| [ | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 6, | |
| "question": "The figure below shows the front and rear view of a disc, which is shaded with identical patterns. The disc is flipped once with respect to any one of the fixed axes 1-1, 2-2 or 3-3 chosen uniformly at random. What is the probability that the disc DOES NOT retain the same front and rear views after the flipping operation?", | |
| "options": [ | |
| "0", | |
| "1/3", | |
| "2/3", | |
| "1" | |
| ], | |
| "answer": 2, | |
| "image_png": "ee_question_5.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 10, | |
| "question": "An ant is at the bottom-left corner of a grid (point P) as shown above. It aims to move to the top-right corner of the grid. The ant moves only along the lines marked in the grid such that the current distance to the top-right corner strictly decreases. Which one of the following is a part of a possible trajectory of the ant during the movement?", | |
| "options": [ | |
| "A", | |
| "B", | |
| "C", | |
| "D" | |
| ], | |
| "answer": 2, | |
| "image_png": "ee_question_10.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 11, | |
| "question": "The transfer function of a real system, 𝐻(𝑠), is given as in the figure. This system cannot operate as:", | |
| "options": [ | |
| "low pass filter.", | |
| "high pass filter.", | |
| "band pass filter.", | |
| "an integrator." | |
| ], | |
| "answer": 1, | |
| "image_png": "ee_question_11.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 14, | |
| "question": "The geometric mean radius of a conductor, having four equal strands with each strand of radius ‘𝑟’, as shown in the figure below, is", | |
| "options": [ | |
| "4 𝑟", | |
| "1.414 𝑟", | |
| "2 𝑟", | |
| "1.723 𝑟" | |
| ], | |
| "answer": 3, | |
| "image_png": "ee_question_14.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 16, | |
| "question": "The steady state output (𝑉ₒᵤₜ), of the circuit shown below, will", | |
| "options": [ | |
| "saturate to +VDD", | |
| "saturate to -VEE", | |
| "become equal to 0.1 V", | |
| "become equal to –0.1 V" | |
| ], | |
| "answer": 1, | |
| "image_png": "ee_question_16.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 17, | |
| "question": "The Bode magnitude plot of a first order stable system is constant with frequency. The asymptotic value of the high frequency phase, for the system, is −180°. This system has", | |
| "options": [ | |
| "one LHP pole and one RHP zero at the same frequency.", | |
| "one LHP pole and one LHP zero at the same frequency.", | |
| "two LHP poles and one RHP zero.", | |
| "two RHP poles and one LHP zero." | |
| ], | |
| "answer": 0, | |
| "image_png": "ee_question_17.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 21, | |
| "question": "In the circuit shown below, a three-phase star-connected unbalanced load is connected to a balanced three-phase supply of 100√3 𝑉 with phase sequence 𝐴𝐵𝐶. The star connected load has 𝑍A = 10 Ω and 𝑍B = 20∠60° Ω. The value of 𝑍(cid:3004) in Ω, for which the voltage difference across the nodes 𝑛 and 𝑛′ is zero, is", | |
| "options": [ | |
| "20∠−30°", | |
| "20∠30°", | |
| "20∠−60°", | |
| "20∠60°" | |
| ], | |
| "answer": 2, | |
| "image_png": "ee_question_21.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 25, | |
| "question": "For the circuit shown below with ideal diodes, the output will be", | |
| "options": [ | |
| "𝑉ₒᵤₜ = 𝑉ᵢₙ for 𝑉ᵢₙ > 0", | |
| "𝑉ₒᵤₜ = 𝑉ᵢₙ for 𝑉ᵢₙ < 0", | |
| "𝑉ₒᵤₜ = - 𝑉ᵢₙ for 𝑉ᵢₙ > 0", | |
| "𝑉ₒᵤₜ = - 𝑉ᵢₙ for 𝑉ᵢₙ < 0" | |
| ], | |
| "answer": 0, | |
| "image_png": "ee_question_25.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 36, | |
| "question": "The output impedance of a non-ideal operational amplifier is denoted by Zₒᵤₜ. The variation in the magnitude of Zₒᵤₜ with increasing frequency, f, in the circuit shown below, is best represented by", | |
