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Genome Engineering Jobs in Texas (NOW HIRING)

The project also makes extensive use of CRISPR-based genome engineering, robot-assisted high-throughput biochemistry, and spatial multi-omics approaches to determine how protein homeostasis networks ...

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How much do genome engineering jobs pay per hour?

As of Sep 6, 2026, the average hourly pay for genome engineering in Texas is $29.39, according to ZipRecruiter salary data. Most workers in this role earn between $18.80 and $35.38 per hour, depending on experience, location, and employer.

What is genome engineering?

Genome engineering is the process of making precise and targeted changes to the DNA of an organism. This field uses advanced technologies such as CRISPR-Cas9, TALENs, and zinc finger nucleases to edit genes for research, medicine, agriculture, and biotechnology. Genome engineering can be used to study gene function, create genetically modified organisms, develop gene therapies, and address genetic diseases. The ability to engineer genomes has revolutionized biology and holds great potential for improving health and food security.

What types of projects do genome engineers typically work on, and how collaborative is the work environment?

Genome engineers often work on projects involving gene editing, synthetic biology, or the development of new genetic tools to improve crop traits, treat diseases, or advance research. The role is highly collaborative, requiring regular communication with molecular biologists, bioinformaticians, and other scientists to design experiments, analyze data, and troubleshoot results. Team meetings, cross-disciplinary brainstorming sessions, and shared lab responsibilities are common, so strong teamwork and communication skills are essential for success in this field.

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

To thrive as a Genome Engineer, you need a strong background in molecular biology, genetics, and biotechnology, typically with an advanced degree (MSc or PhD) in a related field. Proficiency with genome editing tools such as CRISPR/Cas9, next-generation sequencing platforms, and bioinformatics software is essential. Strong analytical thinking, meticulous attention to detail, and effective teamwork are standout soft skills in this role. These skills and qualities are crucial for designing precise genetic modifications, ensuring experimental accuracy, and advancing innovative solutions in genetic research.

What is the difference between Genome Engineering vs Molecular Biologist?

AspectGenome EngineeringMolecular Biologist
Required CredentialsTypically requires a PhD or Master's in genetics, molecular biology, or related fieldsUsually holds a PhD or Master's in biology, biochemistry, or related disciplines
Work EnvironmentLaboratories focused on gene editing, CRISPR, and genetic modificationResearch labs studying cellular processes, gene expression, and molecular mechanisms
Employer & Industry UsageBiotech companies, research institutions, pharmaceutical firmsAcademic institutions, research centers, biotech companies

Genome Engineering and Molecular Biologists share overlapping skills in genetics and laboratory techniques. However, Genome Engineers focus specifically on editing and modifying genomes using advanced gene editing tools, while Molecular Biologists study broader molecular processes. Both roles are vital in biotech and research settings, but Genome Engineering is more specialized in genetic modification techniques.

How to become a genome engineer?

To become a genome engineer, typically a bachelor's degree in genetics, molecular biology, or a related field is required, followed by advanced training or a master's or Ph.D. in genetic engineering or biotechnology. Skills in laboratory techniques, gene editing tools like CRISPR, and understanding of bioinformatics are essential. Gaining experience through internships or research projects can also improve job prospects in this specialized field.

Is genome engineering a high paying job?

Genome engineering is generally considered a high-paying field within biotechnology and research, especially for roles requiring advanced degrees such as a Ph.D. or specialized skills in gene editing tools like CRISPR. Salaries vary based on experience, location, and industry, but professionals in this field often earn above average wages compared to other scientific roles.

What does a genome engineer do?

A genome engineer designs and modifies an organism's DNA using techniques like CRISPR-Cas9 to alter genetic sequences. They work in laboratories, often requiring knowledge of molecular biology, genetics, and bioinformatics, to develop gene therapies, improve crops, or study genetic functions.

What jobs can you get with genome engineering?

With a background in genome engineering, common jobs include research scientist, molecular biologist, genetic engineer, and bioinformatics specialist. These roles often require skills in CRISPR, DNA sequencing, and laboratory techniques, and may involve working in biotech companies, research institutions, or healthcare settings.
Infographic showing various Genome Engineering job openings in Texas as of August 2026, with employment types broken down into 89% Full Time, 7% Part Time, 3% Contract, and 1% Nights. Highlights an 88% Physical, 3% Hybrid, and 9% Remote job distribution, with an average salary of $61,139 per year, or $29.4 per hour.

