Riyadh’s Robotic Child Liver Transplant Also Freed the Donor

King Faisal Specialist Hospital and Research Centre in Riyadh sent an eight-year-old home two weeks after a fully robotic living-donor liver transplant in May 2025. Open cases of that kind often keep a child in hospital for about a month.

In July 2026 the same team transplanted a six-year-old through one robotic incision. The living parent who gives the left lobe is the other patient in that room.

Surgeons Moved the Ports to Fit an Eight-Year-Old

The boy reached King Faisal Specialist Hospital and Research Centre (KFSHRC) with liver failure and a body too small for the adult map of robotic ports. Professor Dieter Broering, executive director of the Organ Transplant Centre of Excellence, led the case and said the confined space forced a redesign, not a smaller version of an adult plan.

The team shifted the entry sites for the robotic tools so the arms could work inside a child’s abdomen without crowding the vessels and bile ducts that have to be joined. Broering put the problem in plain terms after the case.

Robotic surgical techniques have traditionally been limited to adults, but we succeeded in adapting them for children, offering exceptional precision and a marked reduction in complications. The transplant required redesigning the surgical approach to suit the child’s small body and confined space, which we addressed by meticulously adjusting the entry sites for the robotic tools to ensure maximum safety.

Professor Dieter Broering, Executive Director, Organ Transplant Centre of Excellence, KFSHRC

The hospital said the left lobe came from a living donor and was implanted with the robotic system, with no direct manual intervention. That claim is the line that separates this case from hybrid rooms where a surgeon still puts a hand in for the hardest joins.

Fully Robotic, With No Hand in the Abdomen

KFSHRC said the child was discharged just two weeks after surgery, which it called half the usual stay for a similar transplant. Smaller cuts were the mechanism: less abdominal wall trauma, less pain to manage, and a shorter path back toward ordinary childhood, in the hospital’s account.

The eight-year-old’s later clinic course was not published in those notes. What the hospital did publish is the operating choice, a full robotic implant rather than an open Mercedes incision across the upper abdomen, and a stay measured in weeks instead of a month.

The hospital posted a short film of the eight-year-old’s case on its own channel.

Broering later said the group wanted to share the method with partners so more children could be considered for robotic tools, and he also said child-specific systems still need to be built. The May 2025 case used adult hardware that had been rearranged. It did not wait for a pediatric robot.

The Parent Who Donates the Left Lobe

A left-lobe graft from a living donor is the usual size match for a small recipient, and that donor is often a parent. The adult has to heal fast enough to sit at a child’s bedside, then take that child home. A parents who need to recover quickly paper on robotic donor liver surgery for children made that double load explicit: the donor is not a spare part, and an open scar is part of the price.

KFSHRC’s robotic donor work was already the quiet half of the May 2025 story. Taking the left lobe with robotic instruments means 8 mm ports and a low extraction cut instead of a long right-subcostal wound. Surgeons who have watched that shift have been saying for years that large open scars are the penalty healthy donors pay.

WHAT CHANGES FOR A LIVING PARENT DONOR

• The stay: Robotic living donors in later KFSHRC series went home in two to three days, and in a January 2026 dual-donor case both adults left on day 3.
• The wound: Small ports replace a long open cut, which cuts hernia and infection risk that follows big abdominal wounds.
• The job at home: A parent who can walk sooner can look after the child who just received the lobe.
• The volume behind it: Broering said that from 2018 to 2025 the centre did 841 adult and 470 pediatric robotic-assisted liver donor operations, which is how a team learns to cut a healthy liver without an open incision.

That donor arithmetic is why the eight-year-old’s discharge is not only a pediatric headline. If the parent is back on their feet in days, more families can say yes to living donation, which is how a child program grows when deceased-donor livers remain scarce.

165 Robotic Livers and More Than 1,700 Donor Operations

KFSHRC did not invent robotic liver work in May 2025. It spent two years stacking adult firsts, then moved the same console toward children. Brand Finance placed the hospital 15th among academic medical centers in 2025, the year of the eight-year-old’s operation, and 12th globally in the 2026 ranking, first in the Middle East and North Africa for a fourth year, on a survey of more than 2,500 health professionals in 30 countries. The 2026 hospital note on that rise named a fully robotic liver transplant for a child among the cases that carried the brand.

The 2023 Adult Liver That Opened the Series

In 2023 the centre reported the world’s first fully robotic liver transplant, in a 66-year-old man with non-alcoholic cirrhosis and liver cancer. In 2024 a separate team led by Dr. Feras Khaliel, head of cardiac surgery, reported the world’s first fully robotic heart transplant, in a 16-year-old with end-stage heart failure, an operation the hospital said lasted two and a half hours after seven virtual rehearsals.

