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Bioinformatics Engineering Jobs in Indiana (NOW HIRING)

In addition to the wet-lab testings this position also puts an emphasizes on the bioinformatics ... resources, reproducible programming techniques, and QA methods • Perform and maintain ...

... Bioinformatics Location Bloomington Position Summary Research Associate - Indiana University ... Engineer , or related role. Requires demonstrated proficiency with isolating nucleic acid samples ...

Master's or PhD degree in Computer Science, Statistics, Bioinformatics, Mathematics or equivalent preferred. * Previous software engineering management and project management experience. * Extensive ...

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Bioinformatics Engineering information

What is the difference between Bioinformatics Engineering vs Bioinformatics Analyst?

AspectBioinformatics EngineeringBioinformatics Analyst
Required CredentialsBachelor's or Master's in Bioinformatics, Computer Science, or related fields; programming skillsBachelor's or Master's in Bioinformatics, Biology, or related fields; data analysis skills
Work EnvironmentResearch labs, biotech companies, healthcare institutionsResearch institutions, healthcare, pharmaceutical companies
Employer & Industry UsageDevelops tools, pipelines, and software for data analysisInterprets data, generates reports, supports research projects

Bioinformatics Engineering focuses on developing software and pipelines for data processing, requiring programming expertise. In contrast, Bioinformatics Analysts primarily interpret data and generate insights, often with a stronger emphasis on biological knowledge. Both roles are vital in biotech and healthcare industries, but they differ in technical scope and daily tasks.

What is a bioinformatics engineer?

A bioinformatics engineer is a professional who develops and applies computational tools and techniques to analyze and interpret biological data, such as DNA sequences or protein structures. They combine expertise in computer science, biology, and mathematics to create software, manage databases, and solve complex biological problems. Bioinformatics engineers often work in research, pharmaceuticals, healthcare, and biotechnology industries to help advance scientific discoveries and medical innovations.

What engineers make $500,000?

Senior bioinformatics engineers with extensive experience, advanced skills in programming, data analysis, and familiarity with tools like Python, R, and cloud platforms can reach salaries of $500,000 or more, especially in high-demand industries or leadership roles. Achieving this level often requires a combination of technical expertise, industry experience, and sometimes managerial responsibilities.

How do bioinformatics engineers typically collaborate with biologists and data scientists in a research setting?

Bioinformatics engineers frequently work in cross-disciplinary teams, partnering closely with biologists to understand experimental goals and with data scientists to analyze complex datasets. Effective communication is key, as engineers must translate biological questions into computational workflows and interpret results in a way that is meaningful to non-technical team members. This collaborative approach not only accelerates research but also helps engineers gain a deeper understanding of biological processes, which can lead to more innovative solutions and professional growth.

How much does a bioinformatics engineer make?

The average salary for a bioinformatics engineer typically ranges from $70,000 to $120,000 annually, depending on experience, education, and location. Professionals with advanced skills in programming, data analysis, and familiarity with tools like Python, R, and Linux tend to earn higher salaries.

What are the key skills and qualifications needed to thrive as a Bioinformatics Engineer, and why are they important?

To thrive as a Bioinformatics Engineer, you need a solid background in biology, computer science, and statistics, often supported by a degree in bioinformatics or a related field. Familiarity with programming languages like Python or R, experience with bioinformatics tools (e.g., BLAST, GATK), and proficiency with databases and cloud computing platforms are typically required. Strong problem-solving, analytical thinking, and collaboration skills set standout professionals apart in this interdisciplinary field. These competencies are crucial for effectively analyzing complex biological data and driving innovation in life sciences research.

What do bioinformatics engineers do?

Bioinformatics engineers develop and implement computational tools and algorithms to analyze biological data, such as genetic sequences and molecular structures. They often work with programming languages like Python or R, utilize databases, and collaborate with biologists to interpret data for research and medical applications.

What engineers make $300,000 a year?

Senior bioinformatics engineers with extensive experience, advanced skills in programming, data analysis, and familiarity with tools like Python, R, and cloud platforms can earn $300,000 or more annually, especially in high-demand biotech or pharmaceutical industries. Achieving this level often requires advanced degrees, certifications, and leadership responsibilities.
What are popular job titles related to Bioinformatics Engineering jobs in Indiana? For Bioinformatics Engineering jobs in Indiana, the most frequently searched job titles are:
What cities in Indiana are hiring for Bioinformatics Engineering jobs? Cities in Indiana with the most Bioinformatics Engineering job openings:

Bioinformatician

STI

Indianapolis, IN • On-site

Full-time

Posted 16 days ago


Job description

Bioinformatician
Indianapolis, IN
4 Months Contact

Purpose of Position/Summary:
Incumbent is responsible for the study, development, maintenance, and performance of cutting-edge next generation sequencing (NGS) based biological assays in the areas of bacteriology, virology, and parasitology. In addition to the wet-lab testings this position also puts an emphasizes on the bioinformatics side of NGS utilizing advanced computational methods to analyze the results obtained from NGS assays. The incumbent should have experience with developing primer/probe sets, data analysis, and bioinformatic pipeline development.
Essential Duties/Responsibilities:
Incumbent will lead bioinformatic analysis of microbial and viral NGS data to generate actionable laboratory and public health results. Representative duties include:
• Research, develop, design, validate and implement novel NGS-based laboratory assays using advanced computational resources, reproducible programming techniques, and QA methods
• Perform and maintain bioinformatic analysis of NGS data using developed software and workflows.
• Evaluate recent literature and standards in the field and make recommendations and changes to workflows to ensure sequencing analysis procedures are aligned with current best practices in the field.
• Troubleshoot NGS assays and analysis pipelines when needed to ensure the best data is being used to generate data
• Strictly follow the laboratory's procedures for specimen handling and processing, test analyses, reporting and maintaining records of patient test results.
• Extraction of nucleic acids from specimens, isolates, and samples via a variety of manual and automated methods;
• Utilize molecular techniques such as, but not limited to, PCR, sequencing, and NGS;
• Evaluate, interpret, and validate laboratory results and reports findings.
• Maintain quality control of the laboratory processes as well as the analysis process to ensure that data is defendable.
• Maintain an inventory of laboratory supplies and order as needed to ensure testing needs are met.
• Assist in preparations of epidemiological and/or statistical reports from data compiled on a daily, weekly, monthly, or annual basis.
• Maintain competency in all trained areas.
• Perform all related work as required.
• Testing personnel responsibilities (493.1495 Standard):
The testing personnel are responsible for specimen processing, test performance and for reporting test results.
(a) Each individual performs only those high complexity tests that are authorized by the laboratory director and require a degree of skill commensurate with the individual's education, training or experience, and technical abilities.
(b) Each individual performing high complexity testing must-
(1) Follow the laboratory's procedures for specimen handling and
processing, test analyses, reporting and maintaining records of patient
test results;
(2) Maintain records that demonstrate that proficiency testing samples are
tested in the same manner as patient specimens;
(3) Adhere to the laboratory's quality control policies, document all quality
control activities, instrument and procedural calibrations and
maintenance performed;
(4) Follow the laboratory's established policies and procedures whenever
test systems are not within the laboratory's established acceptable levels
of performance;
(5) Be capable of identifying problems that may adversely affect test
performance or reporting of test results and either must correct the
problems or immediately notify the general supervisor, technical
supervisor, clinical consultant, or director;
(6) Document all corrective actions taken when test systems deviate from
the laboratory's established performance specifications; and
(7) Except as specified in paragraph (c) of this section, if qualified under §
493.1489(b)(5), perform high complexity testing only under the onsite,
direct supervision of a general supervisor qualified under § 493.1461.
(c) Exception. For individuals qualified under § 493.1489(b)(5), who were performing
high complexity testing on or before January 19, 1993, the requirements of
paragraph (b)(7) of this section are not effective, provided that all high complexity
testing performed by the individual in the absence of a general supervisor is
reviewed within 24 hours by a general supervisor qualified under § 493.1461.
Job Requirements:
• Extensive knowledge of the principles, theories and practices of molecular biology, NGS and related sub- specialties;
• Specialized knowledge of bioinformatic pipelines, analysis tools, and best practices in analysis of NGS data.
• Specialized knowledge of current scientific methods and testing procedures and the ability to apply them when seeking solutions to public health laboratory problems;
• Specialized knowledge of troubleshooting techniques for NGS applications at the bench level as well as in analysis
• Specialized knowledge of and ability to use a full range of standard technical equipment, complex scientific apparatus, and automated techniques of analysis;
• Extensive knowledge of laboratory safety practices and principles;
• Aware of state and federal laws, rules, regulations, and policies concerning the program area (i.e. CLIA);
• Ability to meet requirements for personnel certification as a technologist pursuant to the Clinical Laboratory Improvement Act (CLIA)
• Ability to effectively communicate technical information both verbally and in writing and maintain productive working relationships;
• Ability to satisfactorily participate in proficiency testing programs and recognize QA problems;
• Ability to compile, analyze, evaluate, and prepare laboratory reports.
Difficulty of Work:
Incumbent is engaged in scientific analyses that demand accuracy and demonstrated proficiency in applying laboratory analytical skills to select pertinent guidelines and formulated plans for problem solving. Projects involve many complex variables of great intricacy and the microbiologist is often called upon to analyze and identify unusual specimens/samples. Work requires use of analytical judgment and technical knowledge in order to draw accurate, logical conclusions. Incumbent will also be required to develop and research new testing procedures as well as the data analysis and reporting of NGS data.
Responsibility:
Incumbent works independently as an expert in the assigned area. Technical and/or detailed instruction is provided only upon request when necessitated by a procedural change and/or special project. Incumbent maintains established safety practices when working with materials that have a chemical hazard or biohazard potential. Reports are reviewed for general technical accuracy; however, tasks are performed independently. Errors in work could adversely affect the health, safety and well being of the incumbent or coworkers.
Personal Work Relationships:
Incumbent works with supervisor and with other State Department of Health staff such as Laboratory Safety Officer and/or external entities (e.g. local health departments, etc.) to devise and implement work procedures and information dissemination. Individual will have contact with employees and the public as a laboratory expert and in the explanation of laboratory procedures and recommendations when appropriate. Incumbent will be the subject matter expert on bioinformatics ascepts of NGS results generated in our laboratory or by external partners.
Physical Effort:
The required personal protective equipment can be cumbersome and awkward. Extra effort and concentration will be necessary to perform routine laboratory manipulations under these conditions.
Working Conditions:
The incumbent will be performing tests on potentially dangerous specimens. Consequently, safety standards are of primary importance. This position will be required to use all appropriate personal protective equipment in the designated laboratory area. The laboratory space and equipment can experience a dramatic increase in temperature. The incumbent will be required to work in these conditions and maintain a clear thought process during the testing.