eep April 7, 2025 NEC 200-285 NEC Quizzes Report a question What’s wrong with this question? You cannot submit an empty report. Please add some details. 0% Article 200-285 Part01 This comprehensive quiz contains 50 questions carefully selected from the National Electrical Code (NEC) Articles spanning 200 through 285. These articles cover a broad spectrum of vital topics related to electrical installations within this section of the code. The questions in this quiz are chosen randomly to provide a thorough assessment of your knowledge across these essential NEC articles. While we strive for a diverse set of questions, some fundamental principles may be revisited in different contexts due to their relevance to multiple sections within this range. This approach ensures a robust evaluation of your understanding. We encourage you to actively participate and provide feedback. If you identify any issues or have suggestions for improving the quiz questions, please report them. Your contributions are invaluable in helping us maintain the accuracy and effectiveness of these learning resources. Supervised installations allow specific flexibility. 1 / 50 What is the minimum ampacity requirement for branch-circuit conductors in supervised installations per 235.19(B)? a. Determined under engineering supervision. b. Always 125% of the load. c. Only applies to noncontinuous loads. d. Based on 100% of the load. Incorrect. Supervised installations permit engineering Correct! Engineering supervision allows customized ampacity calculations. Qualified personnel under engineering supervision may size conductors in supervised installations. Certain transformer types are excluded from this article. 2 / 50 What is the scope of NEC Article 450 (450.1)? a. All transformers except those explicitly excluded in the article. b. All transformers without exceptions. c. Only high-voltage transformers above 1000 volts. d. Transformers used exclusively in motor control circuits. Incorrect. The scope excludes specific types of transformers as listed. Correct! It applies to all transformers except explicitly excluded types. NEC Article 450 covers the installation of all transformers, except for exclusions such as current transformers, X-ray apparatus transformers, and others listed in 450.1. Article 245 focuses on specific overcurrent protection. 3 / 50 What is the scope of Article 245? a. Overcurrent protection requirements for systems rated over 1000 volts AC or 1500 volts DC. b. Transformer protection guidelines for high-voltage systems. c. Wiring methods for high-voltage installations. d. Overvoltage protection for medium-voltage systems. Incorrect. The focus is on overcurrent protection, not overvoltage or wiring methods Correct! Article 245 addresses overcurrent protection for systems over 1000 volts AC or 1500 volts DC. Article 245 outlines the requirements for protecting high-voltage systems from overcurrent conditions. The interrupting rating must align with the maximum fault current. 4 / 50 What is the interrupting rating requirement for circuit breakers under a. Must match the transformer rating. b. Must always exceed 10,000 amperes. c. Must not be less than the available fault current at the installation point. d. Must be rated for at least 80% of available fault current. Incorrect. The rating must match or exceed the available fault current. Correct! The interrupting rating ensures safety during fault conditions. Circuit breakers must have an interrupting rating that equals or exceeds the available fault current to ensure safe fault interruption. Focus on equipment critical for safety. 5 / 50 What equipment is explicitly prohibited from being reconditioned per 240.2(A)? a. Circuit breaker trip units over 100 amps. b. Circuit breaker trip units over 100 amps. c. Ground-fault circuit interrupters and molded-case circuit breakers.1 d. Transformer primary conductors. Incorrect. Reconditioning of these safety-critical devices is not allowed. Correct! Reconditioning of GFCIs and molded-case circuit breakers is prohibited Reconditioning certain equipment like GFCIs and molded-case circuit breakers is prohibited due to reliability and safety concerns. Moisture protection is critical for enclosures in such locations. 6 / 50 What is required for circuit breaker enclosures in damp or wet locations (240.32)? a. Compliance with 312.2 for enclosure specifications. b. Installation at least 6 feet above ground level. c. No special requirements. d. Use of grounded enclosures only. Incorrect. Refer to 312.2 for enclosure requirements. Correct! Enclosures must comply with 312.2 for damp or wet conditions. Enclosures in damp or wet locations must meet specific standards to prevent moisture ingress and maintain safety. Wiring methods for industrial circuits. 