Madelung Deformity 

  • Author: Paul M Lamberti, MD; Chief Editor: Dennis P Grogan, MD   more...
 
Updated: Aug 10, 2010
 

Background

Madelung deformity (MD) of the wrist is characterized by a growth disturbance in the volar-ulnar distal radial physis that results in a volar and ulnar tilted distal radial articular surface, volar translation of the hand and wrist, and a dorsally prominent distal ulna. It occurs predominantly in adolescent females who present with pain, decreased range of motion, and deformity. It often has a genetic etiology and is associated with mesomelic dwarfism and a mutation on the X chromosome. The deformity can be treated surgically by addressing the deforming bony and ligamentous lesions, correcting the abnormal position of the radial articular surface, and equalizing the longitudinal levels of the distal radius and ulna.[1, 2]

Images depicting a Madelung deformity can be seen below.

Preoperative wrist posteroanterior radiograph of aPreoperative wrist posteroanterior radiograph of a 13-year-old girl (patient A) with dyschondrosteosis and Madelung deformity of the wrist. Preoperative anteroposterior radiograph of wrist oPreoperative anteroposterior radiograph of wrist of patient B. This patient has primary Madelung deformity (no sign of dyschondrosteosis). Preoperative photograph of 17-year-old girl (patiePreoperative photograph of 17-year-old girl (patient C) with idiopathic Madelung deformity. Preoperative photograph of 17-year-old girl (patiePreoperative photograph of 17-year-old girl (patient C) with idiopathic Madelung deformity.
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History of the Procedure

Otto W. Madelung described the wrist deformity bearing his name at the Seventh German Surgical Congress of 1878 as "Die spontane subluxation der hand nocte vorne" or "spontaneous forward subluxation of the hand." Though previous authors had described lesions that we might now term Madelung deformity, the ascribed etiologies were inconsistent. Several authors prior to Madelung, including Dupuytren in 1834, Nelaton in 1847, and Malgaigne in 1855, had described entities termed carpus curvus, radius curvus, progressive subluxation of the wrist, manus valgus, manus furca, and idiopathic progressive curvature of the radius. Dupuytren's description in 1834 was based on a quotation from Bégin, who attributed the deformity to a repetitive occupational injury. Nelaton vaguely described an anatomic specimen with a deformity suggestive of MD. Malgaigne also described a good example of MD. However, Madelung first accurately described it clinically and proposed both an etiology and treatment.[3]

Contributions to French, German, and Italian literature concerning MD between 1880 and 1908 were purely descriptive, without agreement regarding etiology, pathogenesis, or treatment. During the same period, however, Madelung's work in British and American literature was completely disregarded. One of the first papers in American literature authored by DeWitt Stetten in 1909, a case report and review of European literature, only perpetuated inaccurate information.[4]

Anton, Reitz, and Spiegel published the first comprehensive paper in American literature concerning MD in 1938 in the Annals of Surgery.[1] They collected and tabulated 172 cases of MD and gave a detailed case history of one case. Clinical, radiographic, pathologic, epidemiological, and etiologic theories regarding MD were presented. They attempted to create a new classification system and even to rename the deformity from its eponym to one that was more descriptive. Their main purpose, however, was to dispel inaccurate information that had been presented in previous reports.

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Epidemiology

Frequency

Several hundred cases of MD have been presented in the literature since its first description. However, no published reports exist on the actual frequency of MD in the population.[5]

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Etiology

Henry and Thorburn classified MD into 4 different etiologic groups, as follows: (1) posttraumatic, (2) dysplastic, (3) chromosomal or genetic (Turner syndrome), and (4) idiopathic or primary.[6] The posttraumatic deformity has been found following repetitive trauma or following a single event that disrupts growth of the distal radial ulnar-volar physis. Bone dysplasias associated with MD include multiple hereditary osteochondromatosis, Ollier disease, achondroplasia, multiple epiphysial dysplasias, and the mucopolysaccharidoses (eg, Hurler and Morquio syndromes). Secondary causes of wrist deformity that may mimic MD include sickle-cell disease, infection, tumor, and rickets. The most important dysplasia associated with MD, however, is dyschondrosteosis.[7, 8, 9, 10] See wrist images below.

Preoperative wrist posteroanterior radiograph of aPreoperative wrist posteroanterior radiograph of a 13-year-old girl (patient A) with dyschondrosteosis and Madelung deformity of the wrist. Preoperative lateral wrist radiograph of patient APreoperative lateral wrist radiograph of patient A.

