All jobsEngineeringElectrical & Electronic Engineering

23 Electrical & Electronic Engineering Jobs in New Zealand

Problems arrive faster than solutions, and days flow around debugging unfamiliar systems under deadline pressure.

Electrical & Electronic Engineering jobs by city

• Shanghai131
• Beijing79
• Bengaluru52
• Haifa48
• Singapore48
• Shenzhen44
• Xi’an32
• Taipei32
• Santa Clara28
• Hangzhou28
• Tel Aviv28
• Hong Kong25
• Guangzhou24
• Riyadh22
• Chennai22
• Tijuana21

More in Engineering

• Mechanical and Related Engineers2301
• Manufacturing Technicians1950
• Engineering Managers1470
• Civil and Safety Engineering1207
• Chemical Engineering518
• Energy & Sustainability383
• Drafters and CAD Designers354
• Civil Engineering Technicians175
• Agriculture and Food Engineering75

Questions

• What qualifications do employers require for entry-level positions?

  Most employers require a bachelor's degree in electrical or electronic engineering or a closely related field. Some companies accept higher-level apprenticeships or equivalent professional certifications combined with documented practical experience in electrical systems or component design.

• What does a typical day involve?

  Days typically include a mix of desk work and hands-on activity: reviewing circuit designs or test results, troubleshooting equipment failures, running simulations, and collaborating with colleagues on specific problems. Time allocation varies widely depending on whether the role is primarily design-focused, maintenance-based, or field-oriented.

• How much time is spent in the field versus at a desk?

  This depends entirely on the employer and specialization. Power system engineers might spend significant time on-site at installations or substations, while those in semiconductor design rarely leave the office, and most roles split time between both environments.

• What core skills matter most in this work?

  Problem-solving ability and systematic thinking are essential—most days involve isolating faults or optimizing designs within constraints. Strong technical knowledge of your specific domain, comfort with simulation and diagnostic tools, and the ability to document work clearly are equally important.

• How does this work differ from mechanical engineering?

  Electrical engineering focuses on systems involving electricity, magnetism, and electromagnetic phenomena, while mechanical engineering deals with physical structures and motion. The two overlap in roles like electromechanical design, but electrical work emphasizes circuit behavior, signal processing, and power management.

• What's the difference between electrical and electronic engineering roles?

  Electrical engineering typically involves higher power systems like power generation, distribution, and industrial motors. Electronic engineering focuses on lower-power, lower-voltage systems like microcontrollers, sensors, and communication devices, though modern roles increasingly blend both disciplines.

• Are these roles typically permanent or contract-based?

  Both exist. Large utilities and manufacturers tend to hire permanent staff, while consulting firms and smaller specialist companies often use contract workers. The balance varies by region and employer size.

• How does this career progress?

  Early roles focus on applying principles under supervision—circuit board design, equipment testing, or junior technician work. Progression leads to independent project ownership, team leadership, and eventually into management or specialized technical expertise roles.

• What are the typical working hours?

  Most permanent positions follow standard office hours, though on-site maintenance or field service roles may require shift work, on-call availability, or emergency callouts. Emergency response positions are more common in utilities and critical infrastructure than in manufacturing or design.

• What technical tools do practitioners use regularly?

  Work involves CAD software for design, oscilloscopes and multimeters for testing, simulation platforms for modeling behavior before implementation, and various diagnostic instruments. Specific tools depend on whether work centers on power systems, microelectronics, or communications infrastructure.