Hip Fracture Surgery

Hip Fracture Surgery is an operation used to stabilize or replace the broken upper part of the femur after a hip fracture. The surgeon chooses the operation according to the location of the fracture, whether the bone fragments have moved, the quality of the bone and the patient's age, health and level of activity before the injury.

Some fractures are repaired so the patient's bone can heal. This approach is called internal fixation. Screws, plates or an intramedullary nail hold the fragments in the correct position while new bone forms across the fracture.

Other fractures, especially displaced femoral neck fractures in many older adults, are treated by replacing the broken femoral head rather than waiting for the fracture to unite. The replacement can be a hemiarthroplasty, in which the femoral head is replaced while the natural acetabulum is preserved, or a total hip replacement, in which both sides of the joint are replaced.

The operation is therefore not selected simply because someone has “a broken hip.” The anatomical fracture pattern fundamentally changes the treatment.

What Is Actually Broken in a Hip Fracture?

Most fractures commonly called hip fractures occur in the proximal femur, which is the upper end of the thigh bone.

The hip itself is a ball-and-socket joint. The femoral head forms the ball, while the acetabulum in the pelvis forms the socket. Immediately below the head is the femoral neck, followed by the greater and lesser trochanters.

A break through any of these proximal femoral regions may be described as a hip fracture.

This page focuses on proximal femur fractures. An acetabular fracture involving the pelvic socket is a different injury with its own treatment principles and should not be confused with a conventional geriatric hip fracture.

The Three Main Types of Hip Fracture

The three clinically important categories are femoral neck fractures, intertrochanteric fractures and subtrochanteric fractures.

A femoral neck fracture occurs between the femoral head and the trochanteric region. Because this part of the bone lies within the hip capsule and has an important blood supply to the femoral head, displacement can threaten the viability of the head.

An intertrochanteric fracture occurs through the region between the greater and lesser trochanters. These fractures are outside the joint capsule and usually have a better blood supply for bone healing, so they are commonly repaired rather than replaced.

A subtrochanteric fracture occurs below the lesser trochanter, typically within the upper several centimeters of the femoral shaft. Strong muscular forces act on this region, making these fractures mechanically demanding.

Femoral Neck Fracture

Femoral neck fractures are particularly important because the blood supply to the femoral head can be damaged when the fracture becomes displaced.

In younger patients, preserving the femoral head is generally an important objective. The surgeon attempts accurate reduction and stable fixation whenever feasible because replacing the natural hip in a young adult has major lifetime implications.

In older adults, the situation is different. A displaced femoral neck fracture has substantial risks of nonunion and avascular necrosis if treated only with fixation. For many older adults, replacing the fractured femoral head provides a more reliable route toward early mobilisation.

This explains why two patients with fractures in the same anatomical area can receive completely different operations.

Nondisplaced Femoral Neck Fracture

A nondisplaced fracture has not significantly moved out of alignment.

Internal fixation using multiple screws or a fixed-angle device can be considered because the bone remains relatively well positioned.

In selected older adults, hemiarthroplasty or even nonoperative management can also be considered depending on fracture stability, frailty and medical circumstances.

The choice is increasingly individualized. A fracture that appears nondisplaced on one X-ray may also require CT or MRI when the diagnosis or stability is uncertain.

Displaced Femoral Neck Fracture

A displaced fracture means the femoral head and neck fragments have lost their normal relationship.

In many older patients, arthroplasty is preferred because fixation has a greater risk of failure, nonunion and avascular necrosis.

Hemiarthroplasty is frequently used in older or less active patients, while total hip replacement may be considered in appropriately selected people who were independently mobile and functionally active before the fracture.

The patient's cognition, life expectancy, pre-existing hip arthritis and ability to participate in rehabilitation all influence this decision.

Intertrochanteric Fracture

An intertrochanteric fracture passes through the region between the greater and lesser trochanters.

These injuries frequently occur after a fall from standing height in older adults with osteoporosis.

Unlike a displaced intracapsular femoral neck fracture, the femoral head usually remains biologically viable. Treatment therefore aims to stabilize the fracture rather than replace the joint.

A sliding hip screw or cephalomedullary nail can be used for selected stable patterns. Unstable patterns generally favor cephalomedullary fixation.

Stable vs Unstable Intertrochanteric Fracture

A stable fracture has enough structural support that the fragments can transmit load predictably after fixation.

An unstable fracture has characteristics such as posteromedial fragmentation, reverse-obliquity orientation, lateral-wall problems or other patterns that make collapse and mechanical failure more likely.

The distinction matters because implant choice changes.

Stable fractures can often be treated successfully with either a sliding hip screw or cephalomedullary device. Unstable fractures usually benefit from an intramedullary cephalomedullary nail.

Subtrochanteric Fracture

A subtrochanteric fracture occurs below the lesser trochanter.

This region experiences high bending forces during standing and walking.

The hip and thigh muscles can pull fracture fragments in different directions, making reduction difficult.

Cephalomedullary nailing is commonly used because the implant sits close to the mechanical axis of the femur and provides strong internal support.

A longer nail may be required when the fracture extends farther down the femur.

Reverse-Obliquity Fracture

A reverse-obliquity fracture is an unstable trochanteric pattern in which the fracture line travels in a direction that makes a conventional sliding hip screw mechanically less favorable.

A cephalomedullary nail is generally preferred.

The implant controls both the proximal fragment and the femoral shaft while allowing the surgeon to manage the unusual fracture mechanics.

Recognizing the pattern on the preoperative X-ray is important because an implant suitable for a stable fracture is not necessarily optimal for an unstable reverse-obliquity fracture.

What Causes Hip Fractures?

In older adults, the most common mechanism is a relatively low-energy fall.

Osteoporosis weakens the proximal femur so that an impact that would not fracture strong young bone can produce a serious injury.

Reduced balance, muscle weakness, poor vision, medication effects and environmental hazards can all increase fall risk.

In younger people, hip fractures are much more often associated with high-energy trauma such as a road collision, motorcycle accident or fall from height.

