That improved the outlook.
The eagle received pain medication and fluid therapy. The visible wounds were cleaned. The wing was temporarily stabilized close to the body to prevent the fracture from moving while the team planned definitive treatment.
The bird was then placed in a quiet hospital enclosure with thick towels covering the floor.
No high perch was provided.
At that stage, a fall could cause additional injury.
The first goal was stabilization.
The second was deciding how best to repair the wing.
For an adult Bald Eagle expected to return to the wild, simply allowing the bone to heal in whatever position it happened to take would not be enough.
Flight demands precise alignment.
The ulna and radius form a framework that supports the flight feathers and helps control the shape of the wing. If one bone heals shortened, rotated, or significantly displaced, the entire aerodynamic structure can change.
A bird might survive such a fracture.
It might even flap.
That does not mean it could hunt, turn, climb, or land with the accuracy required in the wild.
Larson consulted with another veterinarian experienced in avian orthopedic surgery.
After reviewing the images, they agreed that surgical stabilization offered the eagle the best chance of recovering functional flight.
The procedure would not be performed until the bird was sufficiently stable for anesthesia.
The first night was therefore focused on supportive care.
The eagle remained on the padded floor for most of the evening. It showed little interest in food and moved only when someone entered the room. The injured wing remained supported against its side.
Staff monitored breathing, body temperature, hydration, and neurologic status.
They also kept the room quiet.
Wildlife patients often experience significant stress simply from being close to people. Repeated handling would not make the fracture heal faster. The team entered only when necessary.
By early the following morning, the eagle was sitting more upright.
It also began showing stronger defensive behavior.
When a technician approached, the bird opened its beak and raised one foot.
The response required everyone to be more careful.
It was also encouraging.
One of the signs that a wild eagle is regaining strength is that it becomes less willing to tolerate treatment.
The bird accepted a small amount of food later that morning.
Blood work showed that dehydration was improving and that there was no obvious systemic problem severe enough to prevent surgery.
The operation was scheduled.
The eagle was anesthetized, and the injured wing was carefully prepared. Throughout the procedure, the veterinary team monitored respiration, heart rate, temperature, and anesthetic depth.
The fracture had to be handled with as little additional soft-tissue damage as possible.
In a flying bird, the muscle and tendon structures surrounding a fracture can be just as important as the bone itself.
The ulna was brought back toward its normal alignment and stabilized using orthopedic fixation appropriate for the injury. The radius required less extensive manipulation because it remained relatively well positioned once the larger ulna was corrected.
Follow-up imaging was obtained during the procedure to verify alignment.
The final images were encouraging.
The overall shape and length of the wing had been preserved.
The major joints remained aligned.
The repair appeared stable.
Larson knew the surgery had solved only the first part of the problem.
The eagle now had to heal.
The bird recovered from anesthesia in a warm, quiet space.
Pain control was maintained.
The wing remained supported.
The medical team watched closely for postoperative bleeding, swelling, infection, or instability.
During the first several hours, the eagle was subdued.
By the following morning, it was alert enough to follow staff with both eyes and react whenever someone entered.
Its appetite also began returning.
Within three days, the eagle was eating independently.
It could stand comfortably.
Both feet remained strong.
The wing, however, had to remain protected.
The difficult part of orthopedic rehabilitation in a wild bird is that the patient does not understand why it should remain still.
As pain decreases, the animal naturally becomes more active.
That behavior is positive in one sense and dangerous in another.
A powerful flap during the earliest stage of healing could destabilize the repair.
The enclosure was therefore designed to limit unnecessary jumping and flight.
Perches remained low.
The bird had enough room to change position without enough room to build significant speed.
At approximately two weeks after surgery, the first major follow-up radiographs were obtained.
The fracture remained aligned.
The fixation was stable.
Early callus formation had begun around the broken ulna.
The radius also showed evidence of healing.
Larson was pleased but cautious.
Early callus does not have the strength of mature bone.
The eagle was improving faster behaviorally than the skeleton was healing mechanically.
That difference required patience.
The bird had become far more defensive.
It now moved away from staff immediately.
It used the low perch regularly.
During examinations, the feet were strong enough that two experienced people were required to manage restraint safely.
Everyone at the center preferred this version of the patient.
A weak Bald Eagle that allows easy handling is a medical concern.
A recovering Bald Eagle that wants nothing to do with people is closer to normal.
The small wounds around the wing healed well.
No deep infection developed.
The feathers around the surgical area remained damaged and disorganized, but the majority of the important flight feathers were still present.
Several weeks after surgery, another set of radiographs showed increasing bone formation across the fracture.
The alignment continued to hold.
At this stage, the rehabilitation plan began shifting gradually from complete protection toward restoration of motion.
This transition had to be carefully timed.
Too much movement too early could damage the repair.
Too little movement for too long could create permanent stiffness.
The wing had already lost muscle strength after several weeks of reduced use.