 34, 66 remains governed by a single clear transformation. Hence, 66 is the correct next term.

Option D:
Option D suggests 68, which is simply 34 × 2 and omits the subtraction of 2 found throughout the series. This breaks the rule that defines the sequence. Therefore, 68 is not appropriate.

A common convention in CBCS-based regulations is that one credit for practical or laboratory work corresponds to about two hours of lab engagement per week. This recognises that practical classes often require more time for set-up and hands-on work than lecture hours. The stem refers specifically to credit equivalence for practical work, and “two” hours is the widely used norm in many universities. Hence, Option C is the best answer.

Option A:
Half an hour per week would be far too little to justify one full credit of practical learning and does not reflect actual practice. Therefore, Option A is not reasonable in the context of higher education norms.

Option B:
One and a half hours might be used in some alternative schemes, but the commonly cited CBCS norm for practicals is two hours per credit. Thus, Option B is less accurate than Option C.

Option C:
Option C is correct because (in many CBCS implementations) 1 practical credit is conventionally mapped to around 2 laboratory contact hours per week.

Option D:
Allocating five hours of laboratory work to a single credit would distort the balance between practical and theory courses in students’ overall workload and is rarely used in CBCS norms. Therefore, Option D is incorrect.

Statements A, C and D correctly indicate how ICT supports higher education. Statement A is true because ICT tools allow blending classroom instruction with online components. Statement C is correct since Learning Management Systems help deliver content, monitor learner progress and enable communication between teachers and students. Statement D is also true as ICT facilitates flexible and lifelong learning through online courses and open educational resources, while statement B is false because digital divides and resource constraints prevent automatic equal access.

Option A:
Option A is incorrect because it includes only A and C and omits D. Flexible and lifelong learning opportunities are a major advantage of ICT in higher education, and excluding D leaves out this important dimension.

Option B:
Option B is correct because it combines A, C and D, presenting a rounded view of ICT’s role in blended learning, course management and lifelong learning. By excluding B, it recognises that structural inequalities limit equal access despite ICT’s potential. This makes it the only fully accurate option.

Option C:
Option C is incorrect because it includes statement B along with C and D. While C and D are true, B wrongly asserts automatic equality of access through ICT, ignoring disparities in connectivity and devices. Hence this combination cannot be accepted.

Option D:
Option D is incorrect because it selects A, B and D and drops C. Leaving out the central role of Learning Management Systems weakens the description, and including B imports the incorrect assumption of automatic equal access.