Liver work stayed with Broering’s group. By January 2026 the hospital said its robotic liver transplant program had passed 100 cases, and it described a fully robotic transplant that used two left lobes from two related living donors so each adult kept a safe remnant. Both donors went home on day 3, and the recipient left intensive care after seven days, the hospital said, with no complications reported for the three patients.

THE ROBOTIC LIVER FIRSTS KFSHRC HAS CLAIMED

By July 2026 the same centre put the running total at 165 robotic liver transplant cases, backed by more than 1,700 robotic living-donor liver resections, counted from the 2023 start of the fully robotic liver line.

PROGRAM VOLUME ON THE HOSPITAL’S OWN CLOCK

• Recipient livers: Past 100 robotic liver transplants in January 2026, then 165 by July 2026.
• Donor cuts: More than 1,700 robotic living-donor liver resections by July 2026.
• Earlier donor series: 841 adult and 470 pediatric robotic-assisted liver donor operations from 2018 to 2025, per Broering in June 2025.
• Training pipe: A 12-month fellowship in robotic transplant and hepatopancreatobiliary surgery, built because the learning curve stays steep.

Those figures are not interchangeable. The 841 and 470 counts are Broering’s 2018-to-2025 assisted-donor series. The 1,700-plus figure is the hospital’s later running total for robotic living-donor resections. They describe overlapping work at two dates, not a single sum.

One Incision Reached a Six-Year-Old

In July 2026 KFSHRC said a six-year-old boy became the first patient to receive a liver transplant through a single robotic incision. His father gave the left lobe after recurrent bouts of acute liver failure. The child has Wolcott-Rallison syndrome, a rare inherited condition that causes early-onset diabetes and those repeated liver crises. The transplant treated the liver failure. The diabetes and the genetic disease still need follow-up, the hospital said.

A single-port system puts the camera and the instruments through one small cut, rather than several ports across the abdomen. Broering’s team used that one channel for the finest work on vessels and ducts inside a six-year-old, a field even tighter than the eight-year-old’s. The hospital said early recovery was good, the graft was working, and no complications had been seen.

Broering’s comment on that case dropped the trophy language. He said this kind of operation depends on patient selection, planning, and a team that can run every stage of a transplant, not on owning the machine. He said the point of the tools is to ease the load on patients and families while keeping safety rules intact.

The six-year-old is the May 2025 logic taken one step further. First the ports moved. Then the extra ports disappeared. The father who donated is still the second patient, and a single cut is the version of the method that asks the least of his abdominal wall.

Why Other Hospitals Cannot Just Buy the Robot

Broering has been blunt about why this does not travel with the purchase order. In a June 2025 interview he said robotic platforms still need heavy upfront spending and specialised rooms, and that even experienced surgeons face a long learning curve. KFSHRC’s answer was the 12-month fellowship. Most pediatric transplant units do not have that pipeline, or the case volume to feed it.

THE LIMITS BROERING HAS PUT ON THE RECORD

• Cost: High purchase and upkeep costs restrict the method to centres that can spread them across many cases.
• Feel: Current consoles still lack haptic feedback, so the surgeon cannot feel tissue resistance and has to rely on sight.
• Urgency: Setup time makes the robot a poor fit when a liver has to go in immediately.
• Volume: Without a steady list of operations, he said, the cost-benefit case collapses, which keeps robotic transplants inside high-volume centres.

Survival and graft results, he said, look comparable to open surgery in those high-volume rooms, and better in some selected cases, with less pain and a faster return to daily life. That comparison is his centre’s. It is not a multi-country trial, and it does not make a robot the default for a small pediatric unit that does a handful of livers a year.

The eight-year-old’s two-week discharge and the six-year-old’s single cut are real operations in a program that now counts 165 robotic livers. They are also the product of more than 1,700 robotic donor resections, a fellowship year, and a team that already knew how to join a left lobe before it tried to do it in a child. Other hospitals can read the notes. They cannot skip the list.

The six-year-old still returns for the genetic disease and the diabetes that the new liver does not cure. The eight-year-old’s long-term course was not in the May 2025 discharge note. What KFSHRC put on the record is narrower, and harder: a child can receive a living-donor liver with a robot, the parent who gave the lobe can leave with small wounds, and the method only holds if the same room keeps doing this work.

Disclaimer: This article is news reporting on hospital-announced operations and program figures. It is for information only and is not medical advice, a treatment recommendation, or a second opinion on liver disease, living donation, or robotic surgery. Readers making decisions about donation, transplant, or a child’s care should consult a qualified transplant surgeon or pediatric hepatologist who can review the specific case. Length of stay, complication claims, and case counts reflect KFSHRC statements and related research as published on the dates cited and may change as later follow-up appears.