The difference matters because young high-energy fractures can be accompanied by additional injuries and usually require a stronger emphasis on preserving the natural femoral head.

Is a Hip Fracture the Same as a Broken Hip?

Yes, in common clinical language a broken hip usually means a fracture of the proximal femur.

The term does not necessarily mean that the ball-and-socket joint itself has broken apart.

The fracture can occur through the femoral neck, the intertrochanteric region or the subtrochanteric area.

The specific anatomical diagnosis should always be included because it determines which operation is appropriate.

Does a Fractured Hip Require Surgery?

Most hip fractures in adults require surgery.

The main reason is that prolonged immobilisation is particularly dangerous, especially in older adults. Severe pain makes sitting, transferring and walking difficult. Remaining in bed increases the risks of pneumonia, blood clots, pressure injuries, muscle loss, delirium and loss of independence.

Surgery stabilizes or replaces the broken bone so rehabilitation can begin much earlier.

There are exceptions. Certain stable impacted or nondisplaced femoral neck fractures may be considered for nonoperative care in selected patients, and surgery may not be appropriate for a patient who is critically ill or approaching the end of life.

These are individualized decisions rather than the standard approach to hip fracture.

Can a Fractured Hip Heal Without Surgery?

Yes, some fractured hips can technically heal without surgery, but nonoperative treatment is uncommon and is not appropriate for most displaced adult hip fractures.

An impacted stable femoral neck fracture may remain aligned and potentially unite. Even then, the patient must be monitored because displacement can occur later.

A patient who cannot undergo surgery because of overwhelming medical risk may also be treated nonoperatively, with the goals focused on pain control, positioning, nursing care and comfort.

The fact that a bone has biological potential to heal does not automatically make conservative treatment safer. The consequences of immobility often make surgical stabilization the better overall treatment.

Why Is Hip Fracture Surgery Usually Urgent?

Hip fractures are different from many elective orthopedic procedures because every additional day of painful immobility can create new medical problems.

The patient often cannot sit, stand or walk normally before fixation.

Modern hip-fracture pathways therefore aim to medically assess and optimize the patient quickly and proceed to surgery as soon as safely practical.

Major guidelines generally support surgery within approximately 24–48 hours of hospital admission when possible.

This does not mean that every patient should be rushed to the operating room without appropriate medical assessment.

Serious correctable problems such as uncontrolled heart failure, significant electrolyte abnormalities, severe volume depletion or acute infection may need treatment first.

The objective is rapid optimization, not unnecessary delay.

Is Hip Fracture Surgery an Emergency?

It is better described as an urgent operation in most patients.

The fracture normally requires hospital admission, pain control, medical evaluation and prompt surgery.

It may become more immediately emergent when the injury is open, vascular compromise is present, associated trauma requires intervention or another life-threatening condition exists.

For a typical older patient with a closed hip fracture, treatment is urgent but coordinated.

Why Delaying Surgery Can Be Harmful

A patient immobilized by a fractured hip rapidly loses strength.

Pain makes breathing deeply, eating, using the toilet and changing position more difficult.

Older adults can develop delirium when they are in pain, sleep deprived, dehydrated or exposed to an unfamiliar hospital environment.

Pressure injuries and respiratory complications become more likely with prolonged immobility.

For these reasons, the preoperative team aims to correct manageable medical issues efficiently rather than delaying surgery for investigations that are unlikely to change treatment.

Hip Fractures in Younger Adults

A hip fracture in a 30-year-old is biologically and mechanically different from a fragility fracture in an 85-year-old.

Young patients usually sustain greater trauma and often have stronger bone.

When the fracture passes through the femoral neck, surgeons generally make major efforts to preserve the natural femoral head.

Accurate reduction and stable fixation are critical because a poorly aligned fracture can fail to unite.

Even after technically successful fixation, avascular necrosis remains a concern because the trauma itself can disrupt blood vessels supplying the femoral head.

Hip Fractures in Older Adults

Older adults make up the largest hip-fracture population.

Many have osteoporosis, reduced muscle strength and one or more chronic medical conditions.

The fracture therefore becomes more than an orthopedic problem.

Successful treatment often requires coordination between orthopedics, anaesthesia, geriatric medicine, nursing, physiotherapy, occupational therapy, nutrition and bone-health services.

The objective is not simply obtaining a good postoperative X-ray. It is getting the person safely back toward mobility and independence.

Osteoporosis and Hip Fracture

A low-energy hip fracture in an older adult should raise concern about underlying bone fragility.

The fracture may be the first obvious sign of osteoporosis.

Treatment should therefore include evaluation of bone health after the acute operation.

Medication for osteoporosis may be recommended according to age, bone density, fracture history, kidney function and other factors.

Adequate calcium and vitamin D intake should also be considered within the overall medical plan.

Hip Fracture vs Hip Dislocation

A hip fracture means bone has broken.

A hip dislocation means the femoral head has moved out of the acetabulum.

High-energy trauma can occasionally produce both injuries.

The treatment priorities then change substantially.

A dislocated hip often requires urgent reduction to reduce the risk of complications, while associated fractures require their own surgical strategy.

Hip Fracture vs Pelvic Fracture

A pelvic fracture involves one or more bones of the pelvis.

Some pelvic fractures can be treated without surgery, while unstable patterns require complex trauma reconstruction.

A conventional hip fracture usually refers specifically to the upper femur.

This distinction is important when patients search for surgery for fractured hip, because pelvic and acetabular fracture operations should not be grouped into the same procedure page.

Emergency Assessment

The first priority is confirming the fracture and assessing the patient's overall condition.

The team asks how the injury happened, whether the patient lost consciousness and whether other injuries are present.

Older patients are assessed for medical problems that may have contributed to the fall, such as infection, low blood pressure, abnormal heart rhythm or medication effects.

Pain control begins early rather than waiting until the surgical plan is complete.

Symptoms of a Hip Fracture

Severe groin or upper-thigh pain after a fall is common.

Many patients cannot stand or bear weight.

