The journal of bone and joint surgery

Yüklə 152,4 Kb.
Pdf görüntüsü
ölçüsü152,4 Kb.













Modern concepts in the treatment of 

hallux valgus


A. H. N. Robinson, 

J. P. Limbers


From Addenbrooke’s 

Hospital, Cambridge, 





A. H. N. Robinson, BSc, 

FRCS(Orth), Consultant 

Orthopaedic Surgeon




J. P. Limbers, FRACS(Orth), 


Department of Trauma and 


Box 37, Addenbrooke’s 

Hospital, Cambridge CB2 

2QQ, UK.

Correspondence should be 

sent to Mr A. H. N. Robinson; 

e-mail: fredrobinson@


©2005 British Editorial 

Society of Bone and

Joint Surgery


16467 $2.00


J Bone Joint Surg [Br] 




More than 130 operations have been described

for the treatment of hallux valgus. The pleth-

ora of techniques indicates that no single oper-

ation is perfect, and none will address all cases.

Treatment which is poorly planned or executed

leads to high levels of patient dissatisfaction. In

recent years, a number of new osteotomies

have been described. Determining which to use

can be difficult. This review will examine the

important factors in choosing the most appro-

priate techniques.


Aetiology and pathogenesis


The wearing of constricting and high heel

shoes are extrinsic factors which are important

in the development of hallux valgus.





ity is likely to be a major predisposing factor in

some patients, with up to 68% of patients

showing a familial tendency.




The role of pes planus is complex. It is

unlikely that it is an important initiating factor

in hallux valgus but in the presence of pes pla-

nus the progression of hallux valgus is more

rapid. This is particularly so in those patients

with a compromised medial joint capsule as in

rheumatoid arthritis, collagen deficiency or a

neuromuscular disorder.




 The presence of pes

planus does not reduce the rate of success of

operations for hallux valgus.




Hypermobility of the first tarsometatarsal

joint is thought by some




  to be a causative

component in some cases of hallux valgus. In

these patients a fusion of the first tarsometa-

tarsal joint (the Lapidus procedure), should be

considered for surgical correction as opposed

to an osteotomy. There is a correlation

between hypermobility  of the first ray and hal-

lux valgus,




 and a higher incidence of hyper-

mobility at this site causes a hallux valgus

deformity which is painful.




  The accurate

clinical assessment of hypermobility of the first

ray is difficult.




  However, a recent cadaver





  has shown that correction of a hallux

valgus deformity by a distal soft-tissue pro-

cedure and a basal crescentic osteotomy signif-

icantly reduces hypermobility of the first ray,

implying that the hypermobility maybe a sec-

ondary phenomenon in some cases.

The pathogenesis of hallux valgus has been

well described by Stephens.




 Weakening of the

tissues on the medial side of the first metatarso-

phalangeal joint and erosion of the ridge on the

metatarsal head between the medial and lateral

sesamoids occur early (Fig. 1). The proximal

phalanx drifts into valgus and the metatarsal

head into varus. A groove appears on the

medial side of the articular cartilage of the

metatarsal head as it atrophies from the lack of

normal pressure and this gives rise to the

apparent prominence of the medial exostosis.

The medial bursa develops in response to the

excessive pressure of shoes over this promi-

nence. As the soft tissues on the medial side

become further attenuated, the metatarsal

head moves medially so that the medial sesam-

oid lies under the eroded metatarsal ridge and

the lateral sesamoid articulates with the lateral

side of the metatarsal head in the first inter-

metatarsal space. The tendons of extensor hal-

lucis longus and flexor hallucis longus are

carried laterally with the phalanx, thus becom-

ing adductors and exacerbating the deformity.

The adductor hallucis and lateral head of

flexor hallucis brevis contribute further to this

and with time they become contracted, as does

the lateral joint capsule. The abductor hallucis

and medial head of flexor hallucis brevis also

lose their abduction moment. The resultant

imbalance causes dorsiflexion and pronation

of the first toe rendering its pulp non-func-


The resultant reduction in plantar pressure

under the first ray leads to insufficiency of the

first ray and overload of the lesser rays. As a

result, the second toe may claw and eventually

the second metatarsophalangeal joint will dis-



Clinical assessment


Mann, Rudicel and Graves




 have shown that

patients present with restriction in the wearing

of their shoes in 80%, pain over the medial




VOL. 87-B, No. 8, AUGUST 2005


eminence (bunion) in 70%, cosmetic concerns in 60% and

pain underneath the second metatarsal head in 40%. Pain

may also be felt in the distribution of the dorsal cutaneous

nerve, due to pressure. Deformities of the lesser toes such as

corns and calluses are often a source of symptoms and are

largely due to insufficiency of the first ray and overcrowd-

ing. Synovitis of the second metatarsophalangeal joint with

pain and swelling is particularly painful.

The physical examination begins with the patient stand-

ing as this often increases the hallux valgus and associated

deformities. It is important to assess the hindfoot as well as

the forefoot. Planovalgus deformities and tightness of the

gastrocnemius and soleus can often exacerbate loading and

pain under the forefoot. The severity of the hallux valgus

deformity and whether it is correctable is documented. Any

pronation of the great toe is noted. The first metatarso-

phalangeal joint is examined to assess the range of move-

ment. The lesser toes should be examined for associated

deformities and callosities. The intermetatarsal spaces

should be palpated for interdigital neuromas. The plantar

surface of the foot should be checked for tender callosities

under the lesser metatarsal heads (transfer lesions). In order

to assess first tarsometatarsal instability, the examiner

immobilises the lesser metatarsals with the thumb and fin-

gers of one hand. The thumb and index finger of the other

hand grasp the first metatarsal and move it from a plantar-

lateral to dorsomedial direction. Movement of more than 9

mm indicates hypermobility.




  The patient should also be

examined for signs of generalised ligamentous laxity.


Radiological assessment


Weight-bearing anteroposterior (AP) and lateral radio-

graphs of the foot are taken to help assess the deformity

and assist in pre-operative planning (Fig. 2). The hallux val-

gus angle (HVA) (normal < 15˚) and intermetatarsal angle

(IMA) (normal < 9˚) are measured. The distal metatarsal

articular angle (DMAA) (normal < 10˚) is the angle between

the articular surface of the head and shaft of the first meta-

tarsal. In most cases the DMAA is normal and the first

metatarsophalangeal joint is subluxed. This is commonly

termed an incongruent hallux valgus. In a small percentage

of patients who are usually young, the joint is congruent

and not subluxed. In these cases the DMAA is increased,

the metatarsal articulation points more laterally than nor-

mal, and there is no subluxation of the metatarso-

phalangeal joint. A congruent hallux valgus is less prone to











Fig. 1

Anatomy of the structures around the first metatarsophalangeal joint (AbH, abductor hallucis; FHB, flexor hal-

lucis brevis; AdH, adductor hallucis; EHL, extensor hallucis longus; EHB, extensor hallucis brevis; LC, lateral

capsule (lateral sesamoid suspensory ligament); TL, transverse ligament; LS, lateral sesamoid; FHL, flexor hal-

lucis longus; MS, medial sesamoid).






progression than one which is incongruent. The DMAA is

difficult to measure, with high inter- and intra-observer


Hallux valgus interphalangeus deformity is present if

there is significant angulation between the proximal and

distal phalanges.

The relationship of the first metatarsal head to the sesa-

moids, the size of the medial eminence and the presence of

degeneration should also be recorded.

It has become traditional to classify the severity of the

deformity using radiological criteria in order to help formu-

late an algorithm for surgical treatment: mild (HVA up to

19˚, IMA up to 13˚); moderate (HVA 20˚ to 40˚, IMA 14˚ to

20˚); severe (HVA > 40˚, IMA > 20˚).

The congruency of the first metatarsophalangeal joint

should be noted.


Non-operative treatment


Hallux valgus can be treated with accommodative foot-

wear. The provision of a soft leather shoe with extra width

and depth of the toe box can alleviate the symptoms in

many patients. This may be the treatment of choice in the

elderly and those with neurological or vascular compro-


The provision of orthoses is often discussed but there is

little evidence to substantiate the use of these devices which

are often expensive. A support for the medial longitudinal

arch has been shown to relieve symptoms for approxi-

mately six months only.




 There is no evidence to show that

orthoses prevent progression of hallux valgus.


Surgical treatment


The indication for surgery is pain which is not adequately

controlled by non-operative means. The pain may be over

the bunion itself or in the second metatarsophalangeal joint

as a result of insufficiency of the first ray. The management

of patient expectation is important. The outcomes from

hallux valgus surgery are not always ideal and extensive

pre-operative counselling is required. Only 60% of patients

can expect to wear unlimited shoes following surgery.





transfer lesions are present before operation, it may be

necessary to wear cushioned shoes or even insoles following


The surgical procedures available are numerous and dis-

cussed in detail here.


The Keller’s procedure. 


This is a simple operation in which

approximately one-third of the proximal phalanx of the

great toe is resected. This decompresses the joint and

relaxes the tight lateral structures, allowing correction of

the deformity. Although once widely used this procedure

has significant limitations. There is a high rate of recurrence

of the deformity and the IMA is improved little, if at all.




The procedure reduces the function of the first ray with one





 showing a mean 40% loss of power of plantar flex-

ion of the hallux. Metatarsalgia from overload of the lesser

metatarsal heads is seen in between 20% and 40% of





  A cock-up deformity and a reduced range of

movement of the first metatarsophalangeal joint is com-





The salvage of a failed Keller’s procedure is difficult.

Machacek et al




 showed that a further Keller’s procedure

or an isolated soft-tissue release lead to very low levels of

patient satisfaction. Fusion of the first metatarsophalangeal

joint is often the only viable operative option, but this is

made more difficult by the shortening and loss of bone

stock. In many cases it is necessary to use an interpositional

bone graft in order to re-establish length, but this is techni-

cally-demanding and associated with a high rate of non-

union and other complications.




  Consequently, a

Keller’s procedure should only be considered in an elderly

person with extremely low functional demands who would

not tolerate a larger procedure.




 In essence, a Keller’s

procedure is not an operation for hallux valgus.




Fig. 2

Radiological assessment of hallux valgus (HVA, hallux valgus angle; IMA,

intermetatarsal angle; DMAA, distal metatarsal articular angle).




VOL. 87-B, No. 8, AUGUST 2005


The distal soft-tissue procedure. 


Usually through an inci-

sion in the first dorsal webspace, the adductor hallucis and

lateral joint capsule, also known as the lateral sesamoid

suspensory ligament, are released (Fig. 1). This allows the

sesamoids to be reduced underneath the first metatarsal

head. The lateral collateral ligament is usually left intact as

its release predisposes to hallux varus. The medial eminence

of the first metatarsal is excised with plication of the medial

joint capsule.

Mann and Coughlin




 found that a distal soft-tissue pro-

cedure in isolation reduced the HVA by 14.8˚ and the IMA

by 5.2˚, but there was an incidence of hallux varus of 11%.

A distal soft-tissue procedure showed significantly worse

results in the presence of a pre-operative IMA > 15˚.




Johnson et al




 showed that a Chevron osteotomy resulted

in a significantly greater radiological correction than an iso-

lated distal soft-tissue procedure in patients with a mild to

moderate deformity. A distal soft-tissue procedure is an

important part of the armamentarium of the correction of

hallux valgus, but it is not the complete answer.

Simple bunionectomy and capsular plication is ineffec-

tive, with the HVA increasing by 4.8˚ and the IMA by 1.7˚

at five years after operation.




 The patients were dissatisfied

in 41% of cases.


Osteotomies of the first metatarsal. 


Osteotomy may be under-

taken proximally or distally. Proximal osteotomies allow a

greater correction of the increased intermetatarsal angle

than distal osteotomies which are usually used for mild or

moderate deformities. Distal osteotomies usually require a

less extensive exposure, which allows a shorter recovery

time. In recent years, intermediate diaphyseal osteotomies

such as the scarf and Ludloff procedures have become pop-


There are a number of important principles that should

be remembered when selecting a first metatarsal osteotomy:

1. The technique should be technically easy to undertake

and reproducible.

2. The osteotomy should be stable so that re-displace-

ment does not occur.

3. The length of the first metatarsal should be maintained

to prevent the development of transfer lesions and meta-

tarsalgia. Similarly, dorsiflexion, with the resultant eleva-

tion of the metatarsal head, should be avoided.

4. The technique should be versatile so that the HVA, the

IMA and the DMAA can be corrected.

5. The metatarsal blood supply should be preserved in

order to avoid avascular necrosis of the metatarsal head.

6. The long-term outcome should show a low recurrence

rate of the deformity.


Distal metatarsal osteotomies


The Wilson procedure. 


This is an oblique metaphyseal osteo-

tomy from distal medial to proximal lateral, allowing dis-

placement of the metatarsal head laterally and proximally.

This technique allows correction of the IMA and HVA. Sat-

isfactory results have been described in approximately 90%

of patients.




 Pouliart, Haentjens and Opdecam




 found an

average of 8.5 mm shortening of the first metatarsal and a

24% incidence of dorsal angulation with this operation.

Metatarsalgia occurred in 35% of their patients post-oper-

atively and correlated with the amount of shortening. Cal-

losities were present under the second metatarsal head in

78% of their patients. More than 5 mm of shortening has

been shown to correlate strongly with the onset of transfer





 Due to these shortcomings this operation

is not recommended.


The Mitchell osteotomy. 


This involves a double cut through

the first metatarsal neck, leaving a step in the lateral cortex.

This step is used to ‘hitch’ on to the metatarsal head. The

capital fragment is displaced laterally and plantarward and

held with a suture through drill holes. Good clinical results

have been reported with this procedure with a 91% rate of

patient satisfaction.




 It is recommended for an IMA up to

15˚ and HVA up to 35˚. Good correction of the deformity

has been reported.




 Nevertheless, shortening of the first

metatarsal occurs due to removal of bone to create the step-

cut. This, combined with a lack of inherent stability result-

ing in dorsal malunion, has led to reports of transfer meta-

tarsalgia in between 10% and 30% of patients.




 Loss of

correction can also occur. Some authors have reported a

decrease in these complications by the use of internal fixa-

tion in order to increase stability.




The distal Chevron osteotomy. 


This is a V-shaped osteotomy

through the metatarsal neck followed by lateral displace-

ment of the capital fragment. This procedure leads to min-

imal shortening and is intrinsically stable against

dorsiflexion. It is indicated for mild to moderate deformi-





 Excellent clinical results have been reported





little or no transfer metatarsalgia when the procedure has

been used within limits of correction of the IMA of 4˚ to 8˚

and the HVA of 11˚ to 18˚.




  Loss of correction and

recurrence can occur from extending the indications to

more severe deformities and from loss of position at the

osteotomy site. The latter complication can be minimised

by cutting the osteotomy with a long dorsal or plantar arm

and using internal fixation.




 Some authors maintain that

the results are not as good in patients > 60 years.





others have not found this to be the case.




 The operation

is most often used in a non-congruent deformity with a nor-

mal DMAA. However, it can also be employed to correct an

increased DMAA by taking a medially-based closing wedge

by allowing medial rotation of the metatarsal head.





is termed a biplanar Chevron osteotomy.


Complications with distal osteotomies. 


A concern with the

Chevron and other distal osteotomies is the development of

avascular necrosis of the first metatarsal head with a

reported incidence of between 0% and 20%.





authors have noted a higher incidence when a concomitant

lateral release is performed




 and have cautioned against

such a combined procedure. Others have not found this to

be the case.




A number of studies




 have described the blood supply

of the head of the first metatarsal. Laterally it is derived






from the first dorsal and first plantar metatarsal artery and

medially from the superficial branch of the medial plantar

artery. From these vessels a multitude of capillaries envelop

the capsule and periosteum of the metatarsal head, includ-

ing a leash of vessels which enter the head just proximal to

its inferior surface. It is possible to dissect through the first

dorsal webspace and release the tendon of adductor hallu-

cis and the intermetatarsal ligament, performing a longitu-

dinal incision in the capsule of the first metatarso-

phalangeal joint without damaging the dorsolateral blood

supply to the head.




 If the sawblade passes too far beyond

the lateral cortex of the metatarsal it may damage the first

dorsal metatarsal artery. The blood supply to the meta-

tarsal head will also be seriously damaged if the dorsal, lat-

eral or inferior capsular attachments are disrupted. It is

therefore important when performing a distal osteotomy

that the surgeon ensures that the dorsal and plantar cuts

exit the bone proximal to the capsular attachments, the

plantar soft tissues to the metatarsal head are left intact and

the sawblade passes through, but not beyond, the lateral

cortex. It is crucial to follow these guidelines in order to

avoid avascular necrosis following a Chevron osteotomy.


Diaphyseal osteotomies


Diaphyseal osteotomies have been recommended if the

IMA is between 14˚ and 20˚.




 They allow longitudinal

division of the diaphysis and either translation (scarf) or

rotation (Ludloff) of the metatarsal to correct the IMA. Pli-

cation of the medial capsule and lateral release are usually

performed simultaneously.


The modified Ludloff osteotomy 


(Fig. 3)



This osteotomy

consists of a bone cut extending distally and inferiorly from

the dorsal cortex, 2 mm distal to the metatarsocuneiform

joint, to the plantar cortex.




 The osteotomy forms an angle

of 30˚ to the long axis of the metatarsal. The distal frag-

ment is rotated laterally on the proximal fragment and held

with two screws. It is also possible to displace the meta-

tarsal head plantarwards by angling the osteotomy. This

ensures that elevation of the metatarsal head does not occur

and can help relieve pressure on the second metatarsal

head. Excellent clinical results have been reported with the

Ludloff osteotomy, with good correction of the deformity

and without subsequent transfer metatarsalgia.





is minimal shortening of the metatarsal and it is bio-

mechanically more stable than the proximal chevron and

proximal crescentic osteotomies.




The scarf osteotomy 


(Fig. 3)



This is a Z-shaped step-cut

osteotomy and is named after its woodworking equivalent.

A longitudinal cut is made along the length of the diaphysis,

sloping plantarward as it passes laterally, allowing plantar

displacement and off-loading of the lesser rays. Chevrons



Fig. 3

Lateral view of the osteotomy cuts for the scarf and Ludloff osteotomies.

Fig. 4

A post-operative view of hallux valgus treated with scarf and Akin osteot-





VOL. 87-B, No. 8, AUGUST 2005


are made at each end of the osteotomy to connect it to the

dorsal cortex distally and the plantar cortex proximally.

The head and the plantar cortical fragment are then trans-

lated laterally and the osteotomy held with two compres-

sion screws. As the technique relies on translation of the

metatarsal head rather than rotation, shortening and

increase in the DMAA is avoided.




 By altering the geom-

etry of the cuts it is possible to shorten the metatarsal, or

reduce an abnormally-elevated DMAA. It can be modified

so that an abnormally increased DMAA can be cor-





  This osteotomy has a high degree of inherent

biomechanical stability and is more stable than the basal





Studies have shown that the clinical outcomes of the

scarf osteotomy compare favourably with those of basal

osteotomies, but there is an incidence of significant compli-

cations of between 4% and 11%.




  However, other

studies have reported less favourable results with a much

higher incidence of complications,




 indicating that it is a

technically-demanding procedure with a learning curve.

However, once mastered, it is a highly effective and versa-

tile procedure. It has traditionally been recommended for

an IMA of up to 18˚ to 20˚




 but with experience it can be

used for more severe deformities.




  The corrective

power can be increased by adding a varus osteotomy of the

proximal phalanx (Akin procedure) (Fig. 4). It is our pre-

ferred operation for deformities with an IMA > 14˚ as we

believe that it best fulfills the previously mentioned guide-

lines for osteotomies.

Diaphyseal osteotomies are technically demanding and

require an extensive surgical exposure. This necessitates

post-operative physiotherapy to prevent stiffness.


Basal osteotomies


The final group of procedures are the proximal (basal)

osteotomies. Opening wedge, closing wedge, crescentic and

basal chevron osteotomies have all been described. They

are normally combined with a distal soft-tissue procedure.

They have high corrective power due to their proximal

location providing a long lever arm. They can therefore be

used for moderate and severe deformities, but if the DMAA

is increased pre-operatively, a congruent deformity, they

will worsen this problem. Coughlin and Carlson





came this by adding a distal osteotomy to rotate the meta-

tarsal head medially (a double osteotomy), and in some

cases also an Akin osteotomy to correct hallux valgus inter-

phalangeus (triple osteotomy). They reported a rate of

patient satisfaction of 81% but an incidence of major com-

plications of 19% and a mean of 5 mm of metatarsal short-



Proximal wedge osteotomy. 


An opening wedge osteotomy

causes elongation and stretching of the medial soft-tissues

and requires a bone graft. It therefore has greater potential

for stiffness and nonunion. A closing wedge osteotomy is

easier to perform but leads to excessive shortening of the





  It is inherently unstable and dorsal

malunion occurs in up to 38%, leading to the potential for

post-operative transfer lesions.




 Distraction plates are now

available to fix opening wedge osteotomies and these may

improve the results.


The crescentic osteotomy. 


This osteotomy is associated

with Mann and Coughlin.




 It is created 1 cm distal to the

metatarsocuneiform joint with a crescentic sawblade and

the concavity directed proximally, through a dorsal

approach. The metatarsal shaft is rotated laterally and the

osteotomy held with a lag screw, a Steinmann pin or multi-

ple Kirschner wires. It leads to minimal shortening of the

first metatarsal. Excellent results have been described with

rates of patient satisfaction of > 90% and good correction

of the IMA and HVA even in severe cases.





some have found it technically difficult and its instability

has led to dorsal malunion in up to 17% of patients with

consequent transfer metatarsalgia.




The proximal Chevron osteotomy. 


This is technically easier

and intrinsically more stable to dorsiflexion than the cres-

centic osteotomy. It has been shown to cause less transfer





  Good results have been described.





involves a medial approach to the metatarsal and creation

of a proximally based V-shaped osteotomy. The metatarsal

shaft is rotated laterally on the inferior limb of the cut and

a bone graft from the excised medial eminence is inserted

into the superior limb for stability. The corrected position is

held with a suture between the first and second metatarsals,

although other forms of internal fixation can be added if





First metatarsophalangeal joint arthrodesis. 


This procedure

is indicated for hallux valgus in the rheumatoid patient and

when there are significant degenerative changes in the meta-

tarsophalangeal joint. It is also an option in severe or recur-

rent deformity, particularly in the older patient. Other

indications include hallux valgus secondary to neuro-

muscular diseases and as a salvage procedure following

failed surgery. Various techniques have been described with

an overall success rate of 90% and high levels of patient sat-

isfaction in appropriately-selected patients. The increased

IMA will be reduced after operation even in the most severe

deformities and a concomitant basal osteotomy is not indi-





First tarsometatarsal joint arthrodesis (Lapidus). 


This is indi-

cated in combination with a distal soft-tissue procedure in

the patient with hypermobility of the first tarsometatarsal

joint, especially if associated with generalised ligamentous

laxity. Mann and Coughlin




  estimate this to occur in

approximately 3% to 5% of patients. Hypermobility can

be determined clinically as outlined previously but it is dif-

ficult to estimate accurately and reproducibly. The pro-

cedure is also indicated in the presence of degenerative

changes in the first or second tarsometatarsal joint and is an

option in severe deformity with an IMA of > 20˚. It is

contraindicated in the adolescent with an open physis at the

base of the first metatarsal and also in patients with a short

first metatarsal or degenerative changes in the first meta-






tarsophalangeal joint. The procedure is technically demand-

ing and associated with a prolonged period of recovery and

increased morbidity when compared to metatarsal oste-





 It also leads to shortening and care must be

taken to resect as little bone as possible to avoid this. As the

varus of the first metatarsal is corrected the first ray should

be plantarflexed slightly to avoid elevation and transfer

metatarsalgia. The rate of patient satisfaction varies

between 75% and 90% with fusion rates of approximately







Surgery for hallux valgus, while technically demanding, has

a high rate of success in appropriately selected patients.

However, a small number of patients have poor outcomes

following operation. Randomised, controlled trials are

needed to elucidate the factors which determine a good out-

come. There is also a need for a  good validated outcome


Our preferred methods of treatment are shown in Table I.




1. Lam SL, Hodgson AR.


 A comparison of foot forms among the non-shoe and shoe-

wearing Chinese population. 


J Bone Joint Surg [Am]




2. Kato S, Watanabe S.


 The etiology of hallux valgus in Japan. 


Clin Orthop





3. Glynn MK, Dunlop JB, Fitzpatrick D.


 The Mitchell distal metatarsal osteotomy for

hallux valgus. 


J Bone Joint Surg [Br]




4. Mann RA, Coughlin MJ.


 Adult hallux valgus. In: Coughlin MJ, Mann RA, eds. 



gery of the foot and ankle


. Vol. 1. Seventh ed. St. Louis: Mosby Inc., 1999:150-269.


5. Coughlin MJ, Shurnas PS.


 Hallux valgus in men: part II: first ray mobility after bun-

ionectomy and factors associated with hallux valgus deformity. 


Foot Ankle Int





6. Coughlin MJ.


 Juvenile hallux valgus: etiology and treatment. 


Foot Ankle Int





7. Myerson MS, Badekas A.


 Hypermobility of the first ray. 


Foot Ankle Clin





8. Klaue K, Hansen ST, Masquelet AC.


 Clinical, quantitative assessment of first tar-

sometatarsal mobility in the sagittal plane and its relation to hallux valgus deformity.


Foot Ankle Int




9. Lee KT, Young K.


  Measurement of first-ray mobility in normal vs. hallux valgus



Foot Ankle Int 




10. Glasoe WM, Allen MK, Saltzman CL.


 First ray dorsal mobility in relation to hallux

valgus deformity and first intermetatarsal angle. 


Foot Ankle Int




11. Ito H, Shimizu A, Miyamoto T, Katsura Y, Tanaka K.


  Clinical significance of

increased mobility in the sagittal plane in patients with hallux valgus. 


Foot Ankle Int


12. Coughlin MJ, Jones CP, Viladot R, et al. Hallux valgus and first ray mobility: a

cadaveric study. Foot Ankle Int 2004;25:537-44.

13. Stephens MM. Pathogenesis of hallux valgus. Eur J Foot Ankle Surg 1994;1:7-10.

14. Mann RA, Rudicel S, Graves SC. Repair of hallux valgus with a distal soft-tissue

procedure and proximal metatarsal osteotomy: a long-term follow-up. J Bone Joint

Surg [Am] 1992;74-A:124-9.

15. Torkki M, Malmivaara A, Seitsalo S, et al. Surgery vs orthosis vs watchful wait-

ing for hallux valgus: a randomized controlled trial. JAMA 2001;285:2472-80.

16. Mann RA, Pfeffinger L. Hallux valgus repair: DuVries modified McBride procedure.

Clin Orthop 1991;272:213-18.

17. Zembsch A, Trnka HJ, Ritschl P. Correction of hallux valgus: metatarsal osteotomy

versus excision arthroplasty. Clin Orthop 2000;376:183-94.

18. Axt M, Wildner M, Reichelt A. Late results of the Keller-Brandes operation for hal-

lux valgus. Arch Orthop Trauma Surg 1993;112:266-9.

19. Donley BG, Vaughn RA, Stephenson KA, Richardson EG. Keller resection arthro-

plasty for treatment of hallux valgus deformity: increased correction with fibular ses-

amoidectomy. Foot Ankle Int 2002;23:699-703.

20. Schneider W, Knahr K. Keller procedure and chevron osteotomy in hallux valgus:

five-year results of different surgical philosophies in comparable collectives. Foot

Ankle Int 2002;23:321-9.

21. Majkowski RS, Galloway S. Excision arthroplasty for hallux valgus in the elderly:

a comparison between the Keller and modified Mayo operations. Foot Ankle 1992;13:


22. Vallier GT, Petersen SA, LaGrone MO. The Keller resection arthroplasty: a 13 year

experience. Foot Ankle 1991;11:187-94.

Table I. The authors’ preferred methods of treatments



Mild hallux valgus (IMA


 up to 14˚)

Normal DMAA

Chevron osteotomy with a long inferior limb; internally fixed with a 

single screw.

Increased DMMA

A biplanar chevron osteotomy, excising a medial wedge to allow 

medial rotation of the metatarsal head as it is translated laterally; 

internally fixed with a single screw.

Moderate hallux valgus (IMA 14˚ to 20˚)

Normal DMAA

A scarf osteotomy with a distal soft-tissue procedure is used. A varus 

osteotomy of the proximal phalanx (Akin procedure) is added if more 

correction is desired. The Akin osteotomy is fixed with a staple. If 

there is any residual pronation of the hallux this can be reduced by 

rotating the Akin osteotomy.

Increased DMMA

The same procedure is undertaken, but the DMAA is corrected by 

rotating the scarf osteotomy

Severe hallux valgus (IMA > 20˚)

For intermetatarsal angles > 20˚ there are four principle options: 

extend the indications for a scarf osteotomy, undertake a rotational 

osteotomy (Ludloff, crescentic or chevron) or perform a fusion either 

at the tarsometatarsal or metatarsophalangeal joint. Our preference is 

to perform a scarf osteotomy in most cases.

Hallux valgus with first tarsometatarsal hypermobility

A first tarsometatarsal fusion (Lapidus) with a distal soft-tissue pro-

cedure may be undertaken

Hallux valgus with first metatarsophalangeal joint degeneration

First metatarsophalangeal joint arthrodesis is performed

Hallux valgus interphalangeus

This is treated with an Akin osteotomy. Hallux valgus interphalangeus 

in isolation is rare, and an Akin osteotomy is normally performed in 

conjunction with other procedures which correct the intermetatarsal 


* IMA, intermetatarsal angle

† DMMA, distal metatarsal articular angle



VOL. 87-B, No. 8, AUGUST 2005

23. Machacek F Jr, Easley ME, Gruber F, Ritschl P, Trnka HJ. Salvage of a failed

Keller resection arthroplasty. J Bone Joint Surg [Am] 2004;86-A:1131-8.

24. Myerson MS, Schon LC, McGuigan FX, Oznur A. Result of arthrodesis of the hal-

lux metatarsophalangeal joint using bone graft for restoration of length. Foot Ankle

Int 2000;21:297-306.

25. Brodsky JW, Ptaszek AJ, Morris SG. Salvage first MTP arthrodesis utilizing ICBG:

clinical evaluation and outcome. Foot Ankle Int 2000;21:290-6.

26. Mann RA, Coughlin MJ. Hallux valgus: etiology, anatomy, treatment and surgical

considerations. Clin Orthop 1981;157:31-41.

27. Johnson JE, Clanton TO, Baxter DE, Gottlieb MS. Comparison of Chevron osteot-

omy and modified McBride bunionectomy for correction of mild to moderate hallux

valgus deformity. Foot Ankle 1991;12:61-8.

28. Kitaoka HB, Franco MG, Weaver AL, Ilstrup DM.  Simple bunionectomy with

medial capsulorrhaphy. Foot Ankle 1991;12:86-91.

29. Keogh P, Jaishanker JS, O’Connell RJ, White M. The modified Wilson osteotomy

for hallux valgus. Clin Orthop 1990;255:263-7.

30. Pouliart N, Haentjens P, Opdecam P. Clinical and radiological evaluation of Wil-

son osteotomy for hallux valgus. Foot Ankle Int 1996;17:388-94.

31. Nery C, Barroco R, Réssio C. Biplanar chevron osteotomy. Foot Ankle Int 2002;23:


32. Blum JL. The modified Mitchell osteotomy-bunionectomy: indications and technical

considerations. Foot Ankle Int 1994;15:103-6.

33. Kuo CH, Huang PJ, Cheng YM, et al. Modified Mitchell osteotomy for hallux val-

gus. Foot Ankle Int 1998;19:585-9.

34. Briggs TW, Smith P, McAuliffe TB. Mitchell’s osteotomy using internal fixation

and early mobilisation. J Bone Joint Surg [Br] 1992;74-B:137-9.

35. Hawkins FB, Mitchell CL, Hedrick CW. Correction of hallux valgus by metatarsal

osteotomy. J Bone Joint Surg [Am] 1945;27-A:387-94.

36. Coull R, Stephens MM. Operative decision making in hallux valgus. Current Orthop


37. Trnka HJ, Zembsch A, Weisauer H, et al. Modified Austin procedure for correction

of hallux valgus. Foot Ankle Int 1997;18:119-27.

38. Donnelly RE, Saltzman CL, Kile TA, Johnson KA. Modified chevron osteotomy for

hallux valgus. Foot Ankle Int 1994;15:642-5.

39. Green MA, Dorris MF, Baessler TP, Mandel LM, Nachlas MJ. Avascular necro-

sis following distal Chevron osteotomy of the first metatarsal. J Foot Ankle Surg


40. Horne G, Tanzer T, Ford M. Chevron osteotomy for the treatment of hallux valgus.

Clin Orthop 1984;183:32-6.

41. Meier PJ, Kenzora JE. The risks and benefits of distal first metatarsal osteotomies.

Foot Ankle 1985;6:7-17.

42. Hattrup SJ, Johnson KA. Chevron osteotomy: analysis of factors in patients’ dis-

satisfaction. Foot Ankle 1985;5:327-32.

43. Shereff M, Yang Q, Kummer F. Extraosseous and intraosseous arterial supply tp the

first metatarsal and MTP joint. Foot Ankle 1987;8:81-93.

44. Peterson DA, Zilbergarb JL, Greene MA, Colgrove RC. Avascular necrosis of the

first metatarsal head: incidence in distal osteotomy combined with lateral soft tissue

release. Foot Ankle Int 1994;15:59-63.

45. Jones KJ, Feiwell LA, Freedman EL, Cracchiolo A 3rd. The effect of Chevron

osteotomy with lateral capsular release on the blood supply to the first metatarsal

head. J Bone Joint Surg [Am] 1995;77-A:197-204.

46. Kristen KH, Berger C, Steizig S, et al. The SCARF osteotomy for the correction of

hallux valgus deformities. Foot Ankle Int 2002;23:221-9.

47. Crevoisier X, Mouhsine E, Ortolano V, Udin B, Dutoit M. The scarf osteotomy for

the treatment of hallux valgus deformity: a review of 84 cases. Foot Ankle Int 2001;22:


48. Chlodo CP, Schon LC, Myerson MS. Clinical results with the Ludloff osteotomy for

correction of adult hallux valgus. Foot Ankle Int 2004;25:532-6.

49. Saxena A, McVammon D. The Ludloff osteotomy: a critical analysis. J Foot Ankle

Surg 1997;36:100-5.

50. Nyska M, Trnka HJ, Parks BG, Myerson MS. Proximal metatarsal osteotomies: a

comparative geometric analysis conducted on sawbone models. Foot Ankle Int 2002;


51. Nyska M, Trnks HJ, Parks BG, Myerson MS. The Ludloff metatarsal osteotomy:

guidelines for optimal correction based on a geometric analysis conducted on a saw-

bone model. Foot Ankle Int 2003;24:34-9.

52. Smith AM, Alwan T, Davies MS. Perioperative complications of the Scarf osteot-

omy. Foot Ankle Int 2003;24:222-7.

53. Nyska M. Principles of first metatarsal osteotomies. Foot Ankle Clin 2001;6:399-408.

54. Popoff I, Negrine JP, Zecovic M, Svehla M, Walsh WR. The effect of screw type

on the biomechanical properties of SCARF and crescentic osteotomies of the first

metatarsal. J Foot Ankle Surg 2003;42:161-4.

55. Newman AS, Negrine JP, Zevovic M, Stanford P, Walsh WR. A biomechanical

comparison of the Z step-cut and basilar crescentic osteotomies of the first metatar-

sal. Foot Ankle Int 2000;21:584-7.

56. Weil LS. Scarf osteotomy for correction of hallux valgus: historical perspective, sur-

gical technique and results. Foot Ankle Clin 2000;5:559-80.

57. Coetzee JC. Scarf osteotomy for hallux valgus repair: the dark side. Foot Ankle Int


58. Barouk LS.  Scarf osteotomy for hallux valgus correction: local anatomy, surgical

technique, and combination with other forefoot procedures. Foot Ankle Clin 2000;5:


59. Dereymaeker G. Scarf osteotomy for correction of hallux valgus: surgical technique

and results as compared to distal chevron osteotomy. Foot Ankle Clin 2000;5:513-24.

60. Coughlin MJ, Carlson RE.  Treatment of hallux valgus with an increased distal

metatarsal articular angle: evaluation of double and triple first ray osteotomies. Foot

Ankle Int 1999;20:762-70.

61. Veri JR, Pirani SP, Claridge R. Crescenitic proximal metatarsal osteotomy for mod-

erate to severe hallux valgus: a mean 12.2 year follow-up study. Foot Ankle Int 2001;


62. Brodsky JW, Beischer A, Robinson AHN, et al.  Hallux valgus correction with

modified Mcbride bunionectomy and proximal crescentic osteotomy: clinical, radio-

logical and pedobarographic outcome [abstract]. Procs American Academy of Ortho-

paedic Surgeons, 2001.

63. Easley ME, Kiebzak GM, Davis WH, Anderson RB. Prospective, randomized com-

parison of proximal crescentic and proximal chevron osteotomies for correction of

hallux valgus deformity. Foot Ankle Int 1996;17:307-16.

64. Acevedo JI, Sammarco VJ, Boucher HR, et al. Mechanical comparison of cyclic

loading in five different first metatarsal shaft osteotomies. Foot Ankle Int 2002;23:


65. Markbreiter LA, Thompson FM. Proximal metatarsal osteotomy in hallux valgus

correction: a comparison of crescentic and chevron procedures. Foot Ankle Int 1997;


66. Borton DC, Stephens MM. Basal metatarsal osteotomy for hallux valgus. J Bone

Joint Surg [Br] 1994;76-B:204-9.

67. Mann RA, Katcherian DA. Relationship of metatarsophalangeal joint fusion on the

intermetatarsal angle. Foot Ankle 1989;10:8-11.

68. Myerson MD. Metatarsocuneiform arthrodesis for treatment of hallux valgus and

metatarsus primus varus. Orthopaedics 1990;13:1025-31.

69. Sangeorzan BJ, Hansen ST Jr. Modified Lapidus procedure for hallux valgus. Foot

Ankle 1989;9:262-6.

70. Coetzee JC, Wickum D.  The Lapidus procedure: a prospective cohort outcome

study. Foot Ankle Int 2004;25:526-31.

Yüklə 152,4 Kb.

Dostları ilə paylaş:

Verilənlər bazası müəlliflik hüququ ilə müdafiə olunur © 2022
rəhbərliyinə müraciət

    Ana səhifə