7 / 50 What does Article 240 primarily address? a. General requirements for overcurrent protection and overcurrent devices. b. Voltage drop calculations for branch circuits. c. Wiring methods for industrial circuits. d. Circuit breaker installation for low-voltage systems. Incorrect. This article is about overcurrent protection, not voltage drop or wiring methods. Correct! Article 240 focuses on overcurrent protection and devices. Article 240 outlines requirements for protecting conductors and equipment against excessive current. Branch circuits must meet specific load and outlet requirements. 8 / 50 How are branch circuits supplying multiple outlets rated per 235.23(A) a. By the size of the smallest outlet connected. b. They must comply with load and usage requirements of 210.23 and 210.24. c. As general-purpose circuits only. d. By the total connected load. Incorrect. Follow the load and usage rules in Articles 210.23 and 210.24. Correct! NEC outlines precise requirements for multiple-outlet branch circuits. High-voltage circuits with multiple outlets must align with the NEC’s general load requirements. The shape aids in distinguishing fuse ratings. 9 / 50 How must plug-type fuses under 15 amps be identified (240.50(C))? a. Identification is optional for these fuses. b. By using a circular base design. c. By using color-coded caps. d. By a hexagonal configuration of the window or cap. Incorrect. Hexagonal configuration is required for these fuses. Correct! Hexagonal shapes help identify fuses under 15 amps. A hexagonal configuration is used to distinguish low-amperage fuses from higher-rated fuses. Fuses require detailed labeling for proper use. 10 / 50 What marking must all fuses carry (240.60(C))? a. Only the voltage rating is mandatory. b. Ampere rating and manufacturer only. c. Color-coded rating for quick identification. d. Ampere rating, voltage rating, and interrupting rating where applicable. Incorrect. All three ratings are required for safe and proper usage. Correct! Fuses require ampere, voltage, and interrupting ratings. Fuses must include their ampere, voltage, and interrupting ratings to ensure proper application. The marking ensures clarity for critical ratings. 11 / 50 What marking is required for fuseholders as per 245.21(B)(4)? a. Permanent and legible nameplates showing type, continuous current rating, interrupting rating, and maximum voltage rating. b. Temporary stickers with amperage ratings. c. Identification is optional for high-voltage applications. d. Color-coded labels. Incorrect. Temporary or optional markings are not sufficient for fuseholders. Correct! Permanent markings provide essential information for safe operation. Fuseholders must have permanent markings to indicate their ratings and compatibility, ensuring proper application. Safety from fire hazards is paramount. 12 / 50 What is required for overcurrent protection devices installed near ignitable material (240.24(D))? a. They must not be located in the vicinity of easily ignitable materials. b. They must be mounted vertically. c. No additional requirements apply. d. They must include a thermal protector. Incorrect. Devices must not be near easily ignitable materials Correct! Ignitable materials pose fire risks if located near overcurrent devices. Overcurrent devices must be located away from ignitable materials to reduce fire risk. Prevention of tampering is key. 13 / 50 What requirement applies to Type S fuseholders (240.54(C))? a. They must allow use of Edison-base fuses. b. Installation requirements are optional. c. They can be used with any plug-type fuse. d. They must prevent removal once installed. Incorrect. Type S fuseholders must prevent removal after installation. Correct! Nonremovable fuseholders ensure tamper resistance. Type S fuseholders must remain in place to prevent tampering and ensure proper fuse use. Short and direct paths improve SPD performance. 14 / 50 What is required for the grounding conductor of an SPD (242.24)? a. Must be insulated with a high-temperature rating. b. No grounding is required for SPDs. c. Must be as short as possible and avoid unnecessary bends. d. Must include multiple bends for flexibility. Incorrect. Grounding conductors must minimize length and bends. Correct! Short, direct paths enhance SPD effectiveness. Minimizing conductor length and bends reduces impedance, improving SPD efficiency. Supply-side connections are allowed for this type of SPD. 15 / 50 Where can Type 1 SPDs be installed per 242.13? a. Only in industrial applications. b. Anywhere in the circuit, without restriction. c. Only on the load side of the service disconnect. d. On the supply side of the service disconnect as permitted in 230.82(4). Incorrect. Type 1 SPDs are permitted on the supply side under specific conditions. Correct! Type 1 SPDs can be installed upstream of the service disconnect. Type 1 SPDs can be installed on the supply side of the service disconnect for whole system protection. Overhead spans must ensure mechanical strength and reliability. 