The injured leg may appear shortened and externally rotated when the fracture is displaced.

However, impacted nondisplaced fractures can be less dramatic.

Some patients can still stand or take several painful steps, so the ability to walk does not completely rule out a hip fracture.

X-Rays

Standard pelvis and hip radiographs usually confirm the diagnosis.

The images show the fracture location, displacement and general pattern.

The surgeon uses this information to decide whether fixation or arthroplasty is likely to be appropriate.

The entire proximal femur should be reviewed rather than focusing only on the most obvious fracture line.

Occult Hip Fracture

Occasionally, a patient has classic hip-fracture symptoms but the initial X-ray looks normal.

This is particularly important in older adults with osteoporosis.

If clinical suspicion remains high, MRI is highly sensitive for an occult fracture.

CT can be used when MRI is unavailable or contraindicated.

The patient should not simply be discharged to walk normally because the first radiograph failed to show a fracture.

CT Scan

CT can clarify complex fracture anatomy.

It is especially helpful when the fracture extends into unusual regions, the X-ray is unclear or a young patient's femoral neck fracture needs detailed assessment.

CT is not mandatory for every routine intertrochanteric fracture.

The imaging should answer a clinical question rather than simply delay definitive treatment.

Blood Tests

Routine blood tests assess hemoglobin, kidney function, electrolytes and other relevant parameters.

A hip fracture can be associated with significant blood loss even before surgery, particularly in extracapsular fractures.

The team may also perform coagulation tests when the patient uses blood-thinning medication or has relevant medical conditions.

Results are interpreted alongside the urgency of surgery.

ECG and Medical Assessment

Older patients commonly undergo an ECG and focused cardiovascular evaluation.

Additional investigations depend on symptoms and medical history.

The objective is to identify problems likely to alter immediate perioperative treatment.

Extensive testing should not automatically delay surgery when it is unlikely to change management.

Anticoagulants

Many older adults take warfarin, direct oral anticoagulants, aspirin or other antithrombotic medications.

The medical and anaesthetic teams evaluate the bleeding risk and determine whether medication needs to be held, reversed or managed differently.

The strategy depends on the medication, kidney function and urgency.

Patients should never attempt to manage these medicines themselves after sustaining a fracture.

Pain Control Before Surgery

Hip fractures can be extremely painful.

Pain treatment commonly combines different medication classes rather than relying on large opioid doses alone.

Regional nerve blocks can reduce pain and opioid requirements in appropriate patients.

Good pain control also helps the patient breathe, cooperate with nursing care and avoid some of the stress that can contribute to delirium.

Preoperative Traction

Routine preoperative traction was historically common.

Weights or traction devices were used in an attempt to align the fracture and reduce discomfort while waiting for surgery.

Modern evidence does not support routine traction for typical hip fractures.

Comfortable positioning and effective analgesia are usually preferable while definitive surgery is arranged.

Nutrition and Hydration

Older hip-fracture patients frequently arrive dehydrated or nutritionally vulnerable.

Intravenous fluids may be required.

Protein and energy intake become important during recovery because fracture healing and muscle rehabilitation require adequate nutrition.

Malnutrition can impair rehabilitation and wound healing.

Nutrition assessment is therefore part of modern multidisciplinary hip-fracture care.

Delirium Risk

Acute confusion is common among older hip-fracture patients.

Risk is higher in people with dementia, infection, sensory impairment or multiple medical conditions.

Good pain control, hydration, sleep, familiar communication and minimizing unnecessary medications can help.

Family involvement can also be useful.

Delirium should be recognized and treated as a medical complication rather than simply assumed to be normal behavior after a fracture.

Choosing the Operation

The surgeon considers fracture type first.

A displaced femoral neck fracture in an older patient often leads toward arthroplasty.

An intertrochanteric fracture usually leads toward fixation.

Age and bone quality then influence the choice further.

Pre-fracture walking ability, cognition, existing hip arthritis and medical condition help determine whether hemiarthroplasty or total hip replacement is preferable when arthroplasty is being considered.

Fixation vs Replacement

Internal fixation keeps the patient's femoral head and allows the fracture to heal.

It is attractive when biological healing is likely and when preserving the native joint is important.

Replacement bypasses the need for the fractured femoral neck to unite.

This becomes particularly useful in displaced intracapsular fractures in older adults because the blood supply and fracture-healing potential may be compromised.

Neither method is universally better; the fracture and patient determine the correct choice.

Hemiarthroplasty vs Total Hip Replacement

Hemiarthroplasty replaces the femoral head and neck while leaving the patient's acetabulum intact.

It is commonly used for displaced femoral neck fractures in older adults.

Total hip replacement additionally resurfaces the acetabulum.

THA may provide functional advantages for carefully selected active patients but involves a larger operation and can have a different complication profile.

The decision should reflect the patient's pre-fracture activity rather than simply chronological age.

Anaesthesia

Both spinal and general anaesthesia are used for hip-fracture surgery.

No universal rule makes one method appropriate for every patient.

The anaesthetist considers heart and lung function, anticoagulation, patient preference and the planned operation.

Regional nerve blocks can be combined with either strategy to improve perioperative pain control.

Timing of Surgery

For most older adults, surgery should proceed as soon as safely practical after medical optimization.

A common target is within 24–48 hours of admission.

Some systems aim for surgery on the day of admission or the following day.

Delay can occasionally be necessary for serious correctable medical problems, but routine postponement simply because a patient is old or medically complex is undesirable.

Medical Travel Before Hip Fracture Surgery

An acute hip fracture is generally not an appropriate procedure to delay in order to travel internationally for a cheaper operation.

A patient with a newly fractured hip usually cannot walk normally, requires pain treatment and is at risk from prolonged immobility.

Long flights can complicate pain, transfers and blood-clot risk.

Orthopedic Abroad should therefore treat this page differently from elective joint-replacement pages: cost comparisons can inform patients, but urgent fracture care should normally be obtained at the nearest appropriately equipped trauma hospital.

There is no single Hip Fracture Surgery technique.

