Robotic Hair Transplant: ARTAS, Results, Costs and Manual FUE

How does a robotic hair transplant work?

The operation moves your own hair-bearing grafts from a suitable donor area to thinning or bald areas. An assessment first establishes the diagnosis, the available donor supply and a realistic design. The equipment is chosen as part of that plan.

With ARTAS, cameras analyse the donor scalp and guide a robotic harvesting instrument. Rose and Nusbaum’s review describes this as an application of FUE: the machine helps identify and isolate follicular units for collection. Its imaging and controlled movements assist a surgical task; they do not create new follicles or replace the need to assess the tissue being harvested (Rose & Nusbaum, 2014).

After harvesting, grafts must be handled, checked and preserved before placement. A graft is a small piece of tissue containing a naturally occurring follicular unit. Grafts and individual hairs are different counting units, so ask which one a clinic uses in its quotation.

Does ARTAS also implant the grafts?

Capabilities depend on the model and the workflow used by the clinic. Older descriptions of robotic harvesting do not describe every current system. The manufacturer’s ARTAS iXi page lists harvesting, recipient-site creation and implantation functions, with the device intended to assist physicians (Venus, n.d.).

Ask which steps will be performed using the machine and which will be performed by hand. “Robotic” is not enough detail to explain your operation. A team may use a robot for harvesting and a different method for placing the grafts; another may use additional functions of its system.

The surgeon still needs to agree the hairline with you, choose the donor boundaries and monitor the procedure. A machine’s ability to repeat a movement does not establish whether that movement is appropriate for every follicle.

Is NeoGraft the same technology?

NeoGraft is commonly discussed alongside ARTAS, but a motorised hand-held harvesting system and an image-guided robotic arm should not be treated as identical. For any advertised system, ask who physically controls the instrument, how grafts are collected and what experience the team has with it.

The label “IFA”, sometimes used in descriptions of automated follicular implantation, also needs clarification. It does not explain a universally standardised operation. The actual device, harvesting method and placement technique are more useful details for comparing clinics.

What benefits might robotic assistance offer?

Imaging can help the operator visualise follicular-unit position and orientation. A robotic system can also perform repetitive movements under supervision, with settings that the operator adjusts. These are practical capabilities of the equipment; whether they improve your final appearance depends on the whole procedure (Rose & Nusbaum, 2014).

For a patient, a meaningful benefit would be a well-planned operation that preserves the donor area and produces the agreed distribution of hair. Ask the surgeon to explain how the chosen equipment helps achieve those objectives in your case.

A claim about faster harvesting needs context. The complete appointment also includes preparation, local anaesthesia, collection and inspection of grafts, recipient-site work and implantation. Saving time during one stage does not necessarily halve the entire operation. Similarly, a shorter extraction-to-placement interval does not by itself prove a particular regrowth rate.

Results and limitations: what does the evidence show?

A 2024 comparative study examined 13 Chinese men aged 25–35 with male pattern hair loss. Each participant received ARTAS harvesting on one side of the donor area and traditional FUE on the other. This allowed the researchers to compare methods within the same patients (Zhu et al., 2024).

The study reported transection rates of 13.17% with ARTAS and 13.96% with traditional FUE, without a statistically significant difference. The discard rate was higher on the ARTAS side, while patient satisfaction did not differ significantly. These findings do not support a promise that every robot-harvested graft remains intact.

This was a small study in a specific patient group. It cannot settle the best technique for every hair type, operator or generation of equipment. A transection rate during harvesting is also not a direct measure of the percentage of transplanted hairs that later grow.

When a clinic quotes a success rate, ask what was counted, when it was measured and whether the figures apply to that clinic’s own patients. A satisfaction score, a graft-harvesting yield and long-term growth are different outcomes.

Hair type and donor limitations

Eligibility is specific to the device, its approved use and your hair characteristics. Ask the clinic to identify the exact ARTAS model and explain whether its harvesting system is suitable for your scalp and hair type. A limitation of one device does not rule out hair transplantation using another method (Venus, n.d.; True, 2021).

For tightly curled, very light or grey hair, or where body-hair harvesting is being considered, ask about the team’s relevant experience and the suitability of its equipment. An individual assessment is more useful than a universal claim based on ethnicity or a marketing category.

The hair transplant donor area remains a finite resource. A robot cannot make an inadequate donor supply unlimited. Extensive baldness may require compromises in coverage or density, and sometimes surgery is not appropriate. Surgical candidacy depends on diagnosis, stability of hair loss, donor characteristics and expectations rather than the availability of a particular machine (True, 2021).

Robotic versus manual FUE: choosing between approaches

A useful comparison starts with the same proposed hairline, recipient area and donor budget. If two clinics recommend very different graft numbers, ask them to explain the clinical reasoning before comparing their equipment.

Robotic FUE	Hand-held FUE
Image-guided harvesting	Operator handles the punch
Placement varies by system	Standard placement method
Small extraction scars	Small extraction scars
Suitability needs device fit	No extra device factor

The instrument name is only one part of quality. Discuss who will perform each stage and who will make decisions if the grafts are difficult to harvest. Ask to see representative results in patients with a comparable pattern of loss, hair texture and donor characteristics, including views of the back and sides of the head.