16 / 50 What is the minimum size for open individual conductors in overhead spans per 235.306? a. 8 AWG copper or 6 AWG aluminum. b. 6 AWG copper or 4 AWG aluminum. c. 10 AWG copper or 8 AWG aluminum. d. 12 AWG copper or 10 AWG aluminum. Incorrect. Check the specified minimum sizes for overhead spans Correct! Conductors must be at least 6 AWG copper or 4 AWG aluminum. Conductors in overhead spans must meet minimum size requirements for durability and safety Indication is not required. 17 / 50 How must SPDs indicate functionality per 242.9? a. By providing a physical test button. b. With an indication that they are functioning properly. c. Indication is not required. d. By using a color-coded label. Incorrect. SPDs require an indication of proper operation. Correct! Proper functionality indication is mandatory for SPDs. SPDs must provide clear indications, such as lights or alarms, to show they are functioning correctly. Short runs still require specific protections. 18 / 50 How must overcurrent protection be provided for transformer secondary conductors not exceeding 3 meters (10 feet) in length (240.21(C))? a. By installing additional fuses at midpoint distances. b. By primary overcurrent protection only. c. No overcurrent protection is required for short runs. d. By ensuring the secondary conductor ampacity meets or exceeds the calculated load and is enclosed in a raceway. Incorrect. The 10-foot rule includes ampacity and enclosure requirements. Correct! Ampacity and raceway requirements apply for short secondary conductors. Secondary conductors must meet ampacity requirements and be physically protected even if they are under 10 feet in length. Check the minimum requirements for conductors in this article. 19 / 50 What is the minimum conductor size for SPD line conductors (242.28)? a. 18 AWG copper or aluminum. b. Conductor size depends on system voltage. c. 10 AWG for all installations. d. 14 AWG copper or 12 AWG aluminum. Incorrect. The minimum size is specified as 14 AWG copper or 12 AWG aluminum. Correct! This minimum size ensures adequate conductor capacity. SPDs must use conductors no smaller than 14 AWG copper or 12 AWG aluminum to ensure sufficient current capacity. High-leg marking ensures proper identification. 20 / 50 What marking is required for the high-leg conductor in a 4-wire delta system per 230.56? a. White tape at all terminations. b. High-leg conductors require no marking. c. Orange marking at all termination points. d. Blue or green marking. Incorrect. Orange is the required marking color. Correct! High-leg conductors are marked orange for safety. High-leg conductors must be clearly marked with orange to prevent misconnection or hazards. Polarity is crucial for DC systems. 21 / 50 How must branch circuits supplied from direct-current systems be identified per 235.5(C)(2)? a. By red for all conductors. b. Identification is not required. c. Only at service points. d. By polarity at all terminations, connections, and splice points. Incorrect. Polarity identification is mandatory for DC systems. Correct! Polarity identification is essential for DC systems above 1500 volts. Positive and negative conductors in DC systems must be identified to ensure correct connections. This applies to specific situations with conditions. 22 / 50 Under what condition can the next higher standard overcurrent device be used (240.4(B))? a. Only in supervised industrial settings. b. For all branch circuits without limitation. c. When the circuit is less than 10 feet long. d. When the ampacity of the conductor does not match a standard overcurrent device and does not exceed 800 amps. Incorrect. Review the conditions under which this rule applies. Correct! The next higher device is allowed with restrictions. The next higher standard device can only be used under specific conditions when it does not exceed 800 amps. Pay attention to the voltage limits mentioned. 23 / 50 What is the maximum voltage covered by Article 240 (Part I-VII)? a. 1000 volts AC or 1500 volts DC, nominal. b. Unlimited voltage systems. c. Only low-voltage systems. d. 600 volts AC. Incorrect. The voltage limit is stated clearly in the article. Correct! The scope includes systems up to these voltage thresholds. Article 240 generally applies to systems up to 1000 volts AC or 1500 volts DC unless specified otherwise. Selective coordination ensures faults are isolated. 24 / 50 What is required for selective coordination of overcurrent devices (240.11)? a. Overcurrent devices must be installed on separate panels. b. Feeder devices must be coordinated to isolate faults without affecting upstream devices. c. No coordination is necessary for feeders. d. Using devices of identical ratings. Incorrect. Coordination ensures system reliability and fault isolation. Correct! Selective coordination localizes faults and prevents widespread outages. Selective coordination prevents unnecessary outages by isolating faults at the closes protective device. SWD stands for switch duty. 25 / 50 What marking must be present on circuit breakers rated for fluorescent lighting circuits (240.83(D))? a. No marking is required for lighting circuits. b. SW only. c. SWD for fluorescent lighting circuits. d. FLR for fluorescent-rated devices. Incorrect. The correct marking for fluorescent lighting is SWD. Correct! SWD marks suitability for fluorescent lighting circuits. SWD markings indicate circuit breakers suitable for frequent switching of fluorescent lighting circuits. Regular support prevents damage to cables. 