The surgeon first identifies whether the fracture is femoral neck, intertrochanteric or subtrochanteric and then selects either internal fixation or arthroplasty.

The operation aims to create enough stability for early mobilisation while respecting bone quality and fracture biology.

Fluoroscopy is commonly used during fixation procedures to guide reduction and implant placement.

Closed Reduction

Reduction means returning the broken fragments toward their normal anatomical position.

In many intertrochanteric fractures, the surgeon first applies controlled traction and rotation on a fracture table.

X-ray images confirm alignment from multiple directions.

If acceptable alignment can be achieved without opening the fracture site, this is called closed reduction.

Maintaining good reduction is crucial because even a strong implant can fail when fracture alignment is poor.

Open Reduction

Some fractures cannot be aligned adequately using closed methods.

The surgeon can then make an additional incision and manipulate the fragments directly.

This is called open reduction.

The goal is not necessarily perfect cosmetic alignment on every X-ray but restoration of mechanically important relationships that allow stable fixation and healing.

Complex subtrochanteric fractures require open assistance more often than straightforward stable intertrochanteric patterns.

Multiple-Screw Fixation for Femoral Neck Fracture

Selected nondisplaced or young-patient femoral neck fractures can be fixed using several large cannulated screws.

Guidewires are positioned across the fracture into the femoral head under fluoroscopy.

The screws compress or stabilize the fracture while preserving the natural femoral head.

Accurate placement matters because screws must achieve strong purchase without entering the joint.

The patient continues to require radiographic follow-up because nonunion and avascular necrosis remain possible even when fixation initially appears excellent.

Fixed-Angle Femoral Neck Devices

Some femoral neck fractures can be treated with a fixed-angle device designed to resist rotation and shear.

The implant includes a large element passing into the femoral head together with a lateral plate or other stabilizing structure.

The exact device depends on surgeon preference and fracture morphology.

The principle remains the same: preserve the femoral head while maintaining reduction long enough for biological union.

Sliding Hip Screw

A sliding hip screw, sometimes called a dynamic hip screw, is an extramedullary fixation device.

A large screw passes through the femoral neck into the femoral head and connects to a plate along the outside of the femur.

The design allows controlled compression at the fracture as the patient loads the limb.

It remains an effective treatment for many stable intertrochanteric fractures.

Implant position within the femoral head is important because poor positioning can increase the risk of the screw cutting out of weak bone.

Cephalomedullary Nail

A cephalomedullary nail is inserted into the medullary canal of the femur.

A large screw or blade then passes from the nail through the femoral neck into the femoral head.

The construct places the main implant closer to the mechanical axis of the limb than a side plate.

This is particularly useful for unstable intertrochanteric fractures, reverse-obliquity fractures and subtrochanteric fractures.

Short or long nails can be selected according to fracture extension and surgeon preference.

How a Cephalomedullary Nail Is Inserted

After reduction, the surgeon makes an incision near the greater trochanter and establishes an entry point into the femoral canal.

A guidewire is advanced and the canal is prepared as required.

The nail is inserted down the femur.

A targeting guide helps position the head screw or blade accurately.

Distal locking screws can then control rotation and length.

Fluoroscopy confirms alignment and implant position before closure.

Short vs Long Nail

A short nail ends in the proximal or mid-femur and can be used for many routine intertrochanteric fractures.

A long nail extends farther toward the knee.

Long nails are generally appropriate when the fracture extends into the subtrochanteric region or when other femoral-shaft considerations are present.

There is no reason to use the longest possible implant simply because it appears stronger.

The surgeon matches nail length to fracture pattern and patient factors.

Hemiarthroplasty for Femoral Neck Fracture

During hemiarthroplasty, the fractured femoral head and neck are removed.

The femoral canal is prepared for a prosthetic stem.

A replacement ball restores articulation against the patient's natural acetabulum.

The operation avoids relying on the displaced femoral-neck fracture to unite.

For many frail or lower-demand older adults, this provides a practical and reliable treatment that supports early weight bearing.

Unipolar vs Bipolar Hemiarthroplasty

A unipolar hemiarthroplasty has a single main articulation between the prosthetic head and the natural acetabulum.

A bipolar design contains an additional articulation within the prosthetic head.

Both designs are used.

Evidence does not establish that every older adult receives an important clinical advantage from one over the other.

The choice is generally based on patient factors, implant availability and surgeon preference.

Cemented Hemiarthroplasty Stem

In older adults with femoral neck fractures, a cemented stem is frequently used.

Bone cement stabilizes the prosthesis immediately within the femoral canal.

This can be particularly useful in osteoporotic bone.

Cement implantation requires careful anaesthetic management because cardiovascular changes can occur during pressurization.

The surgical and anaesthetic teams coordinate this portion of the operation closely.

Total Hip Replacement for Hip Fracture

Selected patients with displaced femoral neck fractures receive total hip replacement rather than hemiarthroplasty.

The femoral head and neck are replaced, and an acetabular cup is inserted into the pelvic socket.

A liner and femoral head create the new articulation.

THA can be attractive for an active, independently mobile patient who has a reasonable life expectancy and may place greater long-term functional demands on the hip.

It should not automatically be used for every displaced fracture simply because it is a more extensive reconstruction.

Surgical Approach for Arthroplasty

Hip replacement for fracture can be performed through several surgical approaches.

Posterior, lateral, anterolateral and anterior techniques are used depending on surgeon experience and patient factors.

No single approach is universally required for femoral neck fracture arthroplasty.

Stability, soft-tissue repair, implant positioning and safe mobilization remain the major objectives.

Total Hip Replacement vs Hemiarthroplasty

Total hip replacement can provide excellent function in properly selected active patients.

However, the operation is more extensive and may carry greater risk of certain complications.

Hemiarthroplasty is shorter and avoids acetabular preparation.

A highly active 70-year-old who walked independently outdoors before the fracture may be considered differently from a dependent 90-year-old with advanced dementia.

The choice should match the individual rather than follow an age number alone.

