1. What is the average salary of an Electronics Engineer I?
The average annual salary of Electronics Engineer I is $84,810.
In case you are finding an easy salary calculator,
the average hourly pay of Electronics Engineer I is $41;
the average weekly pay of Electronics Engineer I is $1,631;
the average monthly pay of Electronics Engineer I is $7,067.
2. Where can an Electronics Engineer I earn the most?
An Electronics Engineer I's earning potential can vary widely depending on several factors, including location, industry, experience, education, and the specific employer.
According to the latest salary data by Salary.com, an Electronics Engineer I earns the most in San Jose, CA, where the annual salary of an Electronics Engineer I is $106,436.
3. What is the highest pay for Electronics Engineer I?
The highest pay for Electronics Engineer I is $101,211.
4. What is the lowest pay for Electronics Engineer I?
The lowest pay for Electronics Engineer I is $69,261.
5. What are the responsibilities of Electronics Engineer I?
Electronics Engineer I designs, develops, and tests electronic systems, components, or circuits for use within equipment or machinery. May use computer-assisted engineering and design software and equipment to perform assignments. Being an Electronics Engineer I applies principles and techniques of electrical engineering to accomplish goals. Requires a bachelor's degree. Additionally, Electronics Engineer I typically reports to a supervisor or manager. To be an Electronics Engineer I typically requires 0-2 years of related experience. Works on projects/matters of limited complexity in a support role. Work is closely managed.
6. What are the skills of Electronics Engineer I
Specify the abilities and skills that a person needs in order to carry out the specified job duties. Each competency has five to ten behavioral assertions that can be observed, each with a corresponding performance level (from one to five) that is required for a particular job.
1.)
Troubleshooting: Troubleshooting is a form of problem solving, often applied to repair failed products or processes on a machine or a system. It is a logical, systematic search for the source of a problem in order to solve it, and make the product or process operational again. Troubleshooting is needed to identify the symptoms. Determining the most likely cause is a process of elimination—eliminating potential causes of a problem. Finally, troubleshooting requires confirmation that the solution restores the product or process to its working state. In general, troubleshooting is the identification or diagnosis of "trouble" in the management flow of a system caused by a failure of some kind. The problem is initially described as symptoms of malfunction, and troubleshooting is the process of determining and remedying the causes of these symptoms. A system can be described in terms of its expected, desired or intended behavior (usually, for artificial systems, its purpose). Events or inputs to the system are expected to generate specific results or outputs. (For example, selecting the "print" option from various computer applications is intended to result in a hardcopy emerging from some specific device). Any unexpected or undesirable behavior is a symptom. Troubleshooting is the process of isolating the specific cause or causes of the symptom. Frequently the symptom is a failure of the product or process to produce any results. (Nothing was printed, for example). Corrective action can then be taken to prevent further failures of a similar kind.
2.)
Calibration: In measurement technology and metrology, calibration is the comparison of measurement values delivered by a device under test with those of a calibration standard of known accuracy. Such a standard could be another measurement device of known accuracy, a device generating the quantity to be measured such as a voltage, a sound tone, or a physical artefact, such as a metre ruler. The outcome of the comparison can result in one of the following: no significant error being noted on the device under test a significant error being noted but no adjustment made an adjustment made to correct the error to an acceptable levelStrictly speaking, the term "calibration" means just the act of comparison, and does not include any subsequent adjustment. The calibration standard is normally traceable to a national standard held by a national metrological body.
3.)
Electrical Engineering: Electrical engineering is a technical discipline concerned with the study, design and application of equipment, devices and systems which use electricity, electronics, and electromagnetism. It emerged as an identified activity in the latter half of the 19th century after commercialization of the electric telegraph, the telephone, and electrical power generation, distribution and use. Electrical engineering is now divided into a wide range of fields including, computer engineering, power engineering, telecommunications, radio-frequency engineering, signal processing, instrumentation, and electronics. Many of these disciplines overlap with other engineering branches, spanning a huge number of specializations including hardware engineering, power electronics, electromagnetics and waves, microwave engineering, nanotechnology, electrochemistry, renewable energies, mechatronics, and electrical materials science. See glossary of electrical and electronics engineering.