26 / 50 What is the maximum allowable distance between supports for service entrance cables per 230.51(A)? a. 30 inches. b. 6 feet. c. 18 inches. d. 12 inches. Incorrect. The maximum interval is 30 inches. Correct! 30 inches is the maximum spacing for supports. Service entrance cables must be supported at intervals not exceeding 30 inches to prevent sagging or damage. The NEC sets a baseline for all devices. 27 / 50 What is the minimum interrupting rating for branch-circuit overcurrent devices (240.16)? a. Ratings depend on the circuit voltage. b. 5,000 amperes. c. 10,000 amperes. d. 2,500 amperes. Incorrect. The minimum rating is 5,000 amperes. Correct! 5,000 amperes is the minimum interrupting rating. All branch-circuit overcurrent devices must interrupt at least 5,000 amperes to meet NEC standards. High-voltage circuits have special requirements. 28 / 50 What is required for fuses installed in circuits over 150 volts to ground (240.40)? a. Fuses must be paired with thermal overload relays. b. Fuses require secondary grounding. c. A disconnecting means must be installed on the supply side. d. Fuses must be reconditioned every five years. Incorrect. The supply side disconnect is essential for safety. Correct! A disconnecting means is required for these circuits. A disconnecting means ensures safe maintenance and disconnection of high-voltage circuits with fuses. Grounding is critical for autotransformer circuits. 29 / 50 What is the rule for branch circuits derived from autotransformers per 235.9? a. They can only supply single-phase loads. b. They must have a grounded conductor electrically connected to the supplying system. c. No restrictions apply. d. They are not permitted under any circumstances. Incorrect. Autotransformer circuits require a grounded conductor. Correct! Grounded conductors are mandatory for autotransformer-derived circuits Autotransformers must include a grounded conductor to ensure safe operation of derived circuits. Arc energy reduction focuses on safety during faults. 30 / 50 What is the purpose of arc energy reduction for devices rated 1200 amperes or higher (240.87)? a. To allow for larger conductor sizes. b. To ensure selective coordination between circuits. c. To minimize the energy released during an arc flash event. d. To increase the device's operational lifespan. Incorrect. Arc energy reduction is specifically aimed at safety during arc flashes Correct! Minimizing arc flash energy is a key safety feature. Reducing arc energy protects workers and equipment by minimizing the intensity and duration of arc flashes. Clearance ensures safety from tall vehicles. 31 / 50 What clearance is required for conductors over roadways per 235.360(A)? a. 10 feet. b. feet c. 18.5 feet. d. Clearance depends on the voltage. Incorrect. The required clearance over roadways is 18.5 feet. Correct! 18.5 feet ensures adequate safety clearance over roadways. Conductors over roadways must maintain at least 18.5 feet of clearance for vehicle safety. The rating accounts for voltage surges. 32 / 50 What rating must surge arresters meet per 242.42? a. 150% of the nominal voltage. b. Based on the connected load's total capacity. c. 125% of the maximum continuous operating voltage. d. 100% of the system's phase-to-phase voltage. Incorrect. The rating must exceed the system’s continuous operating voltage by 25%. Correct! The 125% rating ensures surge arrester durability. Surge arresters must handle overvoltage conditions with a rating of at least 125% of the system’s continuous operating voltage. Focus on documenting protection strategies. 33 / 50 What documentation is required for arc energy reduction methods under 240.67? a. Maintenance schedules for overcurrent devices. b. Records demonstrating clearing time settings below arcing currents. c. Only the manufacturer’s installation guide. d. No documentation is required if devices are rated below 1000 amps. Incorrect. Documentation of clearing time settings is essential. Correct! Clearing time documentation is mandatory for arc energy reduction compliance. Detailed documentation ensures arc energy reduction systems are properly set and operational. Selective coordination ensures faults are isolated. 