Fixation in Younger Femoral Neck Fractures

In younger adults, preservation of the native femoral head is usually prioritized.

The surgeon aims for an accurate reduction because residual displacement increases mechanical stress and nonunion risk.

Fixation is performed with screws or another appropriate construct.

The quality of the first operation can have major consequences because salvage after nonunion or avascular necrosis is more difficult.

A younger patient may also have stricter temporary weight-bearing restrictions than an elderly patient treated with arthroplasty.

Fluoroscopy

Fluoroscopy provides real-time X-ray guidance during fixation.

The surgeon checks fracture alignment, implant trajectory and final hardware position from multiple angles.

This is particularly important when placing screws into the femoral head.

A technically acceptable image in only one projection is not enough because a screw can appear well positioned from the front while being dangerously close to the joint in another view.

Implant Position and Fixation Quality

Mechanical failure after intertrochanteric fixation depends on more than the implant model.

Fracture reduction, bone quality and the position of the head element are critical.

The surgeon aims to place the screw or blade centrally or appropriately within strong femoral-head bone while avoiding penetration of the joint.

Poor reduction can allow excessive collapse or implant cut-out.

Good surgery therefore involves both selecting the right implant and using it correctly.

Bone Cement Augmentation

Certain fixation systems allow cement augmentation around the femoral-head element in very weak bone.

This is not required routinely.

The surgeon considers bone quality, fracture pattern and implant design.

Cement augmentation has its own technical considerations and should be used selectively rather than as an automatic solution to osteoporosis.

Wound Closure

Once alignment, implant position and stability are confirmed, the surgical wounds are irrigated and closed.

Incision length varies dramatically between techniques.

Percutaneous screw fixation uses relatively small incisions, while hemiarthroplasty or total hip replacement requires a larger exposure.

Dressings are applied and the patient is transferred to postoperative recovery.

How Long Does Hip Fracture Surgery Take?

Hip fracture surgery commonly takes approximately one to two hours, but the exact time depends on the fracture and operation.

Straightforward screw fixation can sometimes be completed in less than an hour.

Cephalomedullary nailing frequently takes roughly one to two hours.

Hemiarthroplasty is commonly within a similar range.

A complex total hip replacement, difficult fracture reduction or revision procedure can take longer.

When patients ask “how long does hip fracture surgery take?”, they should also understand that total time in the operating department includes anaesthesia, positioning and recovery in addition to the actual surgical time.

Recovery Room

After surgery, the patient is monitored while the anaesthetic wears off.

Blood pressure, oxygen level, heart rate and pain are assessed.

The team checks the operated leg for circulation and neurological function.

Older patients also require careful observation for confusion, breathing problems and changes in blood pressure.

Once stable, the patient returns to the orthopedic or orthogeriatric ward.

Pain Management

Pain should improve substantially once the unstable fracture has been treated, but postoperative discomfort remains expected.

Multimodal pain management combines different therapies to reduce reliance on high-dose opioids.

Regional nerve blocks can continue to provide benefit early after surgery.

Good analgesia supports breathing, sleep and mobilisation.

Over-sedation should be avoided because it can increase falls and delirium risk in older adults.

Blood Tests After Surgery

Hemoglobin often falls after a hip fracture and surgery.

Blood loss can occur both at the fracture site and during the operation.

The team monitors blood counts and the patient's symptoms.

Transfusion decisions depend on hemoglobin together with cardiovascular status, symptoms and clinical circumstances rather than automatically transfusing every patient with mild postoperative anemia.

Blood-Clot Prevention

Hip fracture patients are at significant risk for venous thromboembolism because of trauma, surgery and reduced mobility.

Medication to reduce clotting risk is commonly prescribed unless contraindicated.

Mechanical measures may also be used.

Early mobilisation is another important part of prevention.

The exact agent and duration depend on the hospital protocol and individual bleeding risk.

Mobilisation

Modern hip-fracture care emphasizes getting patients out of bed early.

When medically and surgically safe, physiotherapy commonly begins the day after surgery.

The first goal can be as simple as sitting safely at the side of the bed, standing with support and transferring to a chair.

Walking distance is initially less important than establishing safe regular movement.

Weight Bearing

Many surgically treated older adults are allowed to weight bear as tolerated immediately or very early after surgery.

This means the patient can place as much weight through the operated limb as pain and strength permit.

The strategy supports functional recovery in a population that may struggle to follow complex partial-weight-bearing restrictions.

However, some fractures, especially selected young-patient femoral neck fixations or unusual reconstructions, require restricted weight bearing.

The surgeon's instruction takes priority.

Physiotherapy

The physiotherapist teaches transfers, standing, walking and stair technique.

A walker or frame is commonly used initially.

The therapist evaluates balance and determines whether the patient can safely return home or needs additional rehabilitation.

Exercises also aim to reduce deconditioning and restore lower-limb strength.

Therapy continues after discharge because hospital walking is only the beginning of recovery.

Occupational Therapy

Occupational therapists assess daily activities such as dressing, toileting, bathing and preparing food.

They can recommend equipment and home modifications.

This is particularly important when a patient lived alone before the fracture.

A technically successful operation does not guarantee safe independence if the person cannot transfer from the toilet or manage stairs at home.

Delirium Prevention and Treatment

Older adults should be regularly assessed for delirium.

The team looks for sudden changes in attention, awareness and behavior.

Causes can include infection, medication, pain, dehydration, constipation, urinary problems and sleep disruption.

Treatment focuses on identifying causes while maintaining orientation, mobility and supportive communication.

Families can help by providing familiar reassurance and information about the patient's baseline cognition.

Nutrition

Protein and calorie intake support muscle recovery and wound healing.

Some older patients have poor appetite before the fracture or eat less during hospitalization.

Nutritional supplementation can be considered when intake is inadequate.

Hydration is equally important.

Constipation from immobility and opioid medication should also be anticipated and treated.

Wound Care

The incision is covered with a sterile dressing.

A small amount of postoperative staining may occur, but persistent drainage requires assessment.