Postdoctoral Fellow - Sarcoma Medical Oncology - Research

MD Anderson

Houston, TX • On-site, Remote

$64K - $76K/yr

Full-time

Medical, Dental, Retirement, PTO

Re-posted 23 days ago


MD Anderson Cancer Center rating

8.5

Company rating: 8.5 out of 10

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Job description

Postdoctoral Fellow in Sarcoma Biology and Translational Cancer Research
We are recruiting a highly motivated postdoctoral fellow to join a collaborative research program in sarcoma biology, co-mentored by Dr. Joseph Ludwig and Dr. Danh Truong. This position is designed for scientists with a strong interest in wet-lab experimentation, genome engineering, and in vivo modeling to interrogate the mechanisms that drive aggressive bone and soft-tissue sarcomas.
The postdoctoral fellow will lead projects focused on CRISPR-based genome engineering, including targeted gene perturbation, pooled screening strategies, and cellular barcoding to study clonal dynamics, tumor evolution, and drug response. These studies will be conducted across a range of high-fidelity model systems, including engineered cell lines, patient-derived models, and in vivo mouse models of sarcoma. The fellow will gain extensive experience designing and executing animal studies, tracking clonal behavior over time, and integrating functional perturbations with phenotypic readouts. This role offers an opportunity to work in a highly collaborative environment that bridges basic discovery and translational relevance, with close interactions among molecular biologists, bioengineers, computational scientists, and clinician-scientists. Emphasis is placed on experimental rigor, hypothesis-driven research, and the development of an independent scientific vision, while leveraging complementary mentorship in cancer biology, functional genomics, and sarcoma translational research.
Our research program integrates functional genomics, epigenetic regulation, and tumor evolution to elucidate sarcoma initiation, progression, and therapeutic resistance. A central focus of the lab is to define how oncogenic drivers, disrupted differentiation programs, and lineage plasticity contribute to tumor heterogeneity and treatment failure. We seek to causally link molecular alterations to phenotypic outcomes using rigorously engineered experimental systems.
All duties and responsibilities are carried out in compliance with institutional policies, ethical research standards, and applicable federal and state regulations.
LEARNING OBJECTIVES
By the end of this training, the fellow will be able to:
• Elucidate key biological principles underlying sarcoma development, clonal evolution, and therapeutic resistance
• Apply modern genetic perturbations to mechanistically dissect sarcoma biology in relevant model systems.
• Leverage CRISPR and barcoding technologies to generate and analyze complex data from sarcoma samples.
• Integrate diverse datasets to gain insights into sarcoma behavior and therapeutic response.
• Formulate and test research hypotheses related to sarcoma biology and treatment.
• Collaborate effectively across multidisciplinary teams focused on cancer research, including scientists, clinicians, and industry partners.
• Communicate scientific findings clearly in both written and oral formats.
• Develop skills for independent careers in sarcoma-focused or broader cancer research, which includes grant writing, manuscripts, and presentations
ELIGIBILITY REQUIREMENTS
Required qualifications include a PhD (or equivalent) in cancer biology, molecular biology, genetics, bioengineering, or a related discipline. Prior experience with wet-lab molecular biology techniques is essential; experience with CRISPR editing, viral delivery systems, cellular barcoding, or animal models is highly desirable but not required.
We are particularly interested in candidates who are enthusiastic about building and refining experimental models, addressing technically challenging questions, and generating mechanistic insights into rare and understudied cancers. Training will support career development toward academic, industry, or translational research paths.
POSITION INFORMATION
MD Anderson offers full-time postdoc positions with a salary ranging from $64,000 to $76,000. depending on the number of years of postgraduate experience. The University of Texas MD Anderson Cancer Center offers excellent benefits, including medical, dental, paid time off, retirement, tuition benefits, educational opportunities, and individual and team recognition
Offsite work arrangements are subject to approval and may be modified or revoked at any time based on business needs, performance considerations, or regulatory requirements.
This position may be responsible for maintaining the security and integrity of critical infrastructure, as defined in Section 113.001(2) of the Texas Business and Commerce Code and therefore may require routine reviews and screening. The ability to satisfy and maintain all requirements necessary to ensure the continued security and integrity of such infrastructure is a condition of hire and continued employment.
It is the policy of The University of Texas MD Anderson Cancer Center to provide equal employment opportunity without regard to race, color, religion, age, national origin, sex, gender, sexual orientation, gender identity/expression, disability, protected veteran status, genetic information, or any other basis protected by institutional policy or by federal, state or local laws unless such distinction is required by law. http://www.mdanderson.org/about-us/legal-and-policy/legal-statements/eeo-affirmative-action.html

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