Executive Doctorate of Technology Practice
Designed for technology leaders who have already transformed industries, the Executive Doctorate of Technology Practice is a rigorous, defense-based doctorate that builds on extraordinary professional achievement to advance the future of technology.
Who should apply?
The Executive Doctorate of Technology Practice (EDTP) program is designed for experienced innovators with demonstrated, sustained, and substantial impact on technology and society, including:
- Founders of high-impact technology companies;
- Senior technical leaders who built a major product or division;
- Inventors with a robust, commercialized patent portfolio;
- Equivalent high-impact technologists and creators.
These are leaders who drove transformative impact early — often before completing a traditional degree — and now seek structured, interdisciplinary learning alongside world-class thinkers, deeper ethical and humanistic grounding, and a doctorate that reflects the seriousness of their contribution.
EDTP vs a standard Ph.D. program
The EDTP is not a lighter Ph.D. It serves a different population through a different academic model, with the same doctoral seriousness including a qualifier, proposal, committee, and defense.
| Executive Doctorate of Technology Practice | Traditional MechE Ph.D. | |
|---|---|---|
| Intended candidate | Proven innovator/founder/senior technology leader | Early-career doctoral researcher |
| Admissions emphasis | Demonstrated technological impact, leadership, and potential | Academic preparation and research promise |
| Funding | Self-funded | Typically RA/TA/fellowship |
| Contribution | Original body of work advancing technology through knowledge, skills, and/or practice | Dissertation-centered original research |
| Distinctive elements | Innovator-in-Residence + Teaching Independent Study | Research apprenticeship; TA duties |
| Qualifier | Curated qualifier, tailored to the candidate, after year one | Standard departmental qualifier |
| Minimum duration | 3 years | Typically 5 years |
Requirements at a glance
- Minimum duration: 3 years (pending successful defense)
- Coursework: minimum 36 MechE course units (graduate; undergraduate 200-level or above; or supervised reading)
- Research: minimum 192 research units (24-797); typically 36 units/semester, 48-unit cap
- Residency: at least one year
- Curated qualifying examination: after one year
- Seminar: two semesters of MechE Seminar + one MechE seminar talk
- Innovator-in-Residence experience
- Teaching Independent Study
- Original body of work: formal proposal and defense
Admissions
Admission is selective and evidence-based — a completed formal degree is not required, but all candidates must have completed some level of postsecondary education through a university or college.
Applications are evaluated by a committee assessing leadership, capability, potential, and alignment with the program’s mission. We look for:
- Evidence of sustained, substantial technological impact (venture, division, or patent portfolio);
- A portfolio of work — products, artifacts, publications, or ventures;
- Readiness to engage with graduate-level MechE material;
- Fit with available MechE faculty advising;
- Ethical and leadership maturity.
Application materials and deadlines follow the MechE doctoral application. While the EDTP application is being finalized, refer to the MechE Ph.D. application website for required content (statement of purpose, CV/portfolio, references, transcripts).
Curriculum & milestones
- Year one — coursework begins; advising and a curated learning plan tailored to the candidate’s background and goals.
- Curated qualifying examination — after one year; tailored to the candidate’s domain while maintaining doctoral rigor.
- Proposal — formal proposal of the original body of work to the defense committee.
- Body-of-work development — research, building, and the Innovator-in-Residence and Teaching Independent Study experiences.
- Defense — formal defense of the original body of work.
What counts as a body of work?
Software, documentation, research papers, physical artifacts, or other forms — defined by the candidate and advisor. Examples: large language model (LLM) extensions for health care; soft robotics for critical-dexterity tasks; trustworthy elder-care solutions; physical AI for manufacturing, agriculture, construction, household, and medical use; next-generation semiconductor manufacturing; new chip frameworks for space; and brain-computer-interaction approaches.
What are the Innovator-in-Residence and Teaching Independent Study experiences?
The Innovator-in-Residence is a structured experience in which the student contributes their innovation impact and entrepreneurial expertise to MechE projects or to the entrepreneurial experiences of current students.
The Teaching Independent Study envisions the successful candidate developing a MechE course or seminar or other MechE-related educational experience that shares their innovation and/or entrepreneurial expertise and provides new insight to MechE students. Approval must be received from the faculty advisor(s) and department leadership.
Education outcomes
Upon completion, graduates will be able to:
- Lead at the frontier of technology — set and pursue a visionary technical agenda, and define new directions for a field rather than follow existing ones.
- Build and steward institutions, ventures, and teams that translate frontier ideas into sustained, large-scale impact on technology and society.
- Exercise principled judgment under uncertainty — anticipate and weigh the ethical, societal, and global implications of new technologies, and lead responsibly when the right path is not yet defined.
- Command and convene world-class peers — communicate a technical vision persuasively to experts, decision-makers, investors, policymakers, and the public, and mobilize others toward it.
- Advance the state of the art through original work — produce an original body of work that meaningfully extends what is technically possible.
- Master a structured approach to pursuing technology knowledge and innovation — integrate knowledge across disciplines and apply it rigorously to novel problems. These outcomes subsume, and raise the ambition of, the program's three baseline competencies: a structured approach to pursuing technology knowledge and/or innovation; evaluating the ethical and societal implications of new technologies; and communicating technical ideas effectively to a range of audiences.
Advising model
- A CMU MechE faculty advisor guides each candidate.
- An additional CMU co-advisor may also be added.
- An external / practice co-advisor may be added where appropriate.
- A formal defense committee (at least four faculty, at least two from MechE) is formed for the proposal and defense.
- Program Director: Jon Cagan / Ding Zhao
Academic Program Administrator: Chris Hertz, Director of Academic Programs
Tuition & funding
The EDTP is self-funded. Candidates pay full tuition, fees, and expenses at the College of Engineering Ph.D. tuition structure. The program does not provide RA, TA, or fellowship support. Employer or venture sponsorship of tuition may be permitted where consistent with University policy
FAQs
What is an “executive” doctorate?
A doctorate designed for already-established technology leaders — analogous to how an Executive MBA serves experienced professionals — rather than for early-career researchers. It is a new CMU program, not an existing degree option.
Do I need an undergraduate degree?
No formal degree is required, but you must have completed some level of postsecondary education through a university or college.
Is the program online?
The program is Pittsburgh-based, requires at least 1 year of residency, and uses mixed delivery methods.
What is a “curated” qualifier?
A qualifying examination tailored to your background and domain of practice, taken after one year, holding rigor equivalent to the standard departmental qualifier.
How long does it take?
A minimum of three years, pending successful defense.
Are publications required?
The requirement is an original body of work that advances technology through knowledge, skills, and/or practice — which may take many forms, including, but limited to, publications.