Dressings vary by hospital protocol.

The wound is monitored for increasing redness, warmth, swelling or discharge.

Sutures or staples are removed according to the closure technique and local practice.

Length of Hospital Stay

A typical hospital stay is approximately three to seven days, although the range is wide.

A medically stable patient with strong home support can leave sooner.

A frail patient who develops delirium, anemia, infection or rehabilitation difficulties can remain longer.

Hospital duration is therefore a poor measure of surgical success by itself.

The objective is safe transition to the next level of care.

Rehabilitation Facility

Some patients are not ready to return directly home.

They may transfer to an inpatient rehabilitation center, skilled nursing facility or another supported environment.

The choice depends on local healthcare systems, mobility and available family assistance.

The rehabilitation goal should remain active recovery rather than prolonged passive institutional care.

Hip fracture surgery recovery is usually measured in months rather than days. The operation fixes the immediate mechanical problem, but the injury often causes profound loss of muscle strength, balance and confidence, particularly in older adults.

Recovery also begins from the patient's pre-fracture baseline. Someone who walked several kilometers independently before the injury has a different potential trajectory from someone who already required assistance for transfers.

Age matters, but pre-injury function, cognition, nutrition and medical health can matter just as much.

First 24–48 Hours

The immediate priorities are pain control, hydration, breathing, circulation and safe mobilisation.

Most patients begin sitting out of bed and standing with physiotherapy when medically appropriate.

A walker provides support.

Walking may initially consist of only a few steps.

This early movement is still clinically important because prolonged bed rest rapidly weakens older adults.

First Week

The patient works on transferring between bed and chair and gradually increasing walking distance.

Fatigue is common.

The leg can feel swollen and weak.

Pain often improves considerably compared with the untreated fracture but remains noticeable around the incision and muscles.

The rehabilitation team also begins planning where the patient will go after hospital discharge.

Weeks 2–6

During this period, many patients make their largest early functional gains.

Walking becomes more consistent.

A frame or walker may eventually be replaced by a cane when balance and strength allow.

The patient practices stairs and daily household activities.

Swelling and bruising gradually decline.

The fracture itself is still healing when fixation has been used, even if the patient can already place weight through the leg.

Weeks 6–12

Bone healing becomes increasingly established in fixation cases.

X-rays can confirm whether alignment and hardware remain satisfactory.

Strengthening becomes more demanding.

Patients work on gait symmetry and endurance.

Some return to a cane or independent walking, while others continue to need a walker.

There is no benefit to abandoning an aid early if doing so makes walking unsafe.

Months 3–6

Many patients approach their major functional recovery during this stage.

Walking endurance improves and daily activities become easier.

Patients who were independent before the fracture can continue working toward that level.

Some older adults nevertheless retain a reduction in walking speed or require a cane permanently.

Recovery should be judged against realistic goals rather than against an idealized image of the person before injury.

Months 6–12

Strength and balance can continue improving for up to a year.

The rate of progress becomes slower but rehabilitation remains meaningful.

Patients can continue working on outdoor walking, stairs and confidence.

Fall-prevention strategies become increasingly important because sustaining another fracture would significantly disrupt recovery.

Hip Fracture Surgery Recovery Time

A useful broad estimate for hip fracture surgery recovery is approximately 12–24 weeks for major functional recovery, while full recovery may continue for six to twelve months.

The timeline varies dramatically.

Young trauma patients can achieve excellent function but may require prolonged protection while a femoral neck fracture heals.

Older patients treated with arthroplasty can sometimes weight bear immediately but may require longer overall rehabilitation because of frailty and pre-existing weakness.

Bone Healing

A fixed fracture commonly requires several months to consolidate.

Initial callus formation and biological union occur gradually.

Intertrochanteric and subtrochanteric fractures can remain visible on X-rays for months.

A patient should not assume the bone is completely healed simply because pain has improved.

Follow-up radiographs show whether the fracture is progressing toward union.

Recovery After Hemiarthroplasty

Hemiarthroplasty recovery does not depend on the femoral neck fracture joining because the fractured head and neck have been replaced.

This allows early loading in many patients.

However, the surgical wound and soft tissues still need to heal.

The patient also needs rehabilitation for the loss of strength caused by the injury and hospital stay.

Many of the greatest recovery challenges are therefore functional rather than bone-healing related.

Recovery After Total Hip Replacement for Fracture

Recovery after fracture-related THA shares many elements with elective hip replacement but should not be assumed to be identical.

The patient has undergone an acute traumatic event and frequently enters surgery without the months of preparation available to an elective arthroplasty patient.

Older adults can also have more medical complexity.

Early mobilisation remains important, but rehabilitation is adapted to the fracture context.

Recovery After Cephalomedullary Nailing

Patients commonly begin weight bearing early when the fixation is stable.

Pain around the greater trochanter and thigh can persist during the first weeks.

The fracture gradually compresses and heals around the implant.

Follow-up X-rays look for union, maintained alignment and appropriate hardware position.

Persistent increasing pain after initial improvement deserves reassessment.

Walking After Hip Fracture Surgery

Walking commonly begins during the first postoperative day when medically possible.

A walker is usually used initially.

The patient may need substantial assistance at first.

Walking sessions gradually become longer and more frequent.

A cane is introduced when the patient can maintain balance and avoid excessive limping.

Independent walking is a goal, not an obligatory milestone for every patient.

Will I Walk Normally Again?

Many patients regain good walking ability, especially those who were active and independent before the fracture.

However, not every older adult returns fully to their previous level.

Some continue using a cane or walker.

The outcome depends on frailty, cognition, medical illness, balance, fracture severity and rehabilitation.

Setting realistic expectations does not mean accepting unnecessary disability; it allows rehabilitation to focus on meaningful achievable goals.

Stairs

Stairs are practiced with physiotherapy when relevant to the home environment.

The patient learns how to use a handrail and walking aid.

Initially, one leg usually leads during ascent and the other during descent.

Later rehabilitation works toward a more normal alternating pattern.