34 / 50 What is required for selective coordination of overcurrent devices (240.11)? a. Overcurrent devices must be installed on separate panels. b. Feeder devices must be coordinated to isolate faults without affecting upstream devices. c. No coordination is necessary for feeders. d. Using devices of identical ratings. Incorrect. Coordination ensures system reliability and fault isolation. Correct! Selective coordination localizes faults and prevents widespread outages. Selective coordination prevents unnecessary outages by isolating faults at the closes protective device. Only certain high-voltage equipment can be reconditioned. 35 / 50 What type of equipment is permitted to be reconditioned as per 245.2(A)? a. Medium-voltage fuseholders. b. Power fuses used in transformer protection. c. Medium-voltage nonrenewable fuses. d. Medium- and high-voltage circuit breakers. Incorrect. Only specific types of equipment, like circuit breakers, can be reconditioned. Correct! Medium- and high-voltage circuit breakers may be reconditioned. Medium- and high-voltage circuit breakers are allowed to be reconditioned under Article 245, but fuseholders and nonrenewable fuses are not. Some systems require specific SPD listing. 36 / 50 What is prohibited for SPDs as specified in 242.12? a. Installation indoors. b. Use on solidly grounded systems. c. Installation on ungrounded systems unless listed for such use. d. Installation on circuits below 1000 volts. Incorrect. Review the requirements for ungrounded systems. Correct! SPDs must be listed for ungrounded systems if used. SPDs cannot be used on ungrounded systems unless explicitly listed for compatibility. Long taps have specific ampacity requirements. 37 / 50 How are taps not exceeding 25 feet protected (240.21(B))? a. By installing additional fuses at midpoint distances. b. No overcurrent protection is required for short taps. c. The ampacity of the tap conductors must meet one-third of the upstream device rating. d. By primary overcurrent protection only. Incorrect! The 25-foot rule includes ampacity requirements. Correct! The one-third rule ensures tap safety for 25 feet. For taps up to 25 feet, the ampacity must be one-third of the upstream overcurrent device to ensure safety. The devices must handle all fault conditions. 38 / 50 What is the minimum requirement for protective devices in feeders and branch circuits as per 245.26(A)? a. Overcurrent protection is not required for supervised installations. b. Devices must be installed only at the source. c. They must protect against thermal overload only. d. Devices must be installed only at the source. Incorrect. Protection must address all overcurrent values, not just specific conditions. Correct! Devices must protect against any overcurrent exceeding their trip or melting point. Protective devices must detect and interrupt all overcurrent values beyond their trip or melting point, ensuring complete fault protection. Identification methods align with general NEC rules for grounded conductors. 39 / 50 How must grounded conductors of branch circuits over 1000 volts be identified per 235.5(A)? a. By size and material only. b. In accordance with 200.6. c. By terminal markings at panelboards. d. With blue and green color codes. Incorrect. Grounded conductor identification is specified in 200.6. Correct! Identification requirements for grounded conductors apply uniformly. Grounded conductors for high-voltage systems follow the same identification rules as lower voltage systems under 200.6. Focus on high-voltage installations. 40 / 50 What is the scope of Article 235? a. Voltage drop requirements for low-voltage feeders. b. Branch circuits, feeders, and services operating over 1000 volts AC or 1500 volts DC. c. Grounding methods for electrical systems. d. Equipment installation for household circuits. Incorrect. Article 235 addresses systems over 1000 volts AC or 1500 volts DC. Correct! This article focuses on high-voltage branch circuits, feeders, and services. Article 235 governs branch circuits, feeders, and services operating above standard low voltage thresholds Small conductors have specific ampacity limits. 41 / 50 What are the ampacity limits for 18 AWG copper conductors (240.4(D))? a. No limit specified for small conductors. b. 7 amps with specific conditions. c. 10 amps without exceptions. d. 5 amps with thermal limitations. Incorrect. Check the specific limits for small conductors. Correct! 7 amps is the limit for 18 AWG copper under these conditions. The ampacity for 18 AWG copper is limited to 7 amps if continuous loads do not exceed 5.6 amps and overcurrent devices are rated for such conductors. SPDs need third-party certification for compliance. 42 / 50 What is required for SPDs under 242.6? a. Must only be used in residential installations. b. Can be installed on any circuit regardless of voltage. c. Must be listed devices. d. Must be reconditioned every 5 years. Incorrect. SPDs must always be listed devices. Correct! Listing ensures compliance with safety standards. SPDs need third-party certification for compliance. Type 2 SPDs protect downstream equipment. 