| "options": [ | |
| "A", | |
| "B", | |
| "C", | |
| "D" | |
| ], | |
| "answer": 2, | |
| "image_png": "ee_question_36.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 37, | |
| "question": "An LTI system is shown in the figure. The values of ‘𝑎’ and ‘𝑏’ will be", | |
| "options": [ | |
| "𝑎 = 1, 𝑏 = 10", | |
| "𝑎 = 10, 𝑏 = 1", | |
| "𝑎 = 1, 𝑏 = 100", | |
| "𝑎 = 100, 𝑏 = 1" | |
| ], | |
| "answer": 0, | |
| "image_png": "ee_question_37.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 38, | |
| "question": "The open loop transfer function of a unity gain negative feedback system is given as 𝐺(𝑠) = 1/𝑠(𝑠+1). The Nyquist contour in the 𝑠-plane encloses the entire right half plane and a small neighbourhood around the origin in the left half plane, as shown in the figure below. The number of encirclements of the point (−1 + 𝑗0) by the Nyquist plot of 𝐺(𝑠), corresponding to the Nyquist contour, is denoted as 𝑁. Then 𝑁 equals to", | |
| "options": [ | |
| "0", | |
| "1", | |
| "2", | |
| "3" | |
| ], | |
| "answer": 1, | |
| "image_png": "ee_question_38.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 39, | |
| "question": "The damping ratio and undamped natural frequency of a closed loop system as shown in the figure, are denoted as 𝜁 and 𝜔ₙ, respectively. The values of 𝜁 and 𝜔ₙ", | |
| "options": [ | |
| "𝜁 = 0.5 and 𝜔ₙ = 10 rad/s", | |
| "𝜁 = 0.1 and 𝜔ₙ = 10 rad/s", | |
| "𝜁 = 0.707 and 𝜔ₙ = 10 rad/s", | |
| "𝜁 = 0.707 and 𝜔ₙ = 100 rad/s" | |
| ], | |
| "answer": 0, | |
| "image_png": "ee_question_39.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 44, | |
| "question": "The current gain (Iout/Iin) in the circuit with an ideal current amplifier given below is", | |
| "options": [ | |
| "𝐶բ/𝐶꜀", | |
| "-𝐶բ/𝐶꜀", | |
| "𝐶꜀/𝐶բ", | |
| "-𝐶꜀/𝐶բ" | |
| ], | |
| "answer": 2, | |
| "image_png": "ee_question_44.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 48, | |
| "question": "Consider the system as shown below. The system is", | |
| "options": [ | |
| "linear and causal.", | |
| "linear and non-causal.", | |
| "non-linear and causal.", | |
| "non-linear and non-causal." | |
| ], | |
| "answer": 1, | |
| "image_png": "ee_question_48.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 51, | |
| "question": "The current gain (Iout/Iin) in the circuit with an ideal current amplifier given below isLet 𝑅 be a region in the first quadrant of the 𝑥𝑦 plane enclosed by a closed curve 𝐶 considered in counter-clockwise direction. Which of the following expressions does not represent the area of the region 𝑅?", | |
| "options": [ | |
| "A", | |
| "B", | |
| "C", | |
| "D" | |
| ], | |
| "answer": 2, | |
| "image_png": "ee_question_51.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| }, | |
| { | |
| "language": "en", | |
| "country": "India", | |
| "file_name": "ee_2022.pdf", | |
| "source": "https://gate.iitkgp.ac.in/documents/gatepapers/2022/ee_2022.pdf", | |
| "license": "Education and Research", | |
| "level": "Graduate Aptitude Test in Engineering (GATE)", | |
| "category_en": "Electrical Engineering", | |
| "category_original_lang": "विद्युत अभियन्त्रण", | |
| "original_question_num": 53, | |
| "question": "As shown in the figure below, two concentric conducting spherical shells, centered at r = 0 and having radii r = c and r = d are maintained at potentials such that the potential V(r) at r = c is V₁ and V(r) at r = d is V₂. Assume that V(r) depends only on r, where r is the radial distance. The expression for V(r) in the region between r = c and r = d is", | |
| "options": [ | |
| "A", | |
| "B", | |
| "C", | |
| "D" | |
| ], | |
| "answer": 1, | |
| "image_png": "ee_question_53.png", | |
| "image_information": "essential", | |
| "image_type": "diagram", | |
| "parallel_question_id": null | |
| } | |
| ] |