Dyschondrosteosis is a form of mesomelic dwarfism associated with MD that was first described by Leri and Weill in 1929. Dyschondrosteosis is characterized by variable short stature, short forearms, and tibial/fibular shortening. Specifically, height is less than the 25th percentile, the radius is 75% of the length of the humerus, and the tibia is 85% of the length of the femur. Dyschondrosteosis becomes more pronounced clinically during adolescence. No other abnormalities are commonly associated.

Forearm shortening in dyschondrosteosis tends to be bilateral and appears almost identical to that in primary MD, except that the proximal radius is involved in patients with dyschondrosteosis, as seen in the first image below, and the proximal radius is not involved in primary MD, as seen in the last two images below. Both dyschondrosteosis and MD are transmitted in an autosomal dominant fashion with a female predominance.[11]

Lateral radiograph of elbow of patient A, depictinLateral radiograph of elbow of patient A, depicting a dysplastic proximal radius. This is characteristic of dyschondrosteosis. Preoperative anteroposterior radiograph of wrist oPreoperative anteroposterior radiograph of wrist of patient B. This patient has primary Madelung deformity (no sign of dyschondrosteosis). Preoperative lateral radiograph of wrist of patienPreoperative lateral radiograph of wrist of patient B. The flame-shaped radiolucency in the metaphysis of the radius is occupied by the fibrocartilaginous Vickers ligament.

With such a similarity between primary MD and Leri-Weill dyschondrosteosis, the reason many authors have described them as a single entity is apparent. However, many children with unilateral and bilateral MD have normal stature and no other characteristic of dyschondrosteosis. Therefore, it is reasonable to describe primary MD as a separate, but related, condition. To differentiate primary MD from dyschondrosteosis, Felman and Kirkpatrick suggested the following criteria:[12] Primary MD can be defined as occurring in a child above the 25th percentile in height with no family history of dyschondrosteosis and no history of other secondary causes. Conversely, a patient who is less than 5 feet tall at skeletal maturity, has proximal involvement of the radius, and has a relatively short tibia and fibula may have mesomelic dwarfism.

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Pathophysiology

One third of cases of MD are transmitted in an autosomal dominant fashion. The condition has a variable expression and 50% penetrance. MD is bilateral in 50% of cases and is primarily found in females. A number of affected kindreds of patients with MD have been described. Numerous cases of multiple patients with MD within families have been reported.[13, 14] A recent report details 5 generations of family members with bilateral MD without signs of dyschondrosteosis. Finally, a primary chromosomal association with MD has been observed in patients with Turner syndrome (karyotype XO). MD was the presenting sign of Turner syndrome in one young girl, while Henry and Thorburn diagnosed Turner syndrome incidentally when studying a series of patients with MD who underwent cytogenetic evaluation.[6]

Recently, molecular genetic studies clarified the association of the female predominant MD, dyschondrosteosis, and the missing X chromosome in Turner syndrome. The idea that an X chromosomal translocation causing dyschondrosteosis was first proposed in 1985. An X chromosomal translocation also was found to be associated with MD in 1997.

In 1998, groups from London, England, and Switzerland established a marker that was linked to the pseudoautosomal region (PAR1) of the X and Y chromosomes. Within families affected by a short stature dysplasia, the groups found deletions and a premature stop codon (exon 4) in the short stature homeobox-containing gene, SHOX, that segregated the marker in band Xp22.[15]

In 2000, another group reported that the SHOX gene mutation was found in patients with dyschondrosteosis and MD in multiple cases. Families with this mutation and individuals with Turner syndrome (both essentially hemizygous individuals for the SHOX gene) and families with a history of MD have been shown to exhibit a variable expression of MD and dyschondrosteosis. The variability in expression indicates that a modifier gene on another area of the X chromosome or on an autosomal gene most likely is involved also.[16] The SHOX mutation continues to be the subject of many studies.[17, 18]

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Presentation

Symptoms usually begin during adolescence in girls aged 10-14 years; patients rarely present when younger than 8-9 years. Because MD is observed so rarely in males, it has been proposed that a true severe case of MD never occurs in males.

Patients experience increasing deformity and pain in the wrist with decreased range of motion. On physical examination, the hand is translated volarly to the long axis of the forearm. The ulna, being relatively unaffected, abuts the carpus and becomes prominent dorsally relative to the carpus and hand. Range of motion is decreased, with a limitation of supination, dorsiflexion, and radial deviation. Pronation and flexion usually are normal.