43 / 50 What is a key installation requirement for Type 2 SPDs (242.14)? a. Must be installed on the line side of the service disconnect. b. Must be connected on the load side of the service disconnect overcurrent device. c. Can only protect single-phase systems. d. Do not require overcurrent protection. Incorrect. Type 2 SPDs are installed downstream of the service disconnect. Correct! Load-side connections ensure proper protection. Type 2 SPDs must be installed on the load side of the service disconnect to protect branch circuits and equipment. Selective coordination ensures faults are isolated. 44 / 50 What is required for selective coordination of overcurrent devices (240.11)? a. Feeder devices must be coordinated to isolate faults without affecting upstream devices. b. Overcurrent devices must be installed on separate panels. c. No coordination is necessary for feeders. d. Using devices of identical ratings. Incorrect. Coordination ensures system reliability and fault isolation. Correct! Selective coordination localizes faults and prevents widespread outages. Selective coordination prevents unnecessary outages by isolating faults at the closes protective device. Identification is key to distinguishing between systems. 45 / 50 What is the requirement for ungrounded conductors supplied from more than one nominal voltage system per 235.5(C)(1)? a. They must use identical colors for all voltages. b. Only new installations require identification. c. Identification is optional. d. Identification by phase, line, and nominal voltage at all terminations. Incorrect. Identification must include phase, line, and voltage information. Correct! Proper identification prevents misconnection and hazards. High-voltage systems with multiple nominal voltages require clear identification at all connection points. Overcurrent devices must disconnect ungrounded conductors in fault conditions. 46 / 50 What type of overcurrent device is required for ungrounded conductors (240.15)? a. None, if circuits are under 50 volts. b. A fuse or circuit breaker connected in series. c. A shunt trip device only. d. Devices are optional for ungrounded conductors. Incorrect. A series-connected overcurrent device is mandatory for ungrounded conductors. Correct! Fuses or circuit breakers protect ungrounded conductors. Fuses or circuit breakers are required to protect ungrounded conductors from overcurrent conditions. Continuous loads require extra margin. 47 / 50 What is required for overcurrent protection of branch circuits per 235.20? a. Must be rated at 100% of the load. b. Applies only to equipment protection. c. Allowed only for continuous loads. d. Must be rated at 125% of continuous load plus noncontinuous load. Incorrect. Protection must account for continuous and noncontinuous loads Correct! The overcurrent device must cover 125% of continuous loads. Overcurrent devices must handle 125% of continuous loads and 100% of noncontinuous loads to ensure safety. The position ensures clarity of operation. 48 / 50 What is required for circuit breakers operating vertically (240.81)? a. The "OFF" position must face upwards. b. Circuit breakers cannot be installed vertically. c. Vertical positioning is optional. d. The "ON" position must face upwards. Incorrect. The “ON” position must always face upwards. Correct! “ON” facing upwards ensures clarity and consistency. In vertical installations, the “ON” position must face upwards to align with standard operation practices. Focus on devices that protect against voltage surges. 49 / 50 What does Article 242 primarily cover? a. Wiring methods for sensitive electronic equipment. b. Grounding methods for overcurrent devices. c. Voltage drop guidelines for high-voltage circuits. d. Requirements for overvoltage protection and devices, including SPDs and surge arresters. Incorrect. Article 242 deals with overvoltage protection, not wiring or grounding methods. Correct! This article focuses on overvoltage protection and related devices. Article 242 governs the use, installation, and requirements for overvoltage protection systems like surge-protective devices (SPDs) and surge arresters. At least 6 feet above the ground. 50 / 50 Where must surge arresters be installed to ensure safety (242.46)? a. In locations inaccessible to unqualified persons unless listed for accessibility. b. In enclosures accessible to all personnel. c. At least 6 feet above the ground. d. Only outdoors. Incorrect. Accessibility rules depend on the listing of the surge arrester. Correct! Installations must limit access to unqualified individuals. Surge arresters must be installed to prevent unqualified access unless they are listed for accessible locations. Your score is LinkedIn Facebook Twitter 0% Restart quiz Exit Rate & Review Thank you for taking the time to leave us a review! Your feedback is greatly appreciated and helps us improve our services. Send feedback Leave a Reply Cancel replyYour email address will not be published. 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