The ability to climb stairs safely can determine whether a patient can return home.

Getting In and Out of Bed

Transfers are often one of the first rehabilitation tasks.

The patient learns how to move the operated leg while using the arms and stronger leg for support.

A bed that is extremely low can make standing difficult.

Occupational therapy can recommend temporary adjustments or equipment.

The technique becomes easier as hip strength improves.

Sitting

Most patients can sit in a chair soon after surgery.

Very low chairs should be avoided initially because standing from them requires substantial hip and thigh strength.

Patients treated with hip replacement may receive additional movement precautions depending on surgical approach and surgeon protocol.

Regularly changing position also helps reduce stiffness and pressure-injury risk.

Sleeping

Sleeping can be difficult during the first weeks because of pain, unfamiliar positioning and hospital-related sleep disruption.

Many patients initially sleep on their back.

Side sleeping can return when comfortable and consistent with any arthroplasty precautions.

Pillows can support the operated leg.

Persistent severe night pain, new swelling or systemic symptoms should be reported.

Driving

Driving is not based on one universal postoperative week.

The patient needs adequate strength and reaction time and must no longer take sedating pain medication.

They must be able to enter the vehicle and perform an emergency stop safely.

Right-sided fractures can have a greater effect on braking.

Patients with a walker or significant gait impairment are usually not ready to drive.

Return to Work

Return to work depends heavily on age and occupation.

A younger patient with a desk-based job may return after several weeks if mobility and sitting comfort allow.

Manual employment requires substantially more healing and strength.

Older retired patients may instead measure recovery by independence with household activities.

The rehabilitation target should reflect the person's real lifestyle.

Sexual Activity

Intimacy can generally resume when pain, mobility and confidence permit.

Patients with arthroplasty may receive temporary precautions regarding extreme hip positions.

Positions that place large rotational or flexion forces through the operated hip should be avoided early.

The patient should control movement and stop if sharp hip pain occurs.

Swelling

Leg swelling commonly persists for several weeks.

Walking and muscle activation help circulation.

Elevation can be useful during rest.

New severe swelling, calf pain, sudden shortness of breath or chest pain requires urgent assessment because a blood clot must be excluded.

Persistent Limp

A limp can result from weakness, pain, leg-length perception or the original fracture deformity.

Physical therapy addresses strength and gait mechanics.

Some patients require a cane for safety.

A new or worsening limp after previous improvement can indicate a mechanical problem and should be evaluated.

Rehabilitation After Discharge

Hospital physiotherapy is only the first stage.

Rehabilitation can continue at home, in an outpatient clinic or in a dedicated facility.

Exercises become progressively more functional.

Balance training is particularly important because preventing another fall is a major long-term objective.

Strength work should include both legs rather than focusing only on the operated hip.

Bone-Health Treatment

A fragility hip fracture should lead to assessment for osteoporosis.

Bone-health management may involve medication, vitamin D assessment, calcium intake and evaluation for secondary causes of weak bone.

Treatment can reduce future fracture risk.

The patient should not assume that fixing the broken hip also fixes the osteoporosis that contributed to it.

Fall Prevention

Future fracture prevention includes more than bone medication.

Vision, footwear, medications, balance, lower-limb strength and home hazards all deserve review.

Loose rugs, poor lighting and missing stair rails can be modified.

A walker or cane can be a valuable preventive tool rather than a sign of failed recovery.

How Successful Is Hip Fracture Surgery?

There is no single Hip Fracture Surgery success rate because the population includes very different fractures and patients.

From a surgical perspective, stable fixation or successful arthroplasty can reliably reduce pain and allow mobilisation.

From a functional perspective, recovery depends heavily on the patient's health and independence before the fracture.

An active younger patient with an isolated fracture has a fundamentally different prognosis from a medically frail older adult who already needed assistance before falling.

What Defines Success?

Success should be considered across several levels.

The first is technical: the fracture is stabilized or the joint reconstructed without major surgical complication.

The second is biological: a fixed fracture heals without nonunion, infection or avascular necrosis.

The third is functional: the patient regains mobility and meaningful independence.

A technically perfect operation can still be followed by limited recovery if severe frailty, dementia or medical illness prevents rehabilitation.

Outcomes After Intertrochanteric Fixation

Most appropriately stabilized intertrochanteric fractures unite.

Modern nails and sliding hip-screw systems allow controlled loading while healing occurs.

Mechanical failure can still happen if the fracture is unstable, reduction is poor, bone is severely osteoporotic or the implant is positioned unfavorably.

The surgeon follows serial X-rays until union is established.

Outcomes After Femoral Neck Fixation

The major concerns are nonunion and avascular necrosis.

Both can occur because the femoral neck has a relatively vulnerable blood supply.

Risk is particularly important in displaced fractures.

Younger patients nevertheless often accept these risks because preserving the natural femoral head has substantial value.

If fixation fails, conversion to hip replacement may eventually be required.

Avascular Necrosis

Avascular necrosis occurs when blood supply to the femoral head becomes inadequate and the bone gradually dies.

The risk arises primarily from the fracture injury itself, particularly with displaced femoral neck fractures.

Symptoms can develop months or even years later.

X-rays or MRI may reveal progressive collapse.

Severe symptomatic avascular necrosis after fracture fixation commonly leads to total hip replacement.

Nonunion

Nonunion means the fracture fails to heal within the expected period.

Femoral neck and subtrochanteric fractures can both develop nonunion.

The patient may experience persistent or increasing pain.

X-rays show lack of progressive bridging bone or mechanical failure.

Treatment can include revision fixation, bone grafting or conversion to arthroplasty depending on age and fracture location.

Outcomes After Hemiarthroplasty

Hemiarthroplasty avoids the risk of femoral-neck nonunion because the fractured head and neck have been removed.

Many older patients can weight bear early.

Potential later problems include dislocation, infection, periprosthetic fracture, stem loosening and acetabular cartilage wear.

The operation is particularly valuable when the priority is obtaining reliable early mobility in an older adult with a displaced femoral neck fracture.