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Indications

Operative treatment for MD is indicated for pain relief and cosmetic improvement. These indications are consistent among many authors. Range of motion, especially in pronation and supination, is usually only minimally improved and varies in different operative series.

In the skeletally immature patient with clear evidence of MD, the most likely cause of pain is tension within Vickers ligament. Release of the ligament alone or in combination with an osteotomy is indicated. In the skeletally mature patient, the congruency of the radiocarpal joint and the DRUJ (dislocation of the distal radioulnar joint) are assessed. If an osteotomy will result in a secondarily congruous joint, then an osteotomy is indicated. However, if radiocarpal congruity is not possible to obtain, a radioscaphocapitate arthrodesis is indicated. Similarly, if DRUJ congruity is not possible, then a Darrach or Sauve-Kapandji procedure is indicated.

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Relevant Anatomy

An important anatomical consideration in MD is the normal position of the distal radial articular surface. Four features of this articular surface should be noticed radiographically, namely, radial inclination, radial length, volar tilt, and ulnar variance. Radial inclination is the angle formed by a line from the distal radioulnar joint to the radial styloid and a line perpendicular to the shaft of the radius through the lunate fossa. The angle normally is 21-23°. Radial length is the difference in longitudinal level between the lunate fossa and the radial styloid, which should be 12-15 mm. Volar tilt is measured on a lateral radiograph and is the angle formed between a line perpendicular to the radial shaft and a line through the dorsal and volar rims of the radial joint surface. Normally, this is 10-15°. Finally, ulnar variance is the relative difference in height between the radial and ulnar distal articular surfaces. These should be level with each other.

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Contraindications

No specific contraindications to surgery exist other than those associated with any elective surgery.

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Contributor Information and Disclosures
Author

Paul M Lamberti, MD  Principal Surgeon, Lamberti Orthopedic and Hand Surgery, LLC

Paul M Lamberti, MD is a member of the following medical societies: American Academy of Surgeons Orthopedic Surgery, American Medical Association, and American Society for Surgery of the Hand

Disclosure: Nothing to disclose.

Coauthor(s)

Terry R Light, MD  Dr William M Scholl Professor and Chair, Department of Orthopedic Surgery, Loyola University School of Medicine; Attending Surgeon, Department of Orthopedic Surgery and Rehabilitation, Loyola University Medical Center

Terry R Light, MD is a member of the following medical societies: American Academy of Orthopaedic Surgeons, American Association for Hand Surgery, American College of Surgeons, American Orthopaedic Association, American Society for Surgery of the Hand, Association of Bone and Joint Surgeons, and Illinois Association of Orthopaedic Surgeons

Disclosure: Nothing to disclose.

Specialty Editor Board

Charles T Mehlman, DO, MPH  Professor of Pediatrics and Pediatric Orthopedic Surgery, Division of Pediatric Orthopedic Surgery, Director, Musculoskeletal Outcomes Research, Cincinnati Children's Hospital Medical Center

Charles T Mehlman, DO, MPH is a member of the following medical societies: American Academy of Pediatrics, American Fracture Association, American Medical Association, American Orthopaedic Foot and Ankle Society, American Osteopathic Association, Arthroscopy Association of North America, North American Spine Society, Ohio State Medical Association, Pediatric Orthopaedic Society of North America, and Scoliosis Research Society

Disclosure: Nothing to disclose.

Francisco Talavera, PharmD, PhD  Senior Pharmacy Editor, eMedicine

Disclosure: eMedicine Salary Employment

George H Thompson, MD  Director, Pediatric Orthopedics, Rainbow Babies and Children's Hospital

George H Thompson, MD is a member of the following medical societies: American Academy of Orthopaedic Surgeons, American Orthopaedic Association, Pediatric Orthopaedic Society of North America, and Scoliosis Research Society

Disclosure: OrthoPediatrics None Consulting; Journal of Pediatric Orthopaedics Salary Management position

Dinesh Patel, MD, FACS  Associate Clinical Professor of Orthopedic Surgery, Harvard Medical School; Chief of Arthroscopic Surgery, Department of Orthopedic Surgery, Massachusetts General Hospital

Dinesh Patel, MD, FACS is a member of the following medical societies: American Academy of Orthopaedic Surgeons

Disclosure: Nothing to disclose.