The guide to manual hair transplantation explains that alternative in more detail. Neither an exclusively manual approach nor robotic assistance removes the need for careful planning, graft handling and follow-up.

How FUE, FUT and DHI fit into the comparison

FUE describes harvesting, not an implantation pen. In an FUE hair transplant, follicular units are removed individually using small punches. The instrument may be manually driven, motorised or robotically assisted.

FUT, often called the strip method, removes a strip of hair-bearing scalp that is divided into grafts. It leaves a linear donor scar. FUE avoids that particular scar pattern but creates numerous small extraction scars. The ISHRS specifically rejects the description of FUE as scarless; visibility depends on factors including harvesting, healing and hair length (International Society of Hair Restoration Surgery, 2024).

DHI implantation generally refers to placing harvested grafts using an implanter. A Choi-type pen does not remove a follicle from the donor scalp and instantly transplant it in one action. Park and colleagues describe graft loading and placement with a sharp implanter, including depth control and team training. Their technical guide does not establish universal superiority over every other placement method (Park et al., 2023).

A quotation can therefore describe FUE harvesting and DHI placement within the same operation. Ask the clinic to explain these stages in plain language rather than treating the acronyms as mutually exclusive products.

Recovery and possible complications

Robotic FUE remains surgery. Scabbing, swelling and discomfort can occur, and there are risks including bleeding, infection, scarring and unsatisfactory growth. Contact the treating clinic promptly for severe pain or unexpected symptoms. Follow your own surgeon’s washing, activity and scalp-care instructions.

The NHS advises that patients may need one to two weeks off work and describes full results becoming apparent over approximately ten to eighteen months. These are general hair-transplant expectations, not proof that robotic treatment follows an identical timetable for everyone. Existing hair around the transplant may continue to thin (NHS, 2023).

How much does a robotic hair transplant cost?

There is no single reliable tariff that applies to all robotic procedures in the UK or Turkey. The device, surgeon, graft requirement, treatment setting and follow-up can change the quotation. A machine’s purchase price does not tell you whether an individual operation will be cheaper or more expensive than hand-held FUE.

Request a written quotation that identifies:

• The responsible clinician, equipment and harvesting and placement methods.
• The estimated graft count, with any distinction between grafts and hairs.
• Clinical fees, medicines and scheduled reviews included in the price.
• Travel and accommodation where relevant, and the cost of a return visit.
• The arrangements if healing or growth does not progress as expected.

PRP or another additional treatment should have its own explanation of purpose, evidence, risks and cost. Ask whether it has a specific indication in your case and whether it would be charged separately.

When considering a hair transplant in Turkey with Body Expert, confirm the proposed technique in your individual plan. Packages include a five-star hotel with breakfast, VIP airport–hotel–clinic transfers, an English-speaking patient coordinator and 12 months of post-operative follow-up. Flights remain the patient’s responsibility, and PRP is not included in the standard package. These arrangements do not imply that ARTAS or another robotic system is supplied in your package.

For treatment in England, check the clinic’s CQC registration and the doctor’s GMC registration and licence. Ask about the surgeon’s experience and who provides care if there is a complication (NHS, 2023). For treatment abroad, establish the relevant local registration and a practical plan for review after returning home.

A suitable robotic procedure should be justified by your clinical needs and the team’s experience. If the recommendation rests mainly on “AI”, an impressive graft total or a guaranteed percentage of regrowth, ask for a clearer explanation of the proposed treatment and the evidence behind it.

Sources

Rose, P. T., & Nusbaum, B. (2014). Robotic hair restoration. Dermatologic Clinics, 32(1), 97–107. https://doi.org/10.1016/j.det.2013.09.008

Zhu, Y., Yang, K., Lin, J.-M., Ni, C., Zhang, Y., Li, Z., Liu, Q., Zhou, Y., Lin, J., & Wu, W. (2024). A comparative study on the application of robotic hair restoration technology versus traditional follicular unit excision in male androgenetic alopecia. Journal of Cosmetic Dermatology, 23(12), 4213–4222. https://doi.org/10.1111/jocd.16554

Park, J. H., Ho, Y. H., & Manonukul, K. (2023). A practical guide to hair graft placement using the sharp implanter method. Clinical, Cosmetic and Investigational Dermatology, 16, 1777–1785. https://doi.org/10.2147/CCID.S411488

True, R. H. (2021). Is every patient of hair loss a candidate for hair transplant?—Deciding surgical candidacy in pattern hair loss. Indian Journal of Plastic Surgery, 54(4), 435–440. https://doi.org/10.1055/s-0041-1739247

International Society of Hair Restoration Surgery. (2024, June 26). Is FUE scarless? ISHRS patient guidance.

NHS. (2023, September 29). Hair transplant. NHS procedure guidance.

Venus. (n.d.). ARTAS iXi robotic hair restoration system. Retrieved September 8, 2026, from the manufacturer’s product information.