Outcomes After Total Hip Replacement

Selected active patients can achieve excellent function after fracture-related THA.

The procedure replaces both sides of the joint and avoids later acetabular erosion associated with hemiarthroplasty.

It is nevertheless a larger reconstruction and should be offered selectively.

Dislocation, infection and other arthroplasty complications remain relevant.

Mortality and Hip Fracture

A hip fracture in an older adult is a serious systemic health event, not merely a broken bone.

Mortality after hip fracture is meaningfully higher than in comparable older populations without fracture.

Much of this risk reflects frailty and underlying medical illness rather than the operation itself.

Rapid multidisciplinary treatment aims to reduce preventable complications while restoring mobility.

This is another reason simplistic claims such as “99% success” should not be used for hip-fracture surgery.

Returning Home

Returning to the same residence is an important functional outcome.

Patients who were independent before the fracture have a better chance of returning home than those who already required extensive care.

Early rehabilitation and coordinated discharge planning can improve the likelihood of regaining independence.

Some patients initially need a rehabilitation facility before eventually returning home.

Returning to Pre-Fracture Mobility

Not every patient returns completely to their previous walking level.

Some regain full independent mobility.

Others transition from walking without aids to using a cane or walker.

Factors such as age, dementia, frailty, balance and medical complications influence this outcome.

Recovery continues for months, so function at hospital discharge does not represent the final result.

Second Hip Fracture

A person who sustains one fragility hip fracture is at increased risk of future falls and fractures.

Prevention after the first event therefore matters enormously.

Osteoporosis treatment, balance training and home-safety interventions can reduce future risk.

The orthopedic episode should ideally trigger a coordinated secondary-fracture prevention pathway.

Cannulated Screws

Cannulated screws contain a hollow center allowing them to pass over guidewires.

This enables precise fluoroscopic positioning across a femoral neck fracture.

Several screws can create a stable construct while using relatively small incisions.

They are particularly useful in selected nondisplaced fractures and younger patients where preservation of the femoral head is desired.

Femoral Neck Fixation Systems

Fixed-angle devices specifically designed for the femoral neck provide controlled angular stability.

Different manufacturers use different mechanisms.

The objective is to resist rotation and shortening while the fracture heals.

No single implant eliminates biological risks such as avascular necrosis.

Reduction quality remains crucial regardless of the hardware chosen.

Sliding Hip Screw

The sliding hip screw consists of a large lag screw in the femoral head attached to a side plate.

The screw can slide within the barrel as the fracture compresses.

This controlled collapse can encourage stability and healing in appropriate fracture patterns.

The implant remains a standard option for stable intertrochanteric fractures.

Cephalomedullary Nail

The cephalomedullary nail is one of the most widely used implants for hip-fracture fixation.

It sits inside the femoral canal and supports the femoral head through a large lag screw or blade.

Its mechanical design is especially appropriate for unstable trochanteric and subtrochanteric fractures.

Short and long versions are available.

Helical Blade vs Lag Screw

Some nails use a conventional threaded screw, while others use a blade designed to compact cancellous bone in the femoral head.

Both systems can provide effective fixation.

Implant choice depends on device design, bone quality and surgeon familiarity.

Precise placement is more important than simply choosing one head element over another.

Cement Augmentation

Certain cephalomedullary systems can be augmented with bone cement in extremely weak osteoporotic bone.

The cement can improve local fixation around the head element.

The procedure requires careful imaging and technique to avoid cement leakage.

It is a selective option rather than routine treatment.

Hemiarthroplasty Implants

Hemiarthroplasty uses a femoral stem and a large prosthetic head.

The head can be unipolar or bipolar.

The stem can be cemented or cementless, although cemented fixation has strong guideline support for many older patients undergoing arthroplasty after femoral neck fracture.

The surgeon chooses stem size and offset to restore leg length and hip biomechanics.

Total Hip Replacement Components

THA for fracture uses an acetabular shell and liner together with a femoral stem and artificial head.

Modern bearings commonly include ceramic or metal heads against highly cross-linked polyethylene.

Dual-mobility constructs can be considered in selected high-risk patients to improve stability.

The exact implant should be selected according to patient anatomy, mobility and surgeon judgment rather than simply choosing the most expensive option.

Dual-Mobility Cups

Dual-mobility designs create an additional articulation that increases effective head size and jump distance.

They can reduce instability risk in selected patients.

This can be useful when a fracture patient has factors that make dislocation more concerning.

Dual mobility does not eliminate dislocation completely and is not necessary for every fracture-related total hip replacement.

Cemented Femoral Stems

Bone cement creates immediate fixation between the prosthetic stem and the femur.

This is particularly useful in older osteoporotic bone.

Cemented stems can reduce the risk of certain postoperative periprosthetic fractures compared with some cementless strategies.

The anaesthetic team needs to be prepared for the physiological effects associated with cement implantation.

Fluoroscopy

Real-time imaging is central to hip-fracture fixation.

Modern operating rooms use mobile fluoroscopy to assess reduction and hardware.

The surgeon obtains several projections before accepting the final result.

Image technology supports precision but does not replace a surgeon's understanding of fracture mechanics.

Computer-Assisted Planning

Three-dimensional CT planning can occasionally assist complex fractures or revision surgery.

However, routine geriatric hip-fracture fixation does not require sophisticated robotics.

Fast access to an experienced trauma team, correct reduction and reliable implants are generally more important than expensive technology.

Robotics

Robotic surgery has a limited routine role in acute hip-fracture fixation.

Robotic platforms designed for elective total hip replacement can potentially assist component positioning if THA is performed for a fracture, but they should not delay urgent treatment.

A hospital should not market robotic technology as though it is required for safe fracture care.

Orthogeriatric Care as a “Technology”

One of the most important improvements in hip-fracture treatment is not an implant.

Structured orthogeriatric co-management coordinates medical optimization, delirium prevention, nutrition, rehabilitation and bone health.

For frail older adults, this multidisciplinary system can influence outcomes more than small differences between two modern implant brands.