Chief Editor

Dennis P Grogan, MD  Clinical Professor, Department of Orthopedic Surgery, University of South Florida College of Medicine; Chief of Staff, Department of Orthopedic Surgery, Shriners Hospital for Children of Tampa

Dennis P Grogan, MD is a member of the following medical societies: American Academy of Orthopaedic Surgeons, American Medical Association, American Orthopaedic Association, American Orthopaedic Foot and Ankle Society, Eastern Orthopaedic Association, Irish American Orthopaedic Society, Pediatric Orthopaedic Society of North America, and Scoliosis Research Society

Disclosure: Nothing to disclose.

References
  1. Anton JI, Reitz GB, Speigel MB. Madelung's deformity. Ann Surg. 1938;108(3):411-39.

  2. Nielsen JB. Madelung's deformity. A follow-up study of 26 cases and a review of the literature. Acta Orthop Scand. 1977;48(4):379-84. [Medline].

  3. Arora AS, Chung KC. Otto W. Madelung and the recognition of Madelung's deformity. J Hand Surg [Am]. Feb 2006;31(2):177-82. [Medline].

  4. Stetten D. Idiopathic progressive curvature of the radius, or so-called Madelung's deformity of the wrist (carpus varus and carpus valgus). Surg Gyn Obstet. 1909;8:4-25.

  5. Zebala LP, Manske PR, Goldfarb CA. Madelung's deformity: a spectrum of presentation. J Hand Surg [Am]. Nov 2007;32(9):1393-401. [Medline].

  6. Henry A, Thorburn MJ. Madelung's deformity. A clinical and cytogenetic study. J Bone Joint Surg Br. Feb 1967;49(1):66-73. [Medline].

  7. Beals RK, Lovrien EW. Dyschondrosteosis and Madelung's deformity. Report of three kindreds and review of the literature. Clin Orthop Relat Res. May 1976;24-8. [Medline].

  8. Berdon WE, Grossman H, Baker DH. Dyschondrosteose (Leri-Weill syndrome): congenital short forearms, Madelung-type wrist deformities, and moderate dwarfism. Radiology. Oct 1965;85(4):677-81. [Medline].

  9. Langer LO. Dyschondrosteosis, a hereditable bone dysplasia with characteristic roentgenographic features. Am J Roentgen Radium Ther Nucl Med. 1965;95(1):178-88.

  10. Blanco ME, Pérez-Cabrera A, Kofman-Alfaro S, Zenteno JC. Clinical and cytogenetic findings in 14 patients with madelung anomaly. Orthopedics. Mar 2005;28(3):315-9. [Medline].

  11. Palka G, Stuppia L, Guanciali Franchi P. Short arm rearrangements of sex chromosomes with haploinsufficiency of the SHOX gene are associated with Leri-Weill dyschondrosteosis. Clin Genet. Jun 2000;57(6):449-53. [Medline].

  12. Felman AH, Kirkpatrick JA Jr. Madelung's deformity: observations in 17 patients. Radiology. Nov 1969;93(5):1037-42. [Medline].

  13. Dawe C, Wynne-Davies R, Fulford GE. Clinical variation in dyschondrosteosis. A report on 13 individuals in 8 families. J Bone Joint Surg [Br]. 1982;64(3):377-81. [Medline].

  14. Plafki C, Luetke A, Willburger RE, Wittenberg RH, Steffen R. Bilateral Madelung's deformity without signs of dyschondrosteosis within five generations in a European family--case report and review of the literature. Arch Orthop Trauma Surg. 2000;120(1-2):114-7. [Medline].

  15. Shears DJ, Vassal HJ, Goodman FR. Mutation and deletion of the pseudoautosomal gene SHOX cause Leri-Weill dyschondrosteosis. Nat Genet. May 1998;19(1):70-3. [Medline].

  16. Schwartz RP, Sumner TE. Madelung's deformity as a presenting sign of Turner's syndrome. J Pediatr. Apr 2000;136(4):563. [Medline].

  17. Benito-Sanz S, del Blanco DG, Aza-Carmona M, Magano LF, Lapunzina P, Argente J. PAR1 deletions downstream of SHOX are the most frequent defect in a Spanish cohort of Léri-Weill dyschondrosteosis (LWD) probands. Hum Mutat. Oct 2006;27(10):1062. [Medline].

  18. Huber C, Rosilio M, Munnich A, Cormier-Daire V,. High incidence of SHOX anomalies in individuals with short stature. J Med Genet. Sep 2006;43(9):735-9. [Medline].

  19. Carter PR, Ezaki M. Madelung's deformity. Surgical correction through the anterior approach. Hand Clin. Nov 2000;16(4):713-21, x-xi. [Medline].

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  21. Vickers D, Nielsen G. Madelung deformity: surgical prophylaxis (physiolysis) during the late growth period by resection of the dyschondrosteosis lesion. J Hand Surg [Br]. Aug 1992;17(4):401-7. [Medline].

  22. Aharoni C, Glard Y, Launay F, Gay A, Legré R. [Madelung deformity: isolated ulnar wedge osteotomy]. Chir Main. Dec 2006;25(6):309-14. [Medline].

  23. de Billy B, Gastaud F, Repetto M. Treatment of Madelung's deformity by lengthening and reaxation of the distal extremity of the radius by Ilizarov's technique. European Journal of Pediatric Surgery. 1994;7:296-298.

  24. dos Reis FB, Katchburian MV, Faloppa F, et al. Osteotomy of the radius and ulna for the Madelung deformity. J Bone Joint Surg Br. Sep 1998;80(5):817-24. [Medline].

  25. Gong HS, Roh YW, Oh JH, Lee YH, Chung MS, Baek GH. Computed tomographic assessment of reduction of the distal radioulnar joint by gradual lengthening of the radius. J Hand Surg Eur Vol. Jun 2009;34(3):391-6. [Medline].

  26. Houshian S, Jorgsholm PB, Friis M, et al. Madelung deformity treated with Ilizarov technique: a report of two cases. J Hand Surg [Br]. Aug 2000;25(4):396-9. [Medline].

  27. Laffosse JM, Abid A, Accadbled F, Knör G, Sales de Gauzy J, Cahuzac JP. Surgical correction of Madelung's deformity by combined corrective radioulnar osteotomy: 14 cases with four-year minimum follow-up. Int Orthop. Dec 2009;33(6):1655-61. [Medline].

  28. McCarroll HR Jr, James MA, Newmeyer WL 3rd, Manske PR. Madelung's Deformity: Diagnostic Thresholds of Radiographic Measurements. J Hand Surg Am. Mar 26 2010;[Medline].

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Preoperative wrist posteroanterior radiograph of a 13-year-old girl (patient A) with dyschondrosteosis and Madelung deformity of the wrist.
Preoperative lateral wrist radiograph of patient A.
Lateral radiograph of elbow of patient A, depicting a dysplastic proximal radius. This is characteristic of dyschondrosteosis.
Preoperative anteroposterior radiograph of wrist of patient B. This patient has primary Madelung deformity (no sign of dyschondrosteosis).
Preoperative lateral radiograph of wrist of patient B. The flame-shaped radiolucency in the metaphysis of the radius is occupied by the fibrocartilaginous Vickers ligament.
Postoperative anteroposterior radiograph of wrist of patient B following Vickers physiolysis. Vickers ligament and the ulnar abnormal physis have been excised.
Postoperative lateral radiograph of the wrist of patient B following Vickers physiolysis.
Postoperative anteroposterior radiograph from patient A following biplane osteotomy of distal radius and ulnar shortening procedure.
Postoperative lateral radiograph from patient A following biplane osteotomy of radius and ulnar shortening procedure.
Preoperative photograph of 17-year-old girl (patient C) with idiopathic Madelung deformity.
Preoperative photograph of 17-year-old girl (patient C) with idiopathic Madelung deformity.
Preoperative posteroanterior radiograph of wrist from patient C.
Preoperative lateral radiograph of wrist from patient C.
Intraoperative photo of Vickers ligament, outlined in red.
Intraoperative color photograph of Vickers ligament. The ligament is outlined in the previous image.
Postoperative result in patient C. Compare with preoperative appearance.
Postoperative lateral radiograph. Note dorsal translation of distal radius after Carter-Ezaki dome osteotomy.
Postoperative posteroanterior radiograph with Kirschner-wire fixation in place. Note combination of ulnar translation of distal radius and correction of radial tilt towards normal after Carter-Ezaki dome osteotomy.
Preoperative plan prior to Carter-Ezaki dome osteotomy. Dorsal translation of the distal radius is depicted.
Preoperative plan prior to Carter-Ezaki dome osteotomy. Rotation of the distal radius to accomplish both ulnar translation and normalization of radial tilt is